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30e2a354cb doc fixes
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2024-02-10 11:53:46 +01:00
0af6b5283d documentation fixes
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2024-02-09 19:26:55 +01:00
3e5f05e634 fixed all tests
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2024-02-09 19:21:49 +01:00
b5efc0081c start refactoring the pool
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2024-02-09 16:48:02 +01:00
245 changed files with 14427 additions and 180765 deletions

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@ -1,64 +0,0 @@
name: ci
on: [push, pull_request]
jobs:
check:
name: Check build
strategy:
matrix:
os: [ubuntu-latest, macos-latest, windows-latest]
runs-on: ${{ matrix.os }}
steps:
- uses: actions/checkout@v4
- uses: dtolnay/rust-toolchain@stable
- run: cargo check --release
test:
name: Run Tests
runs-on: ubuntu-latest
steps:
- uses: actions/checkout@v4
- uses: dtolnay/rust-toolchain@stable
- name: Install nextest
uses: taiki-e/install-action@nextest
- run: cargo nextest run --all-features
- run: cargo test --doc --all-features
cross-check:
name: Check Cross-Compilation
runs-on: ubuntu-latest
strategy:
matrix:
target:
- armv7-unknown-linux-gnueabihf
- thumbv7em-none-eabihf
steps:
- uses: actions/checkout@v4
- uses: dtolnay/rust-toolchain@stable
with:
targets: "armv7-unknown-linux-gnueabihf, thumbv7em-none-eabihf"
- run: cargo check -p satrs --release --target=${{matrix.target}} --no-default-features
fmt:
name: Check formatting
runs-on: ubuntu-latest
steps:
- uses: actions/checkout@v4
- uses: dtolnay/rust-toolchain@stable
- run: cargo fmt --all -- --check
docs:
name: Check Documentation Build
runs-on: ubuntu-latest
steps:
- uses: actions/checkout@v4
- uses: dtolnay/rust-toolchain@nightly
- run: cargo +nightly doc --all-features --config 'build.rustdocflags=["--cfg", "docs_rs"]'
clippy:
name: Clippy
runs-on: ubuntu-latest
steps:
- uses: actions/checkout@v4
- uses: dtolnay/rust-toolchain@stable
- run: cargo clippy -- -D warnings

7
.gitignore vendored
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@ -1,10 +1,5 @@
target/
output.log
/target
/Cargo.lock
output.log
output.log
/.idea/*
!/.idea/runConfigurations

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@ -1,16 +1,12 @@
[workspace]
resolver = "2"
members = [
"satrs",
"satrs-core",
"satrs-mib",
"satrs-example",
"satrs-minisim",
"satrs-shared",
]
exclude = [
"embedded-examples/stm32f3-disco-rtic",
"embedded-examples/stm32h7-rtic",
"serialization-prototyping",
"satrs-example-stm32f3-disco",
]

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@ -1,23 +1,13 @@
<p align="center"> <img src="misc/satrs-logo-v2.png" width="40%"> </p>
[![sat-rs website](https://img.shields.io/badge/sat--rs-website-darkgreen?style=flat)](https://absatsw.irs.uni-stuttgart.de/projects/sat-rs/)
[![sat-rs book](https://img.shields.io/badge/sat--rs-book-darkgreen?style=flat)](https://absatsw.irs.uni-stuttgart.de/projects/sat-rs/book/)
[![Crates.io](https://img.shields.io/crates/v/satrs)](https://crates.io/crates/satrs)
[![docs.rs](https://img.shields.io/docsrs/satrs)](https://docs.rs/satrs)
<p align="center"> <img src="misc/satrs-logo.png" width="40%"> </p>
sat-rs
=========
This is the repository of the sat-rs library. Its primary goal is to provide re-usable components
This is the repository of the sat-rs framework. Its primary goal is to provide re-usable components
to write on-board software for remote systems like rovers or satellites. It is specifically written
for the special requirements for these systems. You can find an overview of the project and the
link to the [more high-level sat-rs book](https://absatsw.irs.uni-stuttgart.de/projects/sat-rs/)
at the [IRS software projects website](https://absatsw.irs.uni-stuttgart.de/projects/sat-rs/).
This is early-stage software. Important features are missing. New releases
with breaking changes are released regularly, with all changes documented inside respective
changelog files. You should only use this library if your are willing to work in this
environment.
at the [IRS documentation website](https://absatsw.irs.uni-stuttgart.de/sat-rs.html).
A lot of the architecture and general design considerations are based on the
[FSFW](https://egit.irs.uni-stuttgart.de/fsfw/fsfw) C++ framework which has flight heritage
@ -32,44 +22,28 @@ This project currently contains following crates:
Primary information resource in addition to the API documentation, hosted
[here](https://documentation.irs.uni-stuttgart.de/projects/sat-rs/). It can be useful to read
this first before delving into the example application and the API documentation.
* [`satrs`](https://egit.irs.uni-stuttgart.de/rust/sat-rs/src/branch/main/satrs):
Primary crate.
* [`satrs-example`](https://egit.irs.uni-stuttgart.de/rust/sat-rs/src/branch/main/satrs-example):
* [`satrs-core`](https://egit.irs.uni-stuttgart.de/rust/satrs-launchpad/src/branch/main/satrs-core):
Core components of sat-rs.
* [`satrs-example`](https://egit.irs.uni-stuttgart.de/rust/satrs-launchpad/src/branch/main/satrs-example):
Example of a simple example on-board software using various sat-rs components which can be run
on a host computer or on any system with a standard runtime like a Raspberry Pi.
* [`satrs-mib`](https://egit.irs.uni-stuttgart.de/rust/sat-rs/src/branch/main/satrs-mib):
* [`satrs-mib`](https://egit.irs.uni-stuttgart.de/rust/satrs-launchpad/src/branch/main/satrs-mib):
Components to build a mission information base from the on-board software directly.
* [`satrs-stm32f3-disco-rtic`](https://egit.irs.uni-stuttgart.de/rust/sat-rs/src/branch/main/embedded-examples/satrs-stm32f3-disco-rtic):
Example of a simple example using low-level sat-rs components on a bare-metal system
with constrained resources. This example uses the [RTIC](https://github.com/rtic-rs/rtic)
framework on the STM32F3-Discovery device.
* [`satrs-stm32h-nucleo-rtic`](https://egit.irs.uni-stuttgart.de/rust/sat-rs/src/branch/main/embedded-examples/satrs-stm32h7-nucleo-rtic):
Example of a simple example using sat-rs components on a bare-metal system
with constrained resources. This example uses the [RTIC](https://github.com/rtic-rs/rtic)
framework on the STM32H743ZIT device.
* [`satrs-example-stm32f3-disco`](https://egit.irs.uni-stuttgart.de/rust/sat-rs/src/branch/main/satrs-example-stm32f3-disco):
Example of a simple example on-board software using sat-rs components on a bare-metal system
with constrained resources.
Each project has its own `CHANGELOG.md`.
# Related projects
In addition to the crates in this repository, the sat-rs project also maintains other libraries.
* [`spacepackets`](https://egit.irs.uni-stuttgart.de/rust/spacepackets): Basic ECSS and CCSDS
packet protocol implementations. This repository is re-exported in the
[`satrs`](https://egit.irs.uni-stuttgart.de/rust/satrs/src/branch/main/satrs)
[`satrs-core`](https://egit.irs.uni-stuttgart.de/rust/satrs-launchpad/src/branch/main/satrs-core)
crate.
# Flight Heritage
There is an active and continuous effort to get early flight heritage for the sat-rs library.
Currently this library has the following flight heritage:
- Submission as an [OPS-SAT experiment](https://www.esa.int/Enabling_Support/Operations/OPS-SAT)
which has also
[flown on the satellite](https://blogs.esa.int/rocketscience/2024/05/21/ops-sat-reentry-tomorrow-final-experiments-continue/).
The application is strongly based on the sat-rs example application. You can find the repository
of the experiment [here](https://egit.irs.uni-stuttgart.de/rust/ops-sat-rs).
# Coverage
Coverage was generated using [`grcov`](https://github.com/mozilla/grcov). If you have not done so
@ -80,5 +54,5 @@ rustup component add llvm-tools-preview
cargo install grcov --locked
```
After that, you can simply run `coverage.py` to test the `satrs` crate with coverage. You can
After that, you can simply run `coverage.py` to test the `satrs-core` crate with coverage. You can
optionally supply the `--open` flag to open the coverage report in your webbrowser.

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@ -15,9 +15,7 @@ RUN rustup install nightly && \
rustup component add rustfmt clippy
WORKDIR "/tmp"
# Install cargo-nextest
RUN curl -LsSf https://get.nexte.st/latest/linux | tar zxf - -C ${CARGO_HOME:-~/.cargo}/bin
# Install mdbook and mdbook-linkcheck
# RUN cargo install mdbook --no-default-features --features search --vers "^0.4" --locked
RUN curl -sSL https://github.com/rust-lang/mdBook/releases/download/v0.4.37/mdbook-v0.4.37-x86_64-unknown-linux-gnu.tar.gz | tar -xz --directory /usr/local/bin
RUN curl -sSL https://github.com/Michael-F-Bryan/mdbook-linkcheck/releases/latest/download/mdbook-linkcheck.x86_64-unknown-linux-gnu.zip -o mdbook-linkcheck.zip && \
unzip mdbook-linkcheck.zip && \

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@ -32,8 +32,7 @@ pipeline {
}
stage('Test') {
steps {
sh 'cargo nextest r --all-features'
sh 'cargo test --doc --all-features'
sh 'cargo test --all-features'
}
}
stage('Check with all features') {
@ -48,7 +47,7 @@ pipeline {
}
stage('Check Cross Embedded Bare Metal') {
steps {
sh 'cargo check -p satrs --target thumbv7em-none-eabihf --no-default-features'
sh 'cargo check -p satrs-core --target thumbv7em-none-eabihf --no-default-features'
}
}
stage('Check Cross Embedded Linux') {

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@ -18,19 +18,15 @@ def generate_cov_report(open_report: bool, format: str, package: str):
out_path = "./target/debug/coverage"
if format == "lcov":
out_path = "./target/debug/lcov.info"
grcov_cmd = (
os.system(
f"grcov . -s . --binary-path ./target/debug/ -t {format} --branch --ignore-not-existing "
f"-o {out_path}"
)
print(f"Running: {grcov_cmd}")
os.system(grcov_cmd)
if format == "lcov":
lcov_cmd = (
os.system(
"genhtml -o ./target/debug/coverage/ --show-details --highlight --ignore-errors source "
"--legend ./target/debug/lcov.info"
)
print(f"Running: {lcov_cmd}")
os.system(lcov_cmd)
if open_report:
coverage_report_path = os.path.abspath("./target/debug/coverage/index.html")
webbrowser.open_new_tab(coverage_report_path)
@ -47,8 +43,8 @@ def main():
parser.add_argument(
"-p",
"--package",
choices=["satrs", "satrs-minisim", "satrs-example"],
default="satrs",
choices=["satrs-core"],
default="satrs-core",
help="Choose project to generate coverage for",
)
parser.add_argument(

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@ -1,37 +0,0 @@
[target.'cfg(all(target_arch = "arm", target_os = "none"))']
# uncomment ONE of these three option to make `cargo run` start a GDB session
# which option to pick depends on your system
# You can also replace openocd.gdb by jlink.gdb when using a J-Link.
# runner = "arm-none-eabi-gdb -q -x openocd.gdb"
# runner = "gdb-multiarch -q -x openocd.gdb"
# runner = "gdb -q -x openocd.gdb"
runner = "probe-rs run --chip STM32F303VCTx"
rustflags = [
"-C", "linker=flip-link",
# LLD (shipped with the Rust toolchain) is used as the default linker
"-C", "link-arg=-Tlink.x",
"-C", "link-arg=-Tdefmt.x",
# This is needed if your flash or ram addresses are not aligned to 0x10000 in memory.x
# See https://github.com/rust-embedded/cortex-m-quickstart/pull/95
"-C", "link-arg=--nmagic",
# if you run into problems with LLD switch to the GNU linker by commenting out
# this line
# "-C", "linker=arm-none-eabi-ld",
# if you need to link to pre-compiled C libraries provided by a C toolchain
# use GCC as the linker by commenting out both lines above and then
# uncommenting the three lines below
# "-C", "linker=arm-none-eabi-gcc",
# "-C", "link-arg=-Wl,-Tlink.x",
# "-C", "link-arg=-nostartfiles",
]
[build]
# comment out the following line if you intend to run unit tests on host machine
target = "thumbv7em-none-eabihf" # Cortex-M4F and Cortex-M7F (with FPU)
[env]
DEFMT_LOG = "info"

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@ -1,84 +0,0 @@
[package]
name = "satrs-stm32f3-disco-rtic"
version = "0.1.0"
edition = "2021"
default-run = "satrs-stm32f3-disco-rtic"
# See more keys and their definitions at https://doc.rust-lang.org/cargo/reference/manifest.html
[dependencies]
cortex-m = { version = "0.7", features = ["critical-section-single-core"] }
cortex-m-rt = "0.7"
defmt = "0.3"
defmt-brtt = { version = "0.1", default-features = false, features = ["rtt"] }
panic-probe = { version = "0.3", features = ["print-defmt"] }
embedded-hal = "0.2.7"
cortex-m-semihosting = "0.5.0"
enumset = "1"
heapless = "0.8"
[dependencies.rtic]
version = "2"
features = ["thumbv7-backend"]
[dependencies.rtic-monotonics]
version = "1"
features = ["cortex-m-systick"]
[dependencies.cobs]
git = "https://github.com/robamu/cobs.rs.git"
branch = "all_features"
default-features = false
[dependencies.stm32f3xx-hal]
git = "https://github.com/robamu/stm32f3xx-hal"
version = "0.11.0-alpha.0"
features = ["stm32f303xc", "rt", "enumset"]
branch = "complete-dma-update"
# Can be used in workspace to develop and update HAL
# path = "../stm32f3xx-hal"
[dependencies.stm32f3-discovery]
git = "https://github.com/robamu/stm32f3-discovery"
version = "0.8.0-alpha.0"
branch = "complete-dma-update-hal"
# Can be used in workspace to develop and update BSP
# path = "../stm32f3-discovery"
[dependencies.satrs]
# path = "satrs"
version = "0.2"
default-features = false
features = ["defmt"]
[dev-dependencies]
defmt-test = "0.3"
# cargo test
[profile.test]
codegen-units = 1
debug = 2
debug-assertions = true # <-
incremental = false
opt-level = "s" # <-
overflow-checks = true # <-
# cargo build/run --release
[profile.release]
codegen-units = 1
debug = 2
debug-assertions = false # <-
incremental = false
lto = 'fat'
opt-level = "s" # <-
overflow-checks = false # <-
# cargo test --release
[profile.bench]
codegen-units = 1
debug = 2
debug-assertions = false # <-
incremental = false
lto = 'fat'
opt-level = "s" # <-
overflow-checks = false # <-

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@ -1,114 +0,0 @@
sat-rs example for the STM32F3-Discovery board
=======
This example application shows how the [sat-rs library](https://egit.irs.uni-stuttgart.de/rust/sat-rs)
can be used on an embedded target.
It also shows how a relatively simple OBSW could be built when no standard runtime is available.
It uses [RTIC](https://rtic.rs/2/book/en/) as the concurrency framework and the
[defmt](https://defmt.ferrous-systems.com/) framework for logging.
The STM32F3-Discovery device was picked because it is a cheap Cortex-M4 based device which is also
used by the [Rust Embedded Book](https://docs.rust-embedded.org/book/intro/hardware.html) and the
[Rust Discovery](https://docs.rust-embedded.org/discovery/f3discovery/) book as an introduction
to embedded Rust.
## Pre-Requisites
Make sure the following tools are installed:
1. [`probe-rs`](https://probe.rs/): Application used to flash and debug the MCU.
2. Optional and recommended: [VS Code](https://code.visualstudio.com/) with
[probe-rs plugin](https://marketplace.visualstudio.com/items?itemName=probe-rs.probe-rs-debugger)
for debugging.
## Preparing Rust and the repository
Building an application requires the `thumbv7em-none-eabihf` cross-compiler toolchain.
If you have not installed it yet, you can do so with
```sh
rustup target add thumbv7em-none-eabihf
```
A default `.cargo` config file is provided for this project, but needs to be copied to have
the correct name. This is so that the config file can be updated or edited for custom needs
without being tracked by git.
```sh
cp def_config.toml config.toml
```
The configuration file will also set the target so it does not always have to be specified with
the `--target` argument.
## Building
After that, assuming that you have a `.cargo/config.toml` setting the correct build target,
you can simply build the application with
```sh
cargo build
```
## Flashing from the command line
You can flash the application from the command line using `probe-rs`:
```sh
probe-rs run --chip STM32F303VCTx
```
## Debugging with VS Code
The STM32F3-Discovery comes with an on-board ST-Link so all that is required to flash and debug
the board is a Mini-USB cable. The code in this repository was debugged using [`probe-rs`](https://probe.rs/docs/tools/debuggerA)
and the VS Code [`probe-rs` plugin](https://marketplace.visualstudio.com/items?itemName=probe-rs.probe-rs-debugger).
Make sure to install this plugin first.
Sample configuration files are provided inside the `vscode` folder.
Use `cp vscode .vscode -r` to use them for your project.
Some sample configuration files for VS Code were provided as well. You can simply use `Run` and `Debug`
to automatically rebuild and flash your application.
The `tasks.json` and `launch.json` files are generic and you can use them immediately by opening
the folder in VS code or adding it to a workspace.
## Commanding with Python
When the SW is running on the Discovery board, you can command the MCU via a serial interface,
using COBS encoded PUS packets.
It is recommended to use a virtual environment to do this. To set up one in the command line,
you can use `python3 -m venv venv` on Unix systems or `py -m venv venv` on Windows systems.
After doing this, you can check the [venv tutorial](https://docs.python.org/3/tutorial/venv.html)
on how to activate the environment and then use the following command to install the required
dependency:
```sh
pip install -r requirements.txt
```
The packets are exchanged using a dedicated serial interface. You can use any generic USB-to-UART
converter device with the TX pin connected to the PA3 pin and the RX pin connected to the PA2 pin.
A default configuration file for the python application is provided and can be used by running
```sh
cp def_tmtc_conf.json tmtc_conf.json
```
After that, you can for example send a ping to the MCU using the following command
```sh
./main.py -p /ping
```
You can configure the blinky frequency using
```sh
./main.py -p /change_blink_freq
```
All these commands will package a PUS telecommand which will be sent to the MCU using the COBS
format as the packet framing format.

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@ -1,51 +0,0 @@
#![no_main]
#![no_std]
use cortex_m_semihosting::debug;
use defmt_brtt as _; // global logger
use stm32f3xx_hal as _; // memory layout
use panic_probe as _;
// same panicking *behavior* as `panic-probe` but doesn't print a panic message
// this prevents the panic message being printed *twice* when `defmt::panic` is invoked
#[defmt::panic_handler]
fn panic() -> ! {
cortex_m::asm::udf()
}
/// Terminates the application and makes a semihosting-capable debug tool exit
/// with status code 0.
pub fn exit() -> ! {
loop {
debug::exit(debug::EXIT_SUCCESS);
}
}
/// Hardfault handler.
///
/// Terminates the application and makes a semihosting-capable debug tool exit
/// with an error. This seems better than the default, which is to spin in a
/// loop.
#[cortex_m_rt::exception]
unsafe fn HardFault(_frame: &cortex_m_rt::ExceptionFrame) -> ! {
loop {
debug::exit(debug::EXIT_FAILURE);
}
}
// defmt-test 0.3.0 has the limitation that this `#[tests]` attribute can only be used
// once within a crate. the module can be in any file but there can only be at most
// one `#[tests]` module in this library crate
#[cfg(test)]
#[defmt_test::tests]
mod unit_tests {
use defmt::assert;
#[test]
fn it_works() {
assert!(true)
}
}

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@ -1,684 +0,0 @@
#![no_std]
#![no_main]
use satrs::pus::verification::{
FailParams, TcStateAccepted, VerificationReportCreator, VerificationToken,
};
use satrs::spacepackets::ecss::tc::PusTcReader;
use satrs::spacepackets::ecss::tm::{PusTmCreator, PusTmSecondaryHeader};
use satrs::spacepackets::ecss::EcssEnumU16;
use satrs::spacepackets::CcsdsPacket;
use satrs::spacepackets::{ByteConversionError, SpHeader};
// global logger + panicking-behavior + memory layout
use satrs_stm32f3_disco_rtic as _;
use rtic::app;
use heapless::{mpmc::Q8, Vec};
#[allow(unused_imports)]
use rtic_monotonics::systick::fugit::{MillisDurationU32, TimerInstantU32};
use rtic_monotonics::systick::ExtU32;
use satrs::seq_count::SequenceCountProviderCore;
use satrs::spacepackets::{ecss::PusPacket, ecss::WritablePusPacket};
use stm32f3xx_hal::dma::dma1;
use stm32f3xx_hal::gpio::{PushPull, AF7, PA2, PA3};
use stm32f3xx_hal::pac::USART2;
use stm32f3xx_hal::serial::{Rx, RxEvent, Serial, SerialDmaRx, SerialDmaTx, Tx, TxEvent};
const UART_BAUD: u32 = 115200;
const DEFAULT_BLINK_FREQ_MS: u32 = 1000;
const TX_HANDLER_FREQ_MS: u32 = 20;
const MIN_DELAY_BETWEEN_TX_PACKETS_MS: u32 = 5;
const MAX_TC_LEN: usize = 128;
const MAX_TM_LEN: usize = 128;
pub const PUS_APID: u16 = 0x02;
type TxType = Tx<USART2, PA2<AF7<PushPull>>>;
type RxType = Rx<USART2, PA3<AF7<PushPull>>>;
type InstantFugit = TimerInstantU32<1000>;
type TxDmaTransferType = SerialDmaTx<&'static [u8], dma1::C7, TxType>;
type RxDmaTransferType = SerialDmaRx<&'static mut [u8], dma1::C6, RxType>;
// This is the predictable maximum overhead of the COBS encoding scheme.
// It is simply the maximum packet lenght dividied by 254 rounded up.
const COBS_TC_OVERHEAD: usize = (MAX_TC_LEN + 254 - 1) / 254;
const COBS_TM_OVERHEAD: usize = (MAX_TM_LEN + 254 - 1) / 254;
const TC_BUF_LEN: usize = MAX_TC_LEN + COBS_TC_OVERHEAD;
const TM_BUF_LEN: usize = MAX_TC_LEN + COBS_TM_OVERHEAD;
// This is a static buffer which should ONLY (!) be used as the TX DMA
// transfer buffer.
static mut DMA_TX_BUF: [u8; TM_BUF_LEN] = [0; TM_BUF_LEN];
// This is a static buffer which should ONLY (!) be used as the RX DMA
// transfer buffer.
static mut DMA_RX_BUF: [u8; TC_BUF_LEN] = [0; TC_BUF_LEN];
type TmPacket = Vec<u8, MAX_TM_LEN>;
type TcPacket = Vec<u8, MAX_TC_LEN>;
static TM_REQUESTS: Q8<TmPacket> = Q8::new();
use core::sync::atomic::{AtomicU16, Ordering};
pub struct SeqCountProviderAtomicRef {
atomic: AtomicU16,
ordering: Ordering,
}
impl SeqCountProviderAtomicRef {
pub const fn new(ordering: Ordering) -> Self {
Self {
atomic: AtomicU16::new(0),
ordering,
}
}
}
impl SequenceCountProviderCore<u16> for SeqCountProviderAtomicRef {
fn get(&self) -> u16 {
self.atomic.load(self.ordering)
}
fn increment(&self) {
self.atomic.fetch_add(1, self.ordering);
}
fn get_and_increment(&self) -> u16 {
self.atomic.fetch_add(1, self.ordering)
}
}
static SEQ_COUNT_PROVIDER: SeqCountProviderAtomicRef =
SeqCountProviderAtomicRef::new(Ordering::Relaxed);
pub struct TxIdle {
tx: TxType,
dma_channel: dma1::C7,
}
#[derive(Debug, defmt::Format)]
pub enum TmSendError {
ByteConversion(ByteConversionError),
Queue,
}
impl From<ByteConversionError> for TmSendError {
fn from(value: ByteConversionError) -> Self {
Self::ByteConversion(value)
}
}
fn send_tm(tm_creator: PusTmCreator) -> Result<(), TmSendError> {
if tm_creator.len_written() > MAX_TM_LEN {
return Err(ByteConversionError::ToSliceTooSmall {
expected: tm_creator.len_written(),
found: MAX_TM_LEN,
}
.into());
}
let mut tm_vec = TmPacket::new();
tm_vec
.resize(tm_creator.len_written(), 0)
.expect("vec resize failed");
tm_creator.write_to_bytes(tm_vec.as_mut_slice())?;
defmt::info!(
"Sending TM[{},{}] with size {}",
tm_creator.service(),
tm_creator.subservice(),
tm_creator.len_written()
);
TM_REQUESTS
.enqueue(tm_vec)
.map_err(|_| TmSendError::Queue)?;
Ok(())
}
fn handle_tm_send_error(error: TmSendError) {
defmt::warn!("sending tm failed with error {}", error);
}
pub enum UartTxState {
// Wrapped in an option because we need an owned type later.
Idle(Option<TxIdle>),
// Same as above
Transmitting(Option<TxDmaTransferType>),
}
pub struct UartTxShared {
last_completed: Option<InstantFugit>,
state: UartTxState,
}
pub struct RequestWithToken {
token: VerificationToken<TcStateAccepted>,
request: Request,
}
#[derive(Debug, defmt::Format)]
pub enum Request {
Ping,
ChangeBlinkFrequency(u32),
}
#[derive(Debug, defmt::Format)]
pub enum RequestError {
InvalidApid = 1,
InvalidService = 2,
InvalidSubservice = 3,
NotEnoughAppData = 4,
}
pub fn convert_pus_tc_to_request(
tc: &PusTcReader,
verif_reporter: &mut VerificationReportCreator,
src_data_buf: &mut [u8],
timestamp: &[u8],
) -> Result<RequestWithToken, RequestError> {
defmt::info!(
"Found PUS TC [{},{}] with length {}",
tc.service(),
tc.subservice(),
tc.len_packed()
);
let token = verif_reporter.add_tc(tc);
if tc.apid() != PUS_APID {
defmt::warn!("Received tc with unknown APID {}", tc.apid());
let result = send_tm(
verif_reporter
.acceptance_failure(
src_data_buf,
token,
SEQ_COUNT_PROVIDER.get_and_increment(),
0,
FailParams::new(timestamp, &EcssEnumU16::new(0), &[]),
)
.unwrap(),
);
if let Err(e) = result {
handle_tm_send_error(e);
}
return Err(RequestError::InvalidApid);
}
let (tm_creator, accepted_token) = verif_reporter
.acceptance_success(
src_data_buf,
token,
SEQ_COUNT_PROVIDER.get_and_increment(),
0,
timestamp,
)
.unwrap();
if let Err(e) = send_tm(tm_creator) {
handle_tm_send_error(e);
}
if tc.service() == 17 && tc.subservice() == 1 {
if tc.subservice() == 1 {
return Ok(RequestWithToken {
request: Request::Ping,
token: accepted_token,
});
} else {
return Err(RequestError::InvalidSubservice);
}
} else if tc.service() == 8 {
if tc.subservice() == 1 {
if tc.user_data().len() < 4 {
return Err(RequestError::NotEnoughAppData);
}
let new_freq_ms = u32::from_be_bytes(tc.user_data()[0..4].try_into().unwrap());
return Ok(RequestWithToken {
request: Request::ChangeBlinkFrequency(new_freq_ms),
token: accepted_token,
});
} else {
return Err(RequestError::InvalidSubservice);
}
} else {
return Err(RequestError::InvalidService);
}
}
#[app(device = stm32f3xx_hal::pac, peripherals = true)]
mod app {
use super::*;
use core::slice::Iter;
use rtic_monotonics::systick::Systick;
use rtic_monotonics::Monotonic;
use satrs::pus::verification::{TcStateStarted, VerificationReportCreator};
use satrs::spacepackets::{ecss::tc::PusTcReader, time::cds::P_FIELD_BASE};
#[allow(unused_imports)]
use stm32f3_discovery::leds::Direction;
use stm32f3_discovery::leds::Leds;
use stm32f3xx_hal::prelude::*;
use stm32f3_discovery::switch_hal::OutputSwitch;
use stm32f3xx_hal::Switch;
#[allow(dead_code)]
type SerialType = Serial<USART2, (PA2<AF7<PushPull>>, PA3<AF7<PushPull>>)>;
#[shared]
struct Shared {
blink_freq: MillisDurationU32,
tx_shared: UartTxShared,
rx_transfer: Option<RxDmaTransferType>,
}
#[local]
struct Local {
verif_reporter: VerificationReportCreator,
leds: Leds,
last_dir: Direction,
curr_dir: Iter<'static, Direction>,
}
#[init]
fn init(cx: init::Context) -> (Shared, Local) {
let mut rcc = cx.device.RCC.constrain();
// Initialize the systick interrupt & obtain the token to prove that we did
let systick_mono_token = rtic_monotonics::create_systick_token!();
Systick::start(cx.core.SYST, 8_000_000, systick_mono_token);
let mut flash = cx.device.FLASH.constrain();
let clocks = rcc
.cfgr
.use_hse(8.MHz())
.sysclk(8.MHz())
.pclk1(8.MHz())
.freeze(&mut flash.acr);
// Set up monotonic timer.
//let mono_timer = MonoTimer::new(cx.core.DWT, clocks, &mut cx.core.DCB);
defmt::info!("Starting sat-rs demo application for the STM32F3-Discovery");
let mut gpioe = cx.device.GPIOE.split(&mut rcc.ahb);
let leds = Leds::new(
gpioe.pe8,
gpioe.pe9,
gpioe.pe10,
gpioe.pe11,
gpioe.pe12,
gpioe.pe13,
gpioe.pe14,
gpioe.pe15,
&mut gpioe.moder,
&mut gpioe.otyper,
);
let mut gpioa = cx.device.GPIOA.split(&mut rcc.ahb);
// USART2 pins
let mut pins = (
// TX pin: PA2
gpioa
.pa2
.into_af_push_pull(&mut gpioa.moder, &mut gpioa.otyper, &mut gpioa.afrl),
// RX pin: PA3
gpioa
.pa3
.into_af_push_pull(&mut gpioa.moder, &mut gpioa.otyper, &mut gpioa.afrl),
);
pins.1.internal_pull_up(&mut gpioa.pupdr, true);
let mut usart2 = Serial::new(
cx.device.USART2,
pins,
UART_BAUD.Bd(),
clocks,
&mut rcc.apb1,
);
usart2.configure_rx_interrupt(RxEvent::Idle, Switch::On);
// This interrupt is enabled to re-schedule new transfers in the interrupt handler immediately.
usart2.configure_tx_interrupt(TxEvent::TransmissionComplete, Switch::On);
let dma1 = cx.device.DMA1.split(&mut rcc.ahb);
let (mut tx_serial, mut rx_serial) = usart2.split();
// This interrupt is immediately triggered, clear it. It will only be reset
// by the hardware when data is received on RX (RXNE event)
rx_serial.clear_event(RxEvent::Idle);
// For some reason, this is also immediately triggered..
tx_serial.clear_event(TxEvent::TransmissionComplete);
let rx_transfer = rx_serial.read_exact(unsafe { DMA_RX_BUF.as_mut_slice() }, dma1.ch6);
defmt::info!("Spawning tasks");
blink::spawn().unwrap();
serial_tx_handler::spawn().unwrap();
let verif_reporter = VerificationReportCreator::new(PUS_APID).unwrap();
(
Shared {
blink_freq: MillisDurationU32::from_ticks(DEFAULT_BLINK_FREQ_MS),
tx_shared: UartTxShared {
last_completed: None,
state: UartTxState::Idle(Some(TxIdle {
tx: tx_serial,
dma_channel: dma1.ch7,
})),
},
rx_transfer: Some(rx_transfer),
},
Local {
verif_reporter,
leds,
last_dir: Direction::North,
curr_dir: Direction::iter(),
},
)
}
#[task(local = [leds, curr_dir, last_dir], shared=[blink_freq])]
async fn blink(mut cx: blink::Context) {
let blink::LocalResources {
leds,
curr_dir,
last_dir,
..
} = cx.local;
let mut toggle_leds = |dir: &Direction| {
let last_led = leds.for_direction(*last_dir);
last_led.off().ok();
let led = leds.for_direction(*dir);
led.on().ok();
*last_dir = *dir;
};
loop {
match curr_dir.next() {
Some(dir) => {
toggle_leds(dir);
}
None => {
*curr_dir = Direction::iter();
toggle_leds(curr_dir.next().unwrap());
}
}
let current_blink_freq = cx.shared.blink_freq.lock(|current| *current);
Systick::delay(current_blink_freq).await;
}
}
#[task(
shared = [tx_shared],
)]
async fn serial_tx_handler(mut cx: serial_tx_handler::Context) {
loop {
let is_idle = cx.shared.tx_shared.lock(|tx_shared| {
if let UartTxState::Idle(_) = tx_shared.state {
return true;
}
false
});
if is_idle {
let last_completed = cx.shared.tx_shared.lock(|shared| shared.last_completed);
if let Some(last_completed) = last_completed {
let elapsed_ms = (Systick::now() - last_completed).to_millis();
if elapsed_ms < MIN_DELAY_BETWEEN_TX_PACKETS_MS {
Systick::delay((MIN_DELAY_BETWEEN_TX_PACKETS_MS - elapsed_ms).millis())
.await;
}
}
} else {
// Check for completion after 1 ms
Systick::delay(1.millis()).await;
continue;
}
if let Some(vec) = TM_REQUESTS.dequeue() {
cx.shared
.tx_shared
.lock(|tx_shared| match &mut tx_shared.state {
UartTxState::Idle(tx) => {
let encoded_len;
//debug!(target: "serial_tx_handler", "bytes: {:x?}", &buf[0..len]);
// Safety: We only copy the data into the TX DMA buffer in this task.
// If the DMA is active, another branch will be taken.
unsafe {
// 0 sentinel value as start marker
DMA_TX_BUF[0] = 0;
encoded_len =
cobs::encode(&vec[0..vec.len()], &mut DMA_TX_BUF[1..]);
// Should never panic, we accounted for the overhead.
// Write into transfer buffer directly, no need for intermediate
// encoding buffer.
// 0 end marker
DMA_TX_BUF[encoded_len + 1] = 0;
}
//debug!(target: "serial_tx_handler", "Sending {} bytes", encoded_len + 2);
//debug!("sent: {:x?}", &mut_tx_dma_buf[0..encoded_len + 2]);
let tx_idle = tx.take().unwrap();
// Transfer completion and re-scheduling of new TX transfers will be done
// by the IRQ handler.
// SAFETY: The DMA is the exclusive writer to the DMA buffer now.
let transfer = tx_idle.tx.write_all(
unsafe { &DMA_TX_BUF[0..encoded_len + 2] },
tx_idle.dma_channel,
);
tx_shared.state = UartTxState::Transmitting(Some(transfer));
// The memory block is automatically returned to the pool when it is dropped.
}
UartTxState::Transmitting(_) => (),
});
// Check for completion after 1 ms
Systick::delay(1.millis()).await;
continue;
}
// Nothing to do, and we are idle.
Systick::delay(TX_HANDLER_FREQ_MS.millis()).await;
}
}
#[task(
local = [
verif_reporter,
decode_buf: [u8; MAX_TC_LEN] = [0; MAX_TC_LEN],
src_data_buf: [u8; MAX_TM_LEN] = [0; MAX_TM_LEN],
timestamp: [u8; 7] = [0; 7],
],
shared = [blink_freq]
)]
async fn serial_rx_handler(
mut cx: serial_rx_handler::Context,
received_packet: Vec<u8, MAX_TC_LEN>,
) {
cx.local.timestamp[0] = P_FIELD_BASE;
defmt::info!("Received packet with {} bytes", received_packet.len());
let decode_buf = cx.local.decode_buf;
let packet = received_packet.as_slice();
let mut start_idx = None;
for (idx, byte) in packet.iter().enumerate() {
if *byte != 0 {
start_idx = Some(idx);
break;
}
}
if start_idx.is_none() {
defmt::warn!("decoding error, can only process cobs encoded frames, data is all 0");
return;
}
let start_idx = start_idx.unwrap();
match cobs::decode(&received_packet.as_slice()[start_idx..], decode_buf) {
Ok(len) => {
defmt::info!("Decoded packet length: {}", len);
let pus_tc = PusTcReader::new(decode_buf);
match pus_tc {
Ok((tc, _tc_len)) => {
match convert_pus_tc_to_request(
&tc,
cx.local.verif_reporter,
cx.local.src_data_buf,
cx.local.timestamp,
) {
Ok(request_with_token) => {
let started_token = handle_start_verification(
request_with_token.token,
cx.local.verif_reporter,
cx.local.src_data_buf,
cx.local.timestamp,
);
match request_with_token.request {
Request::Ping => {
handle_ping_request(cx.local.timestamp);
}
Request::ChangeBlinkFrequency(new_freq_ms) => {
defmt::info!("Received blink frequency change request with new frequncy {}", new_freq_ms);
cx.shared.blink_freq.lock(|blink_freq| {
*blink_freq =
MillisDurationU32::from_ticks(new_freq_ms);
});
}
}
handle_completion_verification(
started_token,
cx.local.verif_reporter,
cx.local.src_data_buf,
cx.local.timestamp,
);
}
Err(e) => {
// TODO: Error handling: Send verification failure based on request error.
defmt::warn!("request error {}", e);
}
}
}
Err(e) => {
defmt::warn!("Error unpacking PUS TC: {}", e);
}
}
}
Err(_) => {
defmt::warn!("decoding error, can only process cobs encoded frames")
}
}
}
fn handle_ping_request(timestamp: &[u8]) {
defmt::info!("Received PUS ping telecommand, sending ping reply TM[17,2]");
let sp_header =
SpHeader::new_for_unseg_tc(PUS_APID, SEQ_COUNT_PROVIDER.get_and_increment(), 0);
let sec_header = PusTmSecondaryHeader::new_simple(17, 2, timestamp);
let ping_reply = PusTmCreator::new(sp_header, sec_header, &[], true);
let mut tm_packet = TmPacket::new();
tm_packet
.resize(ping_reply.len_written(), 0)
.expect("vec resize failed");
ping_reply.write_to_bytes(&mut tm_packet).unwrap();
if TM_REQUESTS.enqueue(tm_packet).is_err() {
defmt::warn!("TC queue full");
return;
}
}
fn handle_start_verification(
accepted_token: VerificationToken<TcStateAccepted>,
verif_reporter: &mut VerificationReportCreator,
src_data_buf: &mut [u8],
timestamp: &[u8],
) -> VerificationToken<TcStateStarted> {
let (tm_creator, started_token) = verif_reporter
.start_success(
src_data_buf,
accepted_token,
SEQ_COUNT_PROVIDER.get(),
0,
&timestamp,
)
.unwrap();
let result = send_tm(tm_creator);
if let Err(e) = result {
handle_tm_send_error(e);
}
started_token
}
fn handle_completion_verification(
started_token: VerificationToken<TcStateStarted>,
verif_reporter: &mut VerificationReportCreator,
src_data_buf: &mut [u8],
timestamp: &[u8],
) {
let result = send_tm(
verif_reporter
.completion_success(
src_data_buf,
started_token,
SEQ_COUNT_PROVIDER.get(),
0,
timestamp,
)
.unwrap(),
);
if let Err(e) = result {
handle_tm_send_error(e);
}
}
#[task(binds = DMA1_CH6, shared = [rx_transfer])]
fn rx_dma_isr(mut cx: rx_dma_isr::Context) {
let mut tc_packet = TcPacket::new();
cx.shared.rx_transfer.lock(|rx_transfer| {
let rx_ref = rx_transfer.as_ref().unwrap();
if rx_ref.is_complete() {
let uart_rx_owned = rx_transfer.take().unwrap();
let (buf, c, rx) = uart_rx_owned.stop();
// The received data is transferred to another task now to avoid any processing overhead
// during the interrupt. There are multiple ways to do this, we use a stack allocaed vector here
// to do this.
tc_packet.resize(buf.len(), 0).expect("vec resize failed");
tc_packet.copy_from_slice(buf);
// Start the next transfer as soon as possible.
*rx_transfer = Some(rx.read_exact(buf, c));
// Send the vector to a regular task.
serial_rx_handler::spawn(tc_packet).expect("spawning rx handler task failed");
// If this happens, there is a high chance that the maximum packet length was
// exceeded. Circular mode is not used here, so data might be missed.
defmt::warn!(
"rx transfer with maximum length {}, might miss data",
TC_BUF_LEN
);
}
});
}
#[task(binds = USART2_EXTI26, shared = [rx_transfer, tx_shared])]
fn serial_isr(mut cx: serial_isr::Context) {
cx.shared
.tx_shared
.lock(|tx_shared| match &mut tx_shared.state {
UartTxState::Idle(_) => (),
UartTxState::Transmitting(transfer) => {
let transfer_ref = transfer.as_ref().unwrap();
if transfer_ref.is_complete() {
let transfer = transfer.take().unwrap();
let (_, dma_channel, mut tx) = transfer.stop();
tx.clear_event(TxEvent::TransmissionComplete);
tx_shared.state = UartTxState::Idle(Some(TxIdle { tx, dma_channel }));
// We cache the last completed time to ensure that there is a minimum delay between consecutive
// transferred packets.
tx_shared.last_completed = Some(Systick::now());
}
}
});
let mut tc_packet = TcPacket::new();
cx.shared.rx_transfer.lock(|rx_transfer| {
let rx_transfer_ref = rx_transfer.as_ref().unwrap();
// Received a partial packet.
if rx_transfer_ref.is_event_triggered(RxEvent::Idle) {
let rx_transfer_owned = rx_transfer.take().unwrap();
let (buf, ch, mut rx, rx_len) = rx_transfer_owned.stop_and_return_received_bytes();
// The received data is transferred to another task now to avoid any processing overhead
// during the interrupt. There are multiple ways to do this, we use a stack
// allocated vector to do this.
tc_packet
.resize(rx_len as usize, 0)
.expect("vec resize failed");
tc_packet[0..rx_len as usize].copy_from_slice(&buf[0..rx_len as usize]);
rx.clear_event(RxEvent::Idle);
serial_rx_handler::spawn(tc_packet).expect("spawning rx handler failed");
*rx_transfer = Some(rx.read_exact(buf, ch));
}
});
}
}

View File

@ -1,22 +0,0 @@
{
"version": "0.2.0",
"configurations": [
{
"preLaunchTask": "${defaultBuildTask}",
"type": "probe-rs-debug",
"request": "launch",
"name": "probe-rs Debugging ",
"flashingConfig": {
"flashingEnabled": true
},
"chip": "STM32F303VCTx",
"coreConfigs": [
{
"programBinary": "${workspaceFolder}/target/thumbv7em-none-eabihf/debug/satrs-stm32f3-disco-rtic",
"rttEnabled": true,
"svdFile": "STM32F303.svd"
}
]
}
]
}

View File

@ -1,29 +0,0 @@
[target.'cfg(all(target_arch = "arm", target_os = "none"))']
runner = "probe-rs run --chip STM32H743ZITx"
# runner = ["probe-rs", "run", "--chip", "$CHIP", "--log-format", "{L} {s}"]
rustflags = [
"-C", "linker=flip-link",
"-C", "link-arg=-Tlink.x",
"-C", "link-arg=-Tdefmt.x",
# This is needed if your flash or ram addresses are not aligned to 0x10000 in memory.x
# See https://github.com/rust-embedded/cortex-m-quickstart/pull/95
"-C", "link-arg=--nmagic",
# Can be useful for debugging.
# "-Clink-args=-Map=app.map"
]
[build]
# (`thumbv6m-*` is compatible with all ARM Cortex-M chips but using the right
# target improves performance)
# target = "thumbv6m-none-eabi" # Cortex-M0 and Cortex-M0+
# target = "thumbv7m-none-eabi" # Cortex-M3
# target = "thumbv7em-none-eabi" # Cortex-M4 and Cortex-M7 (no FPU)
target = "thumbv7em-none-eabihf" # Cortex-M4F and Cortex-M7F (with FPU)
[alias]
rb = "run --bin"
rrb = "run --release --bin"
[env]
DEFMT_LOG = "info"

View File

@ -1,4 +0,0 @@
/target
/.cargo/config*
/.vscode
/app.map

View File

@ -1,881 +0,0 @@
# This file is automatically @generated by Cargo.
# It is not intended for manual editing.
version = 3
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name = "atomic-polyfill"
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checksum = "8cf2bce30dfe09ef0bfaef228b9d414faaf7e563035494d7fe092dba54b300f4"
dependencies = [
"critical-section",
]
[[package]]
name = "autocfg"
version = "1.3.0"
source = "registry+https://github.com/rust-lang/crates.io-index"
checksum = "0c4b4d0bd25bd0b74681c0ad21497610ce1b7c91b1022cd21c80c6fbdd9476b0"
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checksum = "5deb64efa5bd81e31fcd1938615a6d98c82eafcbcd787162b6f63b91d6bac5b3"
dependencies = [
"rustc_version 0.2.3",
]
[[package]]
name = "bare-metal"
version = "1.0.0"
source = "registry+https://github.com/rust-lang/crates.io-index"
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[[package]]
name = "cobs"
version = "0.2.3"
source = "git+https://github.com/robamu/cobs.rs.git?branch=all_features#c70a7f30fd00a7cbdb7666dec12b437977385d40"
[[package]]
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checksum = "8ec610d8f49840a5b376c69663b6369e71f4b34484b9b2eb29fb918d92516cb9"
dependencies = [
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"bitfield",
"critical-section",
"embedded-hal 0.2.7",
"volatile-register",
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[[package]]
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name = "stm32h7xx-hal"
version = "0.16.0"
source = "registry+https://github.com/rust-lang/crates.io-index"
checksum = "3bd869329be25440b24e2b3583a1c016151b4a54bc36d96d82af7fcd9d010b98"
dependencies = [
"bare-metal 1.0.0",
"cast",
"cortex-m",
"embedded-dma",
"embedded-hal 0.2.7",
"embedded-storage",
"fugit",
"nb 1.1.0",
"paste",
"smoltcp",
"stm32h7",
"void",
]
[[package]]
name = "syn"
version = "1.0.109"
source = "registry+https://github.com/rust-lang/crates.io-index"
checksum = "72b64191b275b66ffe2469e8af2c1cfe3bafa67b529ead792a6d0160888b4237"
dependencies = [
"proc-macro2",
"quote",
"unicode-ident",
]
[[package]]
name = "syn"
version = "2.0.64"
source = "registry+https://github.com/rust-lang/crates.io-index"
checksum = "7ad3dee41f36859875573074334c200d1add8e4a87bb37113ebd31d926b7b11f"
dependencies = [
"proc-macro2",
"quote",
"unicode-ident",
]
[[package]]
name = "thiserror"
version = "1.0.61"
source = "registry+https://github.com/rust-lang/crates.io-index"
checksum = "c546c80d6be4bc6a00c0f01730c08df82eaa7a7a61f11d656526506112cc1709"
dependencies = [
"thiserror-impl",
]
[[package]]
name = "thiserror-impl"
version = "1.0.61"
source = "registry+https://github.com/rust-lang/crates.io-index"
checksum = "46c3384250002a6d5af4d114f2845d37b57521033f30d5c3f46c4d70e1197533"
dependencies = [
"proc-macro2",
"quote",
"syn 2.0.64",
]
[[package]]
name = "unicode-ident"
version = "1.0.12"
source = "registry+https://github.com/rust-lang/crates.io-index"
checksum = "3354b9ac3fae1ff6755cb6db53683adb661634f67557942dea4facebec0fee4b"
[[package]]
name = "vcell"
version = "0.1.3"
source = "registry+https://github.com/rust-lang/crates.io-index"
checksum = "77439c1b53d2303b20d9459b1ade71a83c716e3f9c34f3228c00e6f185d6c002"
[[package]]
name = "version_check"
version = "0.9.4"
source = "registry+https://github.com/rust-lang/crates.io-index"
checksum = "49874b5167b65d7193b8aba1567f5c7d93d001cafc34600cee003eda787e483f"
[[package]]
name = "void"
version = "1.0.2"
source = "registry+https://github.com/rust-lang/crates.io-index"
checksum = "6a02e4885ed3bc0f2de90ea6dd45ebcbb66dacffe03547fadbb0eeae2770887d"
[[package]]
name = "volatile-register"
version = "0.2.2"
source = "registry+https://github.com/rust-lang/crates.io-index"
checksum = "de437e2a6208b014ab52972a27e59b33fa2920d3e00fe05026167a1c509d19cc"
dependencies = [
"vcell",
]
[[package]]
name = "zerocopy"
version = "0.7.34"
source = "registry+https://github.com/rust-lang/crates.io-index"
checksum = "ae87e3fcd617500e5d106f0380cf7b77f3c6092aae37191433159dda23cfb087"
dependencies = [
"byteorder",
"zerocopy-derive",
]
[[package]]
name = "zerocopy-derive"
version = "0.7.34"
source = "registry+https://github.com/rust-lang/crates.io-index"
checksum = "15e934569e47891f7d9411f1a451d947a60e000ab3bd24fbb970f000387d1b3b"
dependencies = [
"proc-macro2",
"quote",
"syn 2.0.64",
]

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@ -1,85 +0,0 @@
[package]
authors = ["Robin Mueller <robin.mueller.m@gmail.com>"]
name = "satrs-stm32h7-nucleo-rtic"
edition = "2021"
version = "0.1.0"
default-run = "satrs-stm32h7-nucleo-rtic"
[lib]
harness = false
# needed for each integration test
[[test]]
name = "integration"
harness = false
[dependencies]
cortex-m = { version = "0.7", features = ["critical-section-single-core"] }
cortex-m-rt = "0.7"
defmt = "0.3"
defmt-brtt = { version = "0.1", default-features = false, features = ["rtt"] }
panic-probe = { version = "0.3", features = ["print-defmt"] }
cortex-m-semihosting = "0.5.0"
stm32h7xx-hal = { version="0.16", features= ["stm32h743v", "ethernet"] }
embedded-alloc = "0.5"
rtic-sync = { version = "1", features = ["defmt-03"] }
[dependencies.smoltcp]
version = "0.11.0"
default-features = false
features = ["medium-ethernet", "proto-ipv4", "socket-raw", "socket-dhcpv4", "socket-udp", "defmt"]
[dependencies.rtic]
version = "2"
features = ["thumbv7-backend"]
[dependencies.rtic-monotonics]
version = "1"
features = ["cortex-m-systick"]
[dependencies.satrs]
path = "../../satrs"
version = "0.2"
default-features = false
features = ["defmt", "heapless"]
[dev-dependencies]
defmt-test = "0.3"
# cargo build/run
[profile.dev]
codegen-units = 1
debug = 2
debug-assertions = true # <-
incremental = false
opt-level = 's' # <-
overflow-checks = true # <-
# cargo test
[profile.test]
codegen-units = 1
debug = 2
debug-assertions = true # <-
incremental = false
opt-level = 3 # <-
overflow-checks = true # <-
# cargo build/run --release
[profile.release]
codegen-units = 1
debug = 2
debug-assertions = false # <-
incremental = false
lto = 'fat'
opt-level = 3 # <-
overflow-checks = false # <-
# cargo test --release
[profile.bench]
codegen-units = 1
debug = 2
debug-assertions = false # <-
incremental = false
lto = 'fat'
opt-level = 3 # <-
overflow-checks = false # <-

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@ -1,118 +0,0 @@
sat-rs example for the STM32F3-Discovery board
=======
This example application shows how the [sat-rs library](https://egit.irs.uni-stuttgart.de/rust/sat-rs)
can be used on an embedded target.
It also shows how a relatively simple OBSW could be built when no standard runtime is available.
It uses [RTIC](https://rtic.rs/2/book/en/) as the concurrency framework and the
[defmt](https://defmt.ferrous-systems.com/) framework for logging.
The STM32H743ZIT device was picked because it is one of the more powerful Cortex-M based devices
available for STM with which also has a little bit more RAM available and also allows commanding
via TCP/IP.
## Pre-Requisites
Make sure the following tools are installed:
1. [`probe-rs`](https://probe.rs/): Application used to flash and debug the MCU.
2. Optional and recommended: [VS Code](https://code.visualstudio.com/) with
[probe-rs plugin](https://marketplace.visualstudio.com/items?itemName=probe-rs.probe-rs-debugger)
for debugging.
## Preparing Rust and the repository
Building an application requires the `thumbv7em-none-eabihf` cross-compiler toolchain.
If you have not installed it yet, you can do so with
```sh
rustup target add thumbv7em-none-eabihf
```
A default `.cargo` config file is provided for this project, but needs to be copied to have
the correct name. This is so that the config file can be updated or edited for custom needs
without being tracked by git.
```sh
cp def_config.toml config.toml
```
The configuration file will also set the target so it does not always have to be specified with
the `--target` argument.
## Building
After that, assuming that you have a `.cargo/config.toml` setting the correct build target,
you can simply build the application with
```sh
cargo build
```
## Flashing from the command line
You can flash the application from the command line using `probe-rs`:
```sh
probe-rs run --chip STM32H743ZITx
```
## Debugging with VS Code
The STM32F3-Discovery comes with an on-board ST-Link so all that is required to flash and debug
the board is a Mini-USB cable. The code in this repository was debugged using [`probe-rs`](https://probe.rs/docs/tools/debuggerA)
and the VS Code [`probe-rs` plugin](https://marketplace.visualstudio.com/items?itemName=probe-rs.probe-rs-debugger).
Make sure to install this plugin first.
Sample configuration files are provided inside the `vscode` folder.
Use `cp vscode .vscode -r` to use them for your project.
Some sample configuration files for VS Code were provided as well. You can simply use `Run` and `Debug`
to automatically rebuild and flash your application.
The `tasks.json` and `launch.json` files are generic and you can use them immediately by opening
the folder in VS code or adding it to a workspace.
## Commanding with Python
When the SW is running on the Discovery board, you can command the MCU via a serial interface,
using COBS encoded PUS packets.
It is recommended to use a virtual environment to do this. To set up one in the command line,
you can use `python3 -m venv venv` on Unix systems or `py -m venv venv` on Windows systems.
After doing this, you can check the [venv tutorial](https://docs.python.org/3/tutorial/venv.html)
on how to activate the environment and then use the following command to install the required
dependency:
```sh
pip install -r requirements.txt
```
The packets are exchanged using a dedicated serial interface. You can use any generic USB-to-UART
converter device with the TX pin connected to the PA3 pin and the RX pin connected to the PA2 pin.
A default configuration file for the python application is provided and can be used by running
```sh
cp def_tmtc_conf.json tmtc_conf.json
```
After that, you can for example send a ping to the MCU using the following command
```sh
./main.py -p /ping
```
You can configure the blinky frequency using
```sh
./main.py -p /change_blink_freq
```
All these commands will package a PUS telecommand which will be sent to the MCU using the COBS
format as the packet framing format.
## Resources
- [STM32H743ZI Ethernet link checker example](https://github.com/stm32-rs/stm32h7xx-hal/blob/master/examples/ethernet-nucleo-h743zi2.rs)
- [smoltcp DHCP client](https://github.com/smoltcp-rs/smoltcp/blob/main/examples/dhcp_client.rs)

File diff suppressed because it is too large Load Diff

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@ -1,119 +0,0 @@
/* Taken from https://github.com/stm32-rs/stm32h7xx-hal/pull/299, adapted slightly to work with */
/* flip-link */
MEMORY
{
/* This file is intended for parts in the STM32H743/743v/753/753v families (RM0433), */
/* with the exception of the STM32H742/742v parts which have a different RAM layout. */
/* - FLASH and RAM are mandatory memory sections. */
/* - The sum of all non-FLASH sections must add to 1060K total device RAM. */
/* - The FLASH section size must match your device, see table below. */
/* FLASH */
/* Flash is divided in two independent banks (except 750xB). */
/* Select the appropriate FLASH size for your device. */
/* - STM32H750xB 128K (only FLASH1) */
/* - STM32H750xB 1M (512K + 512K) */
/* - STM32H743xI/753xI 2M ( 1M + 1M) */
FLASH1 : ORIGIN = 0x08000000, LENGTH = 1M
FLASH2 : ORIGIN = 0x08100000, LENGTH = 1M
/* Data TCM */
/* - Two contiguous 64KB RAMs. */
/* - Used for interrupt handlers, stacks and general RAM. */
/* - Zero wait-states. */
/* - The DTCM is taken as the origin of the base ram. (See below.) */
/* This is also where the interrupt table and such will live, */
/* which is required for deterministic performance. */
/* Need a region called RAM */
/* DTCM : ORIGIN = 0x20000000, LENGTH = 128K */
RAM : ORIGIN = 0x20000000, LENGTH = 128K
/* Instruction TCM */
/* - Used for latency-critical interrupt handlers etc. */
/* - Zero wait-states. */
ITCM : ORIGIN = 0x00000000, LENGTH = 64K
/* AXI SRAM */
/* - AXISRAM is in D1 and accessible by all system masters except BDMA. */
/* - Suitable for application data not stored in DTCM. */
/* - Zero wait-states. */
AXISRAM : ORIGIN = 0x24000000, LENGTH = 512K
/* AHB SRAM */
/* - SRAM1-3 are in D2 and accessible by all system masters except BDMA. */
/* Suitable for use as DMA buffers. */
/* - SRAM4 is in D3 and additionally accessible by the BDMA. Used for BDMA */
/* buffers, for storing application data in lower-power modes. */
/* - Zero wait-states. */
SRAM1 : ORIGIN = 0x30000000, LENGTH = 128K
SRAM2 : ORIGIN = 0x30020000, LENGTH = 128K
SRAM3 : ORIGIN = 0x30040000, LENGTH = 32K
SRAM4 : ORIGIN = 0x38000000, LENGTH = 64K
/* Backup SRAM */
BSRAM : ORIGIN = 0x38800000, LENGTH = 4K
}
/*
/* Assign the memory regions defined above for use. */
/*
/* Provide the mandatory FLASH and RAM definitions for cortex-m-rt's linker script. */
/* These do not work with flip-link */
REGION_ALIAS(FLASH, FLASH1);
/* REGION_ALIAS(RAM, DTCM); */
/* The location of the stack can be overridden using the `_stack_start` symbol. */
/* - Set the stack location at the end of RAM, using all remaining space. */
_stack_start = ORIGIN(RAM) + LENGTH(RAM);
/* The location of the .text section can be overridden using the */
/* `_stext` symbol. By default it will place after .vector_table. */
/* _stext = ORIGIN(FLASH) + 0x40c; */
/* Define sections for placing symbols into the extra memory regions above. */
/* This makes them accessible from code. */
/* - ITCM, DTCM and AXISRAM connect to a 64-bit wide bus -> align to 8 bytes. */
/* - All other memories connect to a 32-bit wide bus -> align to 4 bytes. */
SECTIONS {
.flash2 (NOLOAD) : ALIGN(4) {
*(.flash2 .flash2.*);
. = ALIGN(4);
} > FLASH2
.itcm (NOLOAD) : ALIGN(8) {
*(.itcm .itcm.*);
. = ALIGN(8);
} > ITCM
.axisram (NOLOAD) : ALIGN(8) {
*(.axisram .axisram.*);
. = ALIGN(8);
} > AXISRAM
.sram1 (NOLOAD) : ALIGN(8) {
*(.sram1 .sram1.*);
. = ALIGN(4);
} > SRAM1
.sram2 (NOLOAD) : ALIGN(8) {
*(.sram2 .sram2.*);
. = ALIGN(4);
} > SRAM2
.sram3 (NOLOAD) : ALIGN(4) {
*(.sram3 .sram3.*);
. = ALIGN(4);
} > SRAM3
.sram4 (NOLOAD) : ALIGN(4) {
*(.sram4 .sram4.*);
. = ALIGN(4);
} > SRAM4
.bsram (NOLOAD) : ALIGN(4) {
*(.bsram .bsram.*);
. = ALIGN(4);
} > BSRAM
};

View File

@ -1,4 +0,0 @@
{
"com_if": "udp",
"tcpip_udp_port": 7301
}

View File

@ -1,2 +0,0 @@
tmtccmd == 8.0.1
# -e git+https://github.com/robamu-org/tmtccmd.git@main#egg=tmtccmd

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@ -1,55 +0,0 @@
//! Blinks an LED
//!
//! This assumes that LD2 (blue) is connected to pb7 and LD3 (red) is connected
//! to pb14. This assumption is true for the nucleo-h743zi board.
#![no_std]
#![no_main]
use satrs_stm32h7_nucleo_rtic as _;
use stm32h7xx_hal::{block, prelude::*, timer::Timer};
use cortex_m_rt::entry;
#[entry]
fn main() -> ! {
defmt::println!("starting stm32h7 blinky example");
// Get access to the device specific peripherals from the peripheral access crate
let dp = stm32h7xx_hal::stm32::Peripherals::take().unwrap();
// Take ownership over the RCC devices and convert them into the corresponding HAL structs
let rcc = dp.RCC.constrain();
let pwr = dp.PWR.constrain();
let pwrcfg = pwr.freeze();
// Freeze the configuration of all the clocks in the system and
// retrieve the Core Clock Distribution and Reset (CCDR) object
let rcc = rcc.use_hse(8.MHz()).bypass_hse();
let ccdr = rcc.freeze(pwrcfg, &dp.SYSCFG);
// Acquire the GPIOB peripheral
let gpiob = dp.GPIOB.split(ccdr.peripheral.GPIOB);
// Configure gpio B pin 0 as a push-pull output.
let mut ld1 = gpiob.pb0.into_push_pull_output();
// Configure gpio B pin 7 as a push-pull output.
let mut ld2 = gpiob.pb7.into_push_pull_output();
// Configure gpio B pin 14 as a push-pull output.
let mut ld3 = gpiob.pb14.into_push_pull_output();
// Configure the timer to trigger an update every second
let mut timer = Timer::tim1(dp.TIM1, ccdr.peripheral.TIM1, &ccdr.clocks);
timer.start(1.Hz());
// Wait for the timer to trigger an update and change the state of the LED
loop {
ld1.toggle();
ld2.toggle();
ld3.toggle();
block!(timer.wait()).unwrap();
}
}

View File

@ -1,11 +0,0 @@
#![no_main]
#![no_std]
use satrs_stm32h7_nucleo_rtic as _; // global logger + panicking-behavior + memory layout
#[cortex_m_rt::entry]
fn main() -> ! {
defmt::println!("Hello, world!");
satrs_stm32h7_nucleo_rtic::exit()
}

View File

@ -1,52 +0,0 @@
#![no_main]
#![no_std]
use cortex_m_semihosting::debug;
use defmt_brtt as _; // global logger
// TODO(5) adjust HAL import
use stm32h7xx_hal as _; // memory layout
use panic_probe as _;
// same panicking *behavior* as `panic-probe` but doesn't print a panic message
// this prevents the panic message being printed *twice* when `defmt::panic` is invoked
#[defmt::panic_handler]
fn panic() -> ! {
cortex_m::asm::udf()
}
/// Terminates the application and makes a semihosting-capable debug tool exit
/// with status code 0.
pub fn exit() -> ! {
loop {
debug::exit(debug::EXIT_SUCCESS);
}
}
/// Hardfault handler.
///
/// Terminates the application and makes a semihosting-capable debug tool exit
/// with an error. This seems better than the default, which is to spin in a
/// loop.
#[cortex_m_rt::exception]
unsafe fn HardFault(_frame: &cortex_m_rt::ExceptionFrame) -> ! {
loop {
debug::exit(debug::EXIT_FAILURE);
}
}
// defmt-test 0.3.0 has the limitation that this `#[tests]` attribute can only be used
// once within a crate. the module can be in any file but there can only be at most
// one `#[tests]` module in this library crate
#[cfg(test)]
#[defmt_test::tests]
mod unit_tests {
use defmt::assert;
#[test]
fn it_works() {
assert!(true)
}
}

View File

@ -1,528 +0,0 @@
#![no_main]
#![no_std]
extern crate alloc;
use rtic::app;
use rtic_monotonics::systick::Systick;
use rtic_monotonics::Monotonic;
use satrs::pool::{PoolAddr, PoolProvider, StaticHeaplessMemoryPool};
use satrs::static_subpool;
// global logger + panicking-behavior + memory layout
use satrs_stm32h7_nucleo_rtic as _;
use smoltcp::socket::udp::UdpMetadata;
use smoltcp::socket::{dhcpv4, udp};
use core::mem::MaybeUninit;
use embedded_alloc::Heap;
use smoltcp::iface::{Config, Interface, SocketHandle, SocketSet, SocketStorage};
use smoltcp::wire::{HardwareAddress, IpAddress, IpCidr};
use stm32h7xx_hal::ethernet;
const DEFAULT_BLINK_FREQ_MS: u32 = 1000;
const PORT: u16 = 7301;
const HEAP_SIZE: usize = 131_072;
const TC_SOURCE_CHANNEL_DEPTH: usize = 16;
pub type SharedPool = StaticHeaplessMemoryPool<3>;
pub type TcSourceChannel = rtic_sync::channel::Channel<PoolAddr, TC_SOURCE_CHANNEL_DEPTH>;
pub type TcSourceTx = rtic_sync::channel::Sender<'static, PoolAddr, TC_SOURCE_CHANNEL_DEPTH>;
pub type TcSourceRx = rtic_sync::channel::Receiver<'static, PoolAddr, TC_SOURCE_CHANNEL_DEPTH>;
#[global_allocator]
static HEAP: Heap = Heap::empty();
// We place the memory pool buffers inside the larger AXISRAM.
pub const SUBPOOL_SMALL_NUM_BLOCKS: u16 = 32;
pub const SUBPOOL_SMALL_BLOCK_SIZE: usize = 32;
pub const SUBPOOL_MEDIUM_NUM_BLOCKS: u16 = 16;
pub const SUBPOOL_MEDIUM_BLOCK_SIZE: usize = 128;
pub const SUBPOOL_LARGE_NUM_BLOCKS: u16 = 8;
pub const SUBPOOL_LARGE_BLOCK_SIZE: usize = 2048;
// This data will be held by Net through a mutable reference
pub struct NetStorageStatic<'a> {
socket_storage: [SocketStorage<'a>; 8],
}
// MaybeUninit allows us write code that is correct even if STORE is not
// initialised by the runtime
static mut STORE: MaybeUninit<NetStorageStatic> = MaybeUninit::uninit();
static mut UDP_RX_META: [udp::PacketMetadata; 12] = [udp::PacketMetadata::EMPTY; 12];
static mut UDP_RX: [u8; 2048] = [0; 2048];
static mut UDP_TX_META: [udp::PacketMetadata; 12] = [udp::PacketMetadata::EMPTY; 12];
static mut UDP_TX: [u8; 2048] = [0; 2048];
/// Locally administered MAC address
const MAC_ADDRESS: [u8; 6] = [0x02, 0x00, 0x11, 0x22, 0x33, 0x44];
pub struct Net {
iface: Interface,
ethdev: ethernet::EthernetDMA<4, 4>,
dhcp_handle: SocketHandle,
}
impl Net {
pub fn new(
sockets: &mut SocketSet<'static>,
mut ethdev: ethernet::EthernetDMA<4, 4>,
ethernet_addr: HardwareAddress,
) -> Self {
let config = Config::new(ethernet_addr);
let mut iface = Interface::new(
config,
&mut ethdev,
smoltcp::time::Instant::from_millis((Systick::now() - Systick::ZERO).to_millis()),
);
// Create sockets
let dhcp_socket = dhcpv4::Socket::new();
iface.update_ip_addrs(|addrs| {
let _ = addrs.push(IpCidr::new(IpAddress::v4(192, 168, 1, 99), 0));
});
let dhcp_handle = sockets.add(dhcp_socket);
Net {
iface,
ethdev,
dhcp_handle,
}
}
/// Polls on the ethernet interface. You should refer to the smoltcp
/// documentation for poll() to understand how to call poll efficiently
pub fn poll<'a>(&mut self, sockets: &'a mut SocketSet) -> bool {
let uptime = Systick::now() - Systick::ZERO;
let timestamp = smoltcp::time::Instant::from_millis(uptime.to_millis());
self.iface.poll(timestamp, &mut self.ethdev, sockets)
}
pub fn poll_dhcp<'a>(&mut self, sockets: &'a mut SocketSet) -> Option<dhcpv4::Event<'a>> {
let opt_event = sockets.get_mut::<dhcpv4::Socket>(self.dhcp_handle).poll();
if let Some(event) = &opt_event {
match event {
dhcpv4::Event::Deconfigured => {
defmt::info!("DHCP lost configuration");
self.iface.update_ip_addrs(|addrs| addrs.clear());
self.iface.routes_mut().remove_default_ipv4_route();
}
dhcpv4::Event::Configured(config) => {
defmt::info!("DHCP configuration acquired");
defmt::info!("IP address: {}", config.address);
self.iface.update_ip_addrs(|addrs| {
addrs.clear();
addrs.push(IpCidr::Ipv4(config.address)).unwrap();
});
if let Some(router) = config.router {
defmt::debug!("Default gateway: {}", router);
self.iface
.routes_mut()
.add_default_ipv4_route(router)
.unwrap();
} else {
defmt::debug!("Default gateway: None");
self.iface.routes_mut().remove_default_ipv4_route();
}
}
}
}
opt_event
}
}
pub struct UdpNet {
udp_handle: SocketHandle,
last_client: Option<UdpMetadata>,
tc_source_tx: TcSourceTx,
}
impl UdpNet {
pub fn new<'sockets>(sockets: &mut SocketSet<'sockets>, tc_source_tx: TcSourceTx) -> Self {
// SAFETY: The RX and TX buffers are passed here and not used anywhere else.
let udp_rx_buffer =
smoltcp::socket::udp::PacketBuffer::new(unsafe { &mut UDP_RX_META[..] }, unsafe {
&mut UDP_RX[..]
});
let udp_tx_buffer =
smoltcp::socket::udp::PacketBuffer::new(unsafe { &mut UDP_TX_META[..] }, unsafe {
&mut UDP_TX[..]
});
let udp_socket = smoltcp::socket::udp::Socket::new(udp_rx_buffer, udp_tx_buffer);
let udp_handle = sockets.add(udp_socket);
Self {
udp_handle,
last_client: None,
tc_source_tx,
}
}
pub fn poll<'sockets>(
&mut self,
sockets: &'sockets mut SocketSet,
shared_pool: &mut SharedPool,
) {
let socket = sockets.get_mut::<udp::Socket>(self.udp_handle);
if !socket.is_open() {
if let Err(e) = socket.bind(PORT) {
defmt::warn!("binding UDP socket failed: {}", e);
}
}
loop {
match socket.recv() {
Ok((data, client)) => {
match shared_pool.add(data) {
Ok(store_addr) => {
if let Err(e) = self.tc_source_tx.try_send(store_addr) {
defmt::warn!("TC source channel is full: {}", e);
}
}
Err(e) => {
defmt::warn!("could not add UDP packet to shared pool: {}", e);
}
}
self.last_client = Some(client);
// TODO: Implement packet wiretapping.
}
Err(e) => match e {
udp::RecvError::Exhausted => {
break;
}
udp::RecvError::Truncated => {
defmt::warn!("UDP packet was truncacted");
}
},
};
}
}
}
#[app(device = stm32h7xx_hal::stm32, peripherals = true)]
mod app {
use core::ptr::addr_of_mut;
use super::*;
use rtic_monotonics::systick::fugit::MillisDurationU32;
use rtic_monotonics::systick::Systick;
use satrs::spacepackets::ecss::tc::PusTcReader;
use stm32h7xx_hal::ethernet::{EthernetMAC, PHY};
use stm32h7xx_hal::gpio::{Output, Pin};
use stm32h7xx_hal::prelude::*;
use stm32h7xx_hal::stm32::Interrupt;
struct BlinkyLeds {
led1: Pin<'B', 7, Output>,
led2: Pin<'B', 14, Output>,
}
#[local]
struct Local {
leds: BlinkyLeds,
link_led: Pin<'B', 0, Output>,
net: Net,
udp: UdpNet,
tc_source_rx: TcSourceRx,
phy: ethernet::phy::LAN8742A<EthernetMAC>,
}
#[shared]
struct Shared {
blink_freq: MillisDurationU32,
eth_link_up: bool,
sockets: SocketSet<'static>,
shared_pool: SharedPool,
}
#[init]
fn init(mut cx: init::Context) -> (Shared, Local) {
defmt::println!("Starting sat-rs demo application for the STM32H743ZIT");
let pwr = cx.device.PWR.constrain();
let pwrcfg = pwr.freeze();
let rcc = cx.device.RCC.constrain();
// Try to keep the clock configuration similar to one used in STM examples:
// https://github.com/STMicroelectronics/STM32CubeH7/blob/master/Projects/NUCLEO-H743ZI/Examples/GPIO/GPIO_EXTI/Src/main.c
let ccdr = rcc
.sys_ck(400.MHz())
.hclk(200.MHz())
.use_hse(8.MHz())
.bypass_hse()
.pclk1(100.MHz())
.pclk2(100.MHz())
.pclk3(100.MHz())
.pclk4(100.MHz())
.freeze(pwrcfg, &cx.device.SYSCFG);
// Initialize the systick interrupt & obtain the token to prove that we did
let systick_mono_token = rtic_monotonics::create_systick_token!();
Systick::start(
cx.core.SYST,
ccdr.clocks.sys_ck().to_Hz(),
systick_mono_token,
);
// Those are used in the smoltcp of the stm32h7xx-hal , I am not fully sure what they are
// good for.
cx.core.SCB.enable_icache();
cx.core.DWT.enable_cycle_counter();
let gpioa = cx.device.GPIOA.split(ccdr.peripheral.GPIOA);
let gpiob = cx.device.GPIOB.split(ccdr.peripheral.GPIOB);
let gpioc = cx.device.GPIOC.split(ccdr.peripheral.GPIOC);
let gpiog = cx.device.GPIOG.split(ccdr.peripheral.GPIOG);
let link_led = gpiob.pb0.into_push_pull_output();
let mut led1 = gpiob.pb7.into_push_pull_output();
let mut led2 = gpiob.pb14.into_push_pull_output();
// Criss-cross pattern looks cooler.
led1.set_high();
led2.set_low();
let leds = BlinkyLeds { led1, led2 };
let rmii_ref_clk = gpioa.pa1.into_alternate::<11>();
let rmii_mdio = gpioa.pa2.into_alternate::<11>();
let rmii_mdc = gpioc.pc1.into_alternate::<11>();
let rmii_crs_dv = gpioa.pa7.into_alternate::<11>();
let rmii_rxd0 = gpioc.pc4.into_alternate::<11>();
let rmii_rxd1 = gpioc.pc5.into_alternate::<11>();
let rmii_tx_en = gpiog.pg11.into_alternate::<11>();
let rmii_txd0 = gpiog.pg13.into_alternate::<11>();
let rmii_txd1 = gpiob.pb13.into_alternate::<11>();
let mac_addr = smoltcp::wire::EthernetAddress::from_bytes(&MAC_ADDRESS);
/// Ethernet descriptor rings are a global singleton
#[link_section = ".sram3.eth"]
static mut DES_RING: MaybeUninit<ethernet::DesRing<4, 4>> = MaybeUninit::uninit();
let (eth_dma, eth_mac) = ethernet::new(
cx.device.ETHERNET_MAC,
cx.device.ETHERNET_MTL,
cx.device.ETHERNET_DMA,
(
rmii_ref_clk,
rmii_mdio,
rmii_mdc,
rmii_crs_dv,
rmii_rxd0,
rmii_rxd1,
rmii_tx_en,
rmii_txd0,
rmii_txd1,
),
// SAFETY: We do not move the returned DMA struct across thread boundaries, so this
// should be safe according to the docs.
unsafe { DES_RING.assume_init_mut() },
mac_addr,
ccdr.peripheral.ETH1MAC,
&ccdr.clocks,
);
// Initialise ethernet PHY...
let mut lan8742a = ethernet::phy::LAN8742A::new(eth_mac.set_phy_addr(0));
lan8742a.phy_reset();
lan8742a.phy_init();
unsafe {
ethernet::enable_interrupt();
cx.core.NVIC.set_priority(Interrupt::ETH, 196); // Mid prio
cortex_m::peripheral::NVIC::unmask(Interrupt::ETH);
}
// unsafe: mutable reference to static storage, we only do this once
let store = unsafe {
let store_ptr = STORE.as_mut_ptr();
// Initialise the socket_storage field. Using `write` instead of
// assignment via `=` to not call `drop` on the old, uninitialised
// value
addr_of_mut!((*store_ptr).socket_storage).write([SocketStorage::EMPTY; 8]);
// Now that all fields are initialised we can safely use
// assume_init_mut to return a mutable reference to STORE
STORE.assume_init_mut()
};
let (tc_source_tx, tc_source_rx) =
rtic_sync::make_channel!(PoolAddr, TC_SOURCE_CHANNEL_DEPTH);
let mut sockets = SocketSet::new(&mut store.socket_storage[..]);
let net = Net::new(&mut sockets, eth_dma, mac_addr.into());
let udp = UdpNet::new(&mut sockets, tc_source_tx);
let mut shared_pool: SharedPool = StaticHeaplessMemoryPool::new(true);
static_subpool!(
SUBPOOL_SMALL,
SUBPOOL_SMALL_SIZES,
SUBPOOL_SMALL_NUM_BLOCKS as usize,
SUBPOOL_SMALL_BLOCK_SIZE,
link_section = ".axisram"
);
static_subpool!(
SUBPOOL_MEDIUM,
SUBPOOL_MEDIUM_SIZES,
SUBPOOL_MEDIUM_NUM_BLOCKS as usize,
SUBPOOL_MEDIUM_BLOCK_SIZE,
link_section = ".axisram"
);
static_subpool!(
SUBPOOL_LARGE,
SUBPOOL_LARGE_SIZES,
SUBPOOL_LARGE_NUM_BLOCKS as usize,
SUBPOOL_LARGE_BLOCK_SIZE,
link_section = ".axisram"
);
shared_pool
.grow(
unsafe { SUBPOOL_SMALL.assume_init_mut() },
unsafe { SUBPOOL_SMALL_SIZES.assume_init_mut() },
SUBPOOL_SMALL_NUM_BLOCKS,
true,
)
.expect("growing heapless memory pool failed");
shared_pool
.grow(
unsafe { SUBPOOL_MEDIUM.assume_init_mut() },
unsafe { SUBPOOL_MEDIUM_SIZES.assume_init_mut() },
SUBPOOL_MEDIUM_NUM_BLOCKS,
true,
)
.expect("growing heapless memory pool failed");
shared_pool
.grow(
unsafe { SUBPOOL_LARGE.assume_init_mut() },
unsafe { SUBPOOL_LARGE_SIZES.assume_init_mut() },
SUBPOOL_LARGE_NUM_BLOCKS,
true,
)
.expect("growing heapless memory pool failed");
// Set up global allocator. Use AXISRAM for the heap.
#[link_section = ".axisram"]
static mut HEAP_MEM: [MaybeUninit<u8>; HEAP_SIZE] = [MaybeUninit::uninit(); HEAP_SIZE];
unsafe { HEAP.init(HEAP_MEM.as_ptr() as usize, HEAP_SIZE) }
eth_link_check::spawn().expect("eth link check failed");
blinky::spawn().expect("spawning blink task failed");
udp_task::spawn().expect("spawning UDP task failed");
tc_source_task::spawn().expect("spawning TC source task failed");
(
Shared {
blink_freq: MillisDurationU32::from_ticks(DEFAULT_BLINK_FREQ_MS),
eth_link_up: false,
sockets,
shared_pool,
},
Local {
link_led,
leds,
net,
udp,
tc_source_rx,
phy: lan8742a,
},
)
}
#[task(local = [leds], shared=[blink_freq])]
async fn blinky(mut cx: blinky::Context) {
let leds = cx.local.leds;
loop {
leds.led1.toggle();
leds.led2.toggle();
let current_blink_freq = cx.shared.blink_freq.lock(|current| *current);
Systick::delay(current_blink_freq).await;
}
}
/// This task checks for the network link.
#[task(local=[link_led, phy], shared=[eth_link_up])]
async fn eth_link_check(mut cx: eth_link_check::Context) {
let phy = cx.local.phy;
let link_led = cx.local.link_led;
loop {
let link_was_up = cx.shared.eth_link_up.lock(|link_up| *link_up);
if phy.poll_link() {
if !link_was_up {
link_led.set_high();
cx.shared.eth_link_up.lock(|link_up| *link_up = true);
defmt::info!("Ethernet link up");
}
} else if link_was_up {
link_led.set_low();
cx.shared.eth_link_up.lock(|link_up| *link_up = false);
defmt::info!("Ethernet link down");
}
Systick::delay(100.millis()).await;
}
}
#[task(binds=ETH, local=[net], shared=[sockets])]
fn eth_isr(mut cx: eth_isr::Context) {
// SAFETY: We do not write the register mentioned inside the docs anywhere else.
unsafe {
ethernet::interrupt_handler();
}
// Check and process ETH frames and DHCP. UDP is checked in a different task.
cx.shared.sockets.lock(|sockets| {
cx.local.net.poll(sockets);
cx.local.net.poll_dhcp(sockets);
});
}
/// This task routes UDP packets.
#[task(local=[udp], shared=[sockets, shared_pool])]
async fn udp_task(mut cx: udp_task::Context) {
loop {
cx.shared.sockets.lock(|sockets| {
cx.shared.shared_pool.lock(|pool| {
cx.local.udp.poll(sockets, pool);
})
});
Systick::delay(40.millis()).await;
}
}
/// This task handles all the incoming telecommands.
#[task(local=[read_buf: [u8; 1024] = [0; 1024], tc_source_rx], shared=[shared_pool])]
async fn tc_source_task(mut cx: tc_source_task::Context) {
loop {
let recv_result = cx.local.tc_source_rx.recv().await;
match recv_result {
Ok(pool_addr) => {
cx.shared.shared_pool.lock(|pool| {
match pool.read(&pool_addr, cx.local.read_buf.as_mut()) {
Ok(packet_len) => {
defmt::info!("received {} bytes in the TC source task", packet_len);
match PusTcReader::new(&cx.local.read_buf[0..packet_len]) {
Ok((packet, _tc_len)) => {
// TODO: Handle packet here or dispatch to dedicated PUS
// handler? Dispatching could simplify some things and make
// the software more scalable..
defmt::info!("received PUS packet: {}", packet);
}
Err(e) => {
defmt::info!("invalid TC format, not a PUS packet: {}", e);
}
}
if let Err(e) = pool.delete(pool_addr) {
defmt::warn!("deleting TC data failed: {}", e);
}
}
Err(e) => {
defmt::warn!("TC packet read failed: {}", e);
}
}
});
}
Err(e) => {
defmt::warn!("TC source reception error: {}", e);
}
};
}
}
}

View File

@ -1,16 +0,0 @@
#![no_std]
#![no_main]
use stm32h7_testapp as _; // memory layout + panic handler
// See https://crates.io/crates/defmt-test/0.3.0 for more documentation (e.g. about the 'state'
// feature)
#[defmt_test::tests]
mod tests {
use defmt::assert;
#[test]
fn it_works() {
assert!(true)
}
}

View File

@ -1,2 +0,0 @@
/settings.json
/.cortex-debug.*

View File

@ -1,12 +0,0 @@
{
// See https://go.microsoft.com/fwlink/?LinkId=827846 to learn about workspace recommendations.
// Extension identifier format: ${publisher}.${name}. Example: vscode.csharp
// List of extensions which should be recommended for users of this workspace.
"recommendations": [
"rust-lang.rust",
"probe-rs.probe-rs-debugger"
],
// List of extensions recommended by VS Code that should not be recommended for users of this workspace.
"unwantedRecommendations": []
}

View File

@ -1,22 +0,0 @@
{
"version": "0.2.0",
"configurations": [
{
"preLaunchTask": "${defaultBuildTask}",
"type": "probe-rs-debug",
"request": "launch",
"name": "probe-rs Debugging ",
"flashingConfig": {
"flashingEnabled": true
},
"chip": "STM32H743ZITx",
"coreConfigs": [
{
"programBinary": "${workspaceFolder}/target/thumbv7em-none-eabihf/debug/satrs-stm32h7-nucleo-rtic",
"rttEnabled": true,
"svdFile": "STM32H743.svd"
}
]
}
]
}

View File

@ -1,20 +0,0 @@
{
// See https://go.microsoft.com/fwlink/?LinkId=733558
// for the documentation about the tasks.json format
"version": "2.0.0",
"tasks": [
{
"label": "cargo build",
"type": "shell",
"command": "~/.cargo/bin/cargo", // note: full path to the cargo
"args": [
"build"
],
"group": {
"kind": "build",
"isDefault": true
}
},
]
}

View File

@ -1,650 +0,0 @@
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@ -5,14 +5,7 @@ High-level documentation of the [sat-rs project](https://absatsw.irs.uni-stuttga
## Building
If you have not done so, install the pre-requisites first:
```sh
cargo install mdbook --locked
cargo install mdbook-linkcheck --locked
```
After that, you can build the book with:
If you have not done so, install `mdbook` using `cargo install mdbook --locked`.
```sh
mdbook build

View File

@ -15,7 +15,7 @@ action commanding could look like.
2. Target ID and Action String based. The target ID is the same as in the first proposal, but
the unique action is identified by a string.
The library provides an `ActionRequest` abstraction to model both of these cases.
The framework provides an `ActionRequest` abstraction to model both of these cases.
## Commanding with ECSS PUS 8

View File

@ -17,14 +17,14 @@ it is still centered around small packets. `sat-rs` provides support for these E
standards and also attempts to fill the gap to the internet protocol by providing the following
components.
1. [UDP TMTC Server](https://docs.rs/satrs/latest/satrs/hal/std/udp_server/index.html).
1. [UDP TMTC Server](https://docs.rs/satrs-core/0.1.0-alpha.0/satrs_core/hal/host/udp_server/index.html).
UDP is already packet based which makes it an excellent fit for exchanging space packets.
2. [TCP TMTC Server Components](https://docs.rs/satrs/latest/satrs/hal/std/tcp_server/index.html).
TCP is a stream based protocol, so the library provides building blocks to parse telemetry
2. [TCP TMTC Server Components](https://docs.rs/satrs-core/0.1.0-alpha.1/satrs_core/hal/std/tcp_server/index.html).
TCP is a stream based protocol, so the framework provides building blocks to parse telemetry
from an arbitrary bytestream. Two concrete implementations are provided:
- [TCP spacepackets server](https://docs.rs/satrs/latest/satrs/hal/std/tcp_server/struct.TcpSpacepacketsServer.html)
- [TCP spacepackets server](https://docs.rs/satrs-core/0.1.0-alpha.1/satrs_core/hal/std/tcp_server/struct.TcpSpacepacketsServer.html)
to parse tightly packed CCSDS Spacepackets.
- [TCP COBS server](https://docs.rs/satrs/latest/satrs/hal/std/tcp_server/struct.TcpTmtcInCobsServer.html)
- [TCP COBS server](https://docs.rs/satrs-core/0.1.0-alpha.1/satrs_core/hal/std/tcp_server/struct.TcpTmtcInCobsServer.html)
to parse generic frames wrapped with the
[COBS protocol](https://en.wikipedia.org/wiki/Consistent_Overhead_Byte_Stuffing).
@ -39,12 +39,8 @@ task might be to store all arriving telemetry persistently. This is especially i
space systems which do not have permanent contact like low-earth-orbit (LEO) satellites.
The most important task of a TC source is to deliver the telecommands to the correct recipients.
For component oriented software using message passing, this usually includes staged demultiplexing
components to determine where a command needs to be sent.
Using a generic concept of a TC source and a TM sink as part of the software design simplifies
the flexibility of the TMTC infrastructure: Newly added TM generators and TC receiver only have to
forward their generated or received packets to those handler objects.
For modern component oriented software using message passing, this usually includes staged
demultiplexing components to determine where a command needs to be sent.
# Low-level protocols and the bridge to the communcation subsystem

View File

@ -11,8 +11,7 @@ time where the OBSW might be running on Linux based systems with hundreds of MBs
A useful pattern used commonly in space systems is to limit heap allocations to program
initialization time and avoid frequent run-time allocations. This prevents issues like
running out of memory (something even Rust can not protect from) or heap fragmentation on systems
without a MMU.
running out of memory (something even Rust can not protect from) or heap fragmentation.
# Using pre-allocated pool structures
@ -20,47 +19,15 @@ A huge candidate for heap allocations is the TMTC and handling. TC, TMs and IPC
candidates where the data size might vary greatly. The regular solution for host systems
might be to send around this data as a `Vec<u8>` until it is dropped. `sat-rs` provides
another solution to avoid run-time allocations by offering pre-allocated static
pools. These pools are split into subpools where each subpool can have different page sizes.
For example, a very small telecommand (TC) pool might look like this:
pools.
![Example Pool](images/pools/static-pools.png)
These pools are split into subpools where each subpool can have different page sizes.
For example, a very small TC pool might look like this:
The core of the pool abstractions is the
[PoolProvider trait](https://docs.rs/satrs/latest/satrs/pool/trait.PoolProvider.html).
This trait specifies the general API a pool structure should have without making assumption
of how the data is stored.
TODO: Add image
This trait is implemented by a static memory pool implementation.
The code to generate this static pool would look like this:
<!-- Would be nice to test this code sample, but need to wait
for https://github.com/rust-lang/mdBook/issues/706 to be merged.. -->
```rust, ignore
use satrs::pool::{StaticMemoryPool, StaticPoolConfig};
let tc_pool = StaticMemoryPool::new(StaticPoolConfig::new(vec![
(6, 16),
(4, 32),
(2, 64),
(1, 128)
]));
```
It should be noted that the buckets only show the maximum size of data being stored inside them.
The store will keep a separate structure to track the actual size of the data being stored.
A TC entry inside this pool has a store address which can then be sent around without having
to dynamically allocate memory. The same principle can also be applied to the telemetry (TM) and
inter-process communication (IPC) data.
You can read
- [`StaticPoolConfig` API](https://docs.rs/satrs/latest/satrs/pool/struct.StaticPoolConfig.html)
- [`StaticMemoryPool` API](https://docs.rs/satrs/latest/satrs/pool/struct.StaticMemoryPool.html)
for more details.
In the future, optimized pool structures which use standard containers or are
[`Sync`](https://doc.rust-lang.org/std/marker/trait.Sync.html) by default might be added as well.
to dynamically allocate memory. The same principle can also be applied to the TM and IPC data.
# Using special crates to prevent smaller allocations
@ -68,7 +35,7 @@ Another common way to use the heap on host systems is using containers like `Str
to work with data where the size is not known beforehand. The most common solution for embedded
systems is to determine the maximum expected size and then use a pre-allocated `u8` buffer and a
size variable. Alternatively, you can use the following crates for more convenience or a smart
behaviour which at the very least reduces heap allocations:
behaviour which at the very least reduce heap allocations:
1. [`smallvec`](https://docs.rs/smallvec/latest/smallvec/).
2. [`arrayvec`](https://docs.rs/arrayvec/latest/arrayvec/index.html) which also contains an

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@ -1,14 +1,13 @@
# Library Design
# Framework Design
Satellites and space systems in general are complex systems with a wide range of requirements for
both the hardware and the software. Consequently, the general design of the library is centered
both the hardware and the software. Consequently, the general design of the framework is centered
around many light-weight components which try to impose as few restrictions as possible on how to
solve certain problems. This is also the reason why sat-rs is explicitely called a library
instead of a framework.
solve certain problems.
There are still a lot of common patterns and architectures across these systems where guidance
of how to solve a problem and a common structure would still be extremely useful to avoid pitfalls
which were already solved and to avoid boilerplate code. This library tries to provide this
which were already solved and to avoid boilerplate code. This framework tries to provide this
structure and guidance the following way:
1. Providing this book which explains the architecture and design patterns in respect to common
@ -19,7 +18,7 @@ structure and guidance the following way:
3. Providing a good test suite. This includes both unittests and integration tests. The integration
tests can also serve as smaller usage examples than the large `satrs-example` application.
This library has special support for standards used in the space industry. This especially
This framework has special support for standards used in the space industry. This especially
includes standards provided by Consultative Committee for Space Data Systems (CCSDS) and European
Cooperation for Space Standardization (ECSS). It does not enforce using any of those standards,
but it is always recommended to use some sort of standard for interoperability.
@ -31,10 +30,10 @@ Flying Laptop Project by the University of Stuttgart with Airbus Defence and Spa
It has flight heritage through the 2 mssions [FLP](https://www.irs.uni-stuttgart.de/en/research/satellitetechnology-and-instruments/smallsatelliteprogram/flying-laptop/)
and [EIVE](https://www.irs.uni-stuttgart.de/en/research/satellitetechnology-and-instruments/smallsatelliteprogram/EIVE/).
Therefore, a lot of the design concepts were ported more or less unchanged to the `sat-rs`
library.
framework.
FLP is a medium-size small satellite with a higher budget and longer development time than EIVE,
which allowed to build a highly reliable system while EIVE is a smaller 6U+ cubesat which had a
shorter development cycle and was built using cheaper COTS components. This library also tries
shorter development cycle and was built using cheaper COTS components. This framework also tries
to accumulate the knowledge of developing the OBSW and operating the satellite for both these
different systems and provide a solution for a wider range of small satellite systems.

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@ -1,24 +1,16 @@
# Events
Events are an important mechanism used for remote systems to monitor unexpected
or expected anomalies and events occuring on these systems.
One common use case for events on remote systems is to offer a light-weight publish-subscribe
mechanism and IPC mechanism for software and hardware events which are also packaged as telemetry
(TM) or can trigger a system response. They can also be tied to
Events can be an extremely important mechanism used for remote systems to monitor unexpected
or expected anomalies and events occuring on these systems. They are oftentimes tied to
Fault Detection, Isolation and Recovery (FDIR) operations, which need to happen autonomously.
The PUS Service 5 standardizes how the ground interface for events might look like, but does not
specify how other software components might react to those events. There is the PUS Service 19,
which might be used for that purpose, but the event components recommended by this framework do not
rely on the present of this service.
Events can also be used as a convenient Inter-Process Communication (IPC) mechansism, which is
also observable for the Ground segment. The PUS Service 5 standardizes how the ground interface
for events might look like, but does not specify how other software components might react
to those events. There is the PUS Service 19, which might be used for that purpose, but the
event components recommended by this framework do not really need this service.
The following images shows how the flow of events could look like in a system where components
can generate events, and where other system components might be interested in those events:
![Event flow](images/events/event_man_arch.png)
For the concrete implementation of your own event management and/or event routing system, you
can have a look at the event management documentation inside the
[API documentation](https://docs.rs/satrs/latest/satrs/event_man/index.html) where you can also
find references to all examples.

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@ -1,6 +1,6 @@
# sat-rs Example Application
The `sat-rs` library includes a monolithic example application which can be found inside
The `sat-rs` framework includes a monolithic example application which can be found inside
the [`satrs-example`](https://egit.irs.uni-stuttgart.de/rust/sat-rs/src/branch/main/satrs-example)
subdirectory of the repository. The primary purpose of this example application is to show how
the various components of the sat-rs framework could be used as part of a larger on-board
@ -23,11 +23,11 @@ Some additional explanation is provided for the various components.
The example includes a UDP and TCP server to receive telecommands and poll telemetry from. This
might be an optional component for an OBSW which is only used during the development phase on
ground. The UDP server is strongly based on the
[UDP TC server](https://docs.rs/satrs/latest/satrs/hal/std/udp_server/struct.UdpTcServer.html).
[UDP TC server](https://docs.rs/satrs-core/0.1.0-alpha.1/satrs_core/hal/std/udp_server/struct.UdpTcServer.html).
This server component is wrapped by a TMTC server which handles all telemetry to the last connected
client.
The TCP server is based on the [TCP Spacepacket Server](https://docs.rs/satrs/latest/satrs/hal/std/tcp_server/struct.TcpSpacepacketsServer.html)
The TCP server is based on the [TCP Spacepacket Server](https://docs.rs/satrs-core/0.1.0-alpha.1/satrs_core/hal/std/tcp_server/struct.TcpSpacepacketsServer.html)
class. It parses space packets by using the CCSDS space packet ID as the packet
start delimiter. All available telemetry will be sent back to a client after having read all
telecommands from the client.
@ -51,13 +51,13 @@ services. This currently includes the following services:
- Service 1 for telecommand verification. The verification handling is handled locally: Each
component which generates verification telemetry in some shape or form receives a
[reporter](https://docs.rs/satrs/latest/satrs/pus/verification/struct.VerificationReporterWithSender.html)
[reporter](https://docs.rs/satrs-core/0.1.0-alpha.1/satrs_core/pus/verification/struct.VerificationReporterWithSender.html)
object which can be used to send PUS 1 verification telemetry to the TM funnel.
- Service 3 for housekeeping telemetry handling.
- Service 5 for management and downlink of on-board events.
- Service 8 for handling on-board actions.
- Service 11 for scheduling telecommands to be released at a specific time. This component
uses the [PUS scheduler class](https://docs.rs/satrs/latest/satrs/pus/scheduler/alloc_mod/struct.PusScheduler.html)
uses the [PUS scheduler class](https://docs.rs/satrs-core/0.1.0-alpha.1/satrs_core/pus/scheduler/alloc_mod/struct.PusScheduler.html)
which performs the core logic of scheduling telecommands. All telecommands released by the
scheduler are sent to the central TC source using a message.
- Service 17 for test purposes like pings.
@ -65,10 +65,10 @@ services. This currently includes the following services:
### Event Management Component
An event manager based on the sat-rs
[event manager component](https://docs.rs/satrs/latest/satrs/event_man/index.html)
[event manager component](https://docs.rs/satrs-core/0.1.0-alpha.1/satrs_core/event_man/index.html)
is provided to handle the event IPC and FDIR mechanism. The event message are converted to PUS 5
telemetry by the
[PUS event dispatcher](https://docs.rs/satrs/latest/satrs/pus/event_man/alloc_mod/struct.PusEventDispatcher.html).
[PUS event dispatcher](https://docs.rs/satrs-core/0.1.0-alpha.1/satrs_core/pus/event_man/alloc_mod/struct.PusEventDispatcher.html).
You can read the [events](./events.md) chapter for more in-depth information about event management.

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@ -1,7 +1,7 @@
The sat-rs book
======
This book is the primary information resource for the [sat-rs library](https://egit.irs.uni-stuttgart.de/rust/sat-rs)
This book is the primary information resource for the [sat-rs framework](https://egit.irs.uni-stuttgart.de/rust/sat-rs)
in addition to the regular API documentation. It contains the following resources:
1. Architecture informations and consideration which would exceeds the scope of the regular API.
@ -12,15 +12,10 @@ in addition to the regular API documentation. It contains the following resource
# Introduction
The primary goal of the sat-rs library is to provide re-usable components
The primary goal of the sat-rs framework is to provide re-usable components
to write on-board software for remote systems like rovers or satellites. It is specifically written
for the special requirements for these systems.
It should be noted that sat-rs is early-stage software. Important features are missing. New releases
with breaking changes are released regularly, with all changes documented inside respective
changelog files. You should only use this library if your are willing to work in this
environment.
A lot of the architecture and general design considerations are based on the
[FSFW](https://egit.irs.uni-stuttgart.de/fsfw/fsfw) C++ framework which has flight heritage
through the 2 missions [FLP](https://www.irs.uni-stuttgart.de/en/research/satellitetechnology-and-instruments/smallsatelliteprogram/flying-laptop/)
@ -32,14 +27,3 @@ The [`satrs-example`](https://egit.irs.uni-stuttgart.de/rust/sat-rs/src/branch/m
provides various practical usage examples of the `sat-rs` framework. If you are more interested in
the practical application of `sat-rs` inside an application, it is recommended to have a look at
the example application.
# Flight Heritage
There is an active and continuous effort to get early flight heritage for the sat-rs library.
Currently this library has the following flight heritage:
- Submission as an [OPS-SAT experiment](https://www.esa.int/Enabling_Support/Operations/OPS-SAT)
which has also
[flown on the satellite](https://blogs.esa.int/rocketscience/2024/05/21/ops-sat-reentry-tomorrow-final-experiments-continue/).
The application is strongly based on the sat-rs example application. You can find the repository
of the experiment [here](https://egit.irs.uni-stuttgart.de/rust/ops-sat-rs).

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@ -1,11 +1,11 @@
# Modes
Modes are an extremely useful concept to model complex systems. They allow simplified
system reasoning for both system operators and OBSW developers. They also provide a way to alter
the behaviour of a component and also provide observability of a system. A few examples of how to
model the mode of different components within a space system with modes will be given.
Modes are an extremely useful concept for complex system in general. They also allow simplified
system reasoning for both system operators and OBSW developers. They model the behaviour of a
component and also provide observability of a system. A few examples of how to model
different components of a space system with modes will be given.
## Pyhsical device component with modes
## Modelling a pyhsical devices with modes
The following simple mode scheme with the following three mode
@ -13,8 +13,7 @@ The following simple mode scheme with the following three mode
- `ON`
- `NORMAL`
can be applied to a large number of simpler device controllers of a remote system, for example
sensors.
can be applied to a large number of simpler devices of a remote system, for example sensors.
1. `OFF` means that a device is physically switched off, and the corresponding software component
does not poll the device regularly.
@ -32,7 +31,7 @@ for the majority of devices:
2. `NORMAL` or `ON` to `OFF`: Any important shutdown configuration or handling must be performed
before powering off the device.
## Controller components with modes
## Modelling a controller with modes
Controller components are not modelling physical devices, but a mode scheme is still the best
way to model most of these components.

9
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@ -0,0 +1,9 @@
Change Log
=======
All notable changes to this project will be documented in this file.
The format is based on [Keep a Changelog](http://keepachangelog.com/)
and this project adheres to [Semantic Versioning](http://semver.org/).
# [unreleased]

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@ -1,44 +1,30 @@
[package]
name = "satrs"
version = "0.2.1"
name = "satrs-core"
version = "0.1.0-alpha.2"
edition = "2021"
rust-version = "1.71.1"
rust-version = "1.61"
authors = ["Robin Mueller <muellerr@irs.uni-stuttgart.de>"]
description = "A framework to build software for remote systems"
homepage = "https://absatsw.irs.uni-stuttgart.de/projects/sat-rs/"
description = "Core components of the sat-rs framework to build software for remote systems"
homepage = "https://egit.irs.uni-stuttgart.de/rust/sat-rs"
repository = "https://egit.irs.uni-stuttgart.de/rust/sat-rs"
license = "Apache-2.0"
keywords = ["no-std", "space", "aerospace"]
# See more keys and their definitions at https://doc.rust-lang.org/cargo/reference/manifest.html
categories = ["aerospace", "aerospace::space-protocols", "no-std", "hardware-support", "embedded"]
# See more keys and their definitions at https://doc.rust-lang.org/cargo/reference/manifest.html
[dependencies]
delegate = ">0.7, <=0.10"
paste = "1"
derive-new = "0.6"
smallvec = "1"
crc = "3"
[dependencies.satrs-shared]
version = ">=0.1.3, <0.2"
[dependencies.smallvec]
version = "1"
[dependencies.num_enum]
version = ">0.5, <=0.7"
default-features = false
[dependencies.spacepackets]
version = "0.11"
default-features = false
[dependencies.cobs]
git = "https://github.com/robamu/cobs.rs.git"
version = "0.2.3"
branch = "all_features"
default-features = false
[dependencies.num-traits]
version = "0.2"
default-features = false
[dependencies.crc]
version = "3"
[dependencies.dyn-clone]
version = "1"
@ -52,6 +38,10 @@ optional = true
version = "0.7"
optional = true
[dependencies.num-traits]
version = "0.2"
default-features = false
[dependencies.downcast-rs]
version = "1.2"
default-features = false
@ -80,19 +70,23 @@ version = "0.5.4"
features = ["all"]
optional = true
[dependencies.mio]
version = "0.8"
features = ["os-poll", "net"]
optional = true
[dependencies.spacepackets]
version = "0.9.0"
default-features = false
# git = "https://egit.irs.uni-stuttgart.de/rust/spacepackets.git"
# rev = "297cfad22637d3b07a1b27abe56d9a607b5b82a7"
# branch = "main"
[dependencies.defmt]
version = "0.3"
optional = true
[dependencies.cobs]
git = "https://github.com/robamu/cobs.rs.git"
version = "0.2.3"
branch = "all_features"
default-features = false
[dev-dependencies]
serde = "1"
zerocopy = "0.7"
once_cell = "1"
once_cell = "1.13"
serde_json = "1"
rand = "0.8"
tempfile = "3"
@ -112,8 +106,7 @@ std = [
"spacepackets/std",
"num_enum/std",
"thiserror",
"socket2",
"mio"
"socket2"
]
alloc = [
"serde/alloc",
@ -122,13 +115,11 @@ alloc = [
"dyn-clone",
"downcast-rs"
]
serde = ["dep:serde", "spacepackets/serde", "satrs-shared/serde"]
serde = ["dep:serde", "spacepackets/serde"]
crossbeam = ["crossbeam-channel"]
heapless = ["dep:heapless"]
defmt = ["dep:defmt", "spacepackets/defmt"]
test_util = []
doc-images = []
[package.metadata.docs.rs]
all-features = true
rustdoc-args = ["--cfg", "docs_rs", "--generate-link-to-definition"]
rustdoc-args = ["--cfg", "doc_cfg", "--generate-link-to-definition"]

9
satrs-core/README.md Normal file
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@ -0,0 +1,9 @@
[![Crates.io](https://img.shields.io/crates/v/satrs-core)](https://crates.io/crates/satrs-core)
[![docs.rs](https://img.shields.io/docsrs/satrs-core)](https://docs.rs/satrs-core)
satrs-core
======
This crate contains the core components of the sat-rs framework.
You can find more information on [homepage](https://egit.irs.uni-stuttgart.de/rust/sat-rs).

View File

@ -4,11 +4,11 @@ Checklist for new releases
# Pre-Release
1. Make sure any new modules are documented sufficiently enough and check docs with
`cargo +nightly doc --all-features --config 'build.rustdocflags=["--cfg", "docs_rs"]' --open`.
`cargo +nightly doc --all-features --config 'rustdocflags=["--cfg", "doc_cfg"]' --open`.
2. Bump version specifier in `Cargo.toml`.
3. Update `CHANGELOG.md`: Convert `unreleased` section into version section with date and add new
`unreleased` section.
4. Run `cargo test --all-features` or `cargo nextest r --all-features` and `cargo test --doc`.
4. Run `cargo test --all-features`.
5. Run `cargo fmt` and `cargo clippy`. Check `cargo msrv` against MSRV in `Cargo.toml`.
6. Wait for CI/CD results for EGit and Github. These also check cross-compilation for bare-metal
targets.
@ -19,5 +19,7 @@ Checklist for new releases
# Post-Release
1. Create a new release on `EGit` with the name `satrs-<version>`.
1. Create a new annotaged tag and push it with `git tag -a satrs-core-<version>` and
`git push -u origin satrs-core-<version>`
2. Create a new release on `EGit` based on the tag.

View File

@ -5,7 +5,7 @@ use std::path::{Path, PathBuf};
use super::{
filestore::{FilestoreError, VirtualFilestore},
user::{CfdpUser, FileSegmentRecvdParams, MetadataReceivedParams},
CheckTimerCreator, CountdownProvider, EntityType, LocalEntityConfig, PacketInfo, PacketTarget,
CheckTimer, CheckTimerCreator, EntityType, LocalEntityConfig, PacketInfo, PacketTarget,
RemoteEntityConfig, RemoteEntityConfigProvider, State, TimerContext, TransactionId,
TransactionStep,
};
@ -23,7 +23,7 @@ use spacepackets::{
tlv::{msg_to_user::MsgToUserTlv, EntityIdTlv, GenericTlv, TlvType},
ChecksumType, ConditionCode, FaultHandlerCode, PduType, TransmissionMode,
},
util::{UnsignedByteField, UnsignedEnum},
util::UnsignedByteField,
};
use thiserror::Error;
@ -54,7 +54,7 @@ struct TransferState {
completion_disposition: CompletionDisposition,
checksum: u32,
current_check_count: u32,
current_check_timer: Option<Box<dyn CountdownProvider>>,
current_check_timer: Option<Box<dyn CheckTimer>>,
}
impl Default for TransferState {
@ -799,9 +799,9 @@ mod tests {
};
use crate::cfdp::{
filestore::NativeFilestore, user::OwnedMetadataRecvdParams, CheckTimerCreator,
CountdownProvider, DefaultFaultHandler, IndicationConfig, RemoteEntityConfig,
StdRemoteEntityConfigProvider, UserFaultHandler, CRC_32,
filestore::NativeFilestore, user::OwnedMetadataRecvdParams, CheckTimer, CheckTimerCreator,
DefaultFaultHandler, IndicationConfig, RemoteEntityConfig, StdRemoteEntityConfigProvider,
UserFaultHandler, CRC_32,
};
use super::*;
@ -1057,7 +1057,7 @@ mod tests {
expired: Arc<AtomicBool>,
}
impl CountdownProvider for TestCheckTimer {
impl CheckTimer for TestCheckTimer {
fn has_expired(&self) -> bool {
self.expired.load(core::sync::atomic::Ordering::Relaxed)
}
@ -1088,10 +1088,7 @@ mod tests {
}
impl CheckTimerCreator for TestCheckTimerCreator {
fn get_check_timer_provider(
&self,
timer_context: TimerContext,
) -> Box<dyn CountdownProvider> {
fn get_check_timer_provider(&self, timer_context: TimerContext) -> Box<dyn CheckTimer> {
match timer_context {
TimerContext::CheckLimit { .. } => {
Box::new(TestCheckTimer::new(self.check_limit_expired_flag.clone()))

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@ -7,7 +7,7 @@ use spacepackets::ByteConversionError;
use std::error::Error;
use std::path::Path;
#[cfg(feature = "std")]
pub use std_mod::*;
pub use stdmod::*;
pub const CRC_32: Crc<u32> = Crc::<u32>::new(&CRC_32_CKSUM);
@ -148,11 +148,12 @@ pub trait VirtualFilestore {
}
#[cfg(feature = "std")]
pub mod std_mod {
pub mod stdmod {
use super::*;
use std::{
fs::{self, File, OpenOptions},
io::{BufReader, Read, Seek, SeekFrom, Write},
path::Path,
};
#[derive(Default)]

View File

@ -9,7 +9,7 @@ use spacepackets::{
pdu::{FileDirectiveType, PduError, PduHeader},
ChecksumType, ConditionCode, FaultHandlerCode, PduType, TransmissionMode,
},
util::{UnsignedByteField, UnsignedEnum},
util::UnsignedByteField,
};
#[cfg(feature = "alloc")]
@ -17,8 +17,6 @@ use alloc::boxed::Box;
#[cfg(feature = "serde")]
use serde::{Deserialize, Serialize};
use crate::time::CountdownProvider;
#[cfg(feature = "std")]
pub mod dest;
#[cfg(feature = "alloc")]
@ -47,15 +45,7 @@ pub enum TimerContext {
},
}
/// A generic trait which allows CFDP entities to create check timers which are required to
/// implement special procedures in unacknowledged transmission mode, as specified in 4.6.3.2
/// and 4.6.3.3.
///
/// This trait also allows the creation of different check timers depending on context and purpose
/// of the timer, the runtime environment (e.g. standard clock timer vs. timer using a RTC) or
/// other factors.
///
/// The countdown timer is used by 3 mechanisms of the CFDP protocol.
/// Generic abstraction for a check timer which is used by 3 mechanisms of the CFDP protocol.
///
/// ## 1. Check limit handling
///
@ -84,9 +74,22 @@ pub enum TimerContext {
/// The timer will be used to perform the Positive Acknowledgement Procedures as specified in
/// 4.7. 1of the CFDP standard. The expiration period will be provided by the Positive ACK timer
/// interval of the remote entity configuration.
pub trait CheckTimer: Debug {
fn has_expired(&self) -> bool;
fn reset(&mut self);
}
/// A generic trait which allows CFDP entities to create check timers which are required to
/// implement special procedures in unacknowledged transmission mode, as specified in 4.6.3.2
/// and 4.6.3.3. The [CheckTimer] documentation provides more information about the purpose of the
/// check timer in the context of CFDP.
///
/// This trait also allows the creation of different check timers depending on context and purpose
/// of the timer, the runtime environment (e.g. standard clock timer vs. timer using a RTC) or
/// other factors.
#[cfg(feature = "alloc")]
pub trait CheckTimerCreator {
fn get_check_timer_provider(&self, timer_context: TimerContext) -> Box<dyn CountdownProvider>;
fn get_check_timer_provider(&self, timer_context: TimerContext) -> Box<dyn CheckTimer>;
}
/// Simple implementation of the [CheckTimerCreator] trait assuming a standard runtime.
@ -109,7 +112,7 @@ impl StdCheckTimer {
}
#[cfg(feature = "std")]
impl CountdownProvider for StdCheckTimer {
impl CheckTimer for StdCheckTimer {
fn has_expired(&self) -> bool {
let elapsed_time = self.start_time.elapsed();
if elapsed_time.as_secs() > self.expiry_time_seconds {

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@ -0,0 +1,281 @@
#[cfg(feature = "alloc")]
use alloc::vec::Vec;
#[cfg(feature = "alloc")]
use hashbrown::HashSet;
use spacepackets::PacketId;
use crate::tmtc::ReceivesTcCore;
pub trait PacketIdLookup {
fn validate(&self, packet_id: u16) -> bool;
}
#[cfg(feature = "alloc")]
impl PacketIdLookup for Vec<u16> {
fn validate(&self, packet_id: u16) -> bool {
self.contains(&packet_id)
}
}
#[cfg(feature = "alloc")]
impl PacketIdLookup for HashSet<u16> {
fn validate(&self, packet_id: u16) -> bool {
self.contains(&packet_id)
}
}
impl PacketIdLookup for [u16] {
fn validate(&self, packet_id: u16) -> bool {
self.binary_search(&packet_id).is_ok()
}
}
impl PacketIdLookup for &[u16] {
fn validate(&self, packet_id: u16) -> bool {
self.binary_search(&packet_id).is_ok()
}
}
#[cfg(feature = "alloc")]
impl PacketIdLookup for Vec<PacketId> {
fn validate(&self, packet_id: u16) -> bool {
self.contains(&PacketId::from(packet_id))
}
}
#[cfg(feature = "alloc")]
impl PacketIdLookup for HashSet<PacketId> {
fn validate(&self, packet_id: u16) -> bool {
self.contains(&PacketId::from(packet_id))
}
}
impl PacketIdLookup for [PacketId] {
fn validate(&self, packet_id: u16) -> bool {
self.binary_search(&PacketId::from(packet_id)).is_ok()
}
}
impl PacketIdLookup for &[PacketId] {
fn validate(&self, packet_id: u16) -> bool {
self.binary_search(&PacketId::from(packet_id)).is_ok()
}
}
/// This function parses a given buffer for tightly packed CCSDS space packets. It uses the
/// [PacketId] field of the CCSDS packets to detect the start of a CCSDS space packet and then
/// uses the length field of the packet to extract CCSDS packets.
///
/// This function is also able to deal with broken tail packets at the end as long a the parser
/// can read the full 7 bytes which constitue a space packet header plus one byte minimal size.
/// If broken tail packets are detected, they are moved to the front of the buffer, and the write
/// index for future write operations will be written to the `next_write_idx` argument.
///
/// The parser will write all packets which were decoded successfully to the given `tc_receiver`
/// and return the number of packets found. If the [ReceivesTcCore::pass_tc] calls fails, the
/// error will be returned.
pub fn parse_buffer_for_ccsds_space_packets<E>(
buf: &mut [u8],
packet_id_lookup: &(impl PacketIdLookup + ?Sized),
tc_receiver: &mut (impl ReceivesTcCore<Error = E> + ?Sized),
next_write_idx: &mut usize,
) -> Result<u32, E> {
*next_write_idx = 0;
let mut packets_found = 0;
let mut current_idx = 0;
let buf_len = buf.len();
loop {
if current_idx + 7 >= buf.len() {
break;
}
let packet_id = u16::from_be_bytes(buf[current_idx..current_idx + 2].try_into().unwrap());
if packet_id_lookup.validate(packet_id) {
let length_field =
u16::from_be_bytes(buf[current_idx + 4..current_idx + 6].try_into().unwrap());
let packet_size = length_field + 7;
if (current_idx + packet_size as usize) <= buf_len {
tc_receiver.pass_tc(&buf[current_idx..current_idx + packet_size as usize])?;
packets_found += 1;
} else {
// Move packet to start of buffer if applicable.
if current_idx > 0 {
buf.copy_within(current_idx.., 0);
*next_write_idx = buf.len() - current_idx;
}
}
current_idx += packet_size as usize;
continue;
}
current_idx += 1;
}
Ok(packets_found)
}
#[cfg(test)]
mod tests {
use spacepackets::{
ecss::{tc::PusTcCreator, WritablePusPacket},
PacketId, SpHeader,
};
use crate::encoding::tests::TcCacher;
use super::parse_buffer_for_ccsds_space_packets;
const TEST_APID_0: u16 = 0x02;
const TEST_APID_1: u16 = 0x10;
const TEST_PACKET_ID_0: PacketId = PacketId::const_tc(true, TEST_APID_0);
const TEST_PACKET_ID_1: PacketId = PacketId::const_tc(true, TEST_APID_1);
#[test]
fn test_basic() {
let mut sph = SpHeader::tc_unseg(TEST_APID_0, 0, 0).unwrap();
let ping_tc = PusTcCreator::new_simple(&mut sph, 17, 1, None, true);
let mut buffer: [u8; 32] = [0; 32];
let packet_len = ping_tc
.write_to_bytes(&mut buffer)
.expect("writing packet failed");
let valid_packet_ids = [TEST_PACKET_ID_0];
let mut tc_cacher = TcCacher::default();
let mut next_write_idx = 0;
let parse_result = parse_buffer_for_ccsds_space_packets(
&mut buffer,
valid_packet_ids.as_slice(),
&mut tc_cacher,
&mut next_write_idx,
);
assert!(parse_result.is_ok());
let parsed_packets = parse_result.unwrap();
assert_eq!(parsed_packets, 1);
assert_eq!(tc_cacher.tc_queue.len(), 1);
assert_eq!(
tc_cacher.tc_queue.pop_front().unwrap(),
buffer[..packet_len]
);
}
#[test]
fn test_multi_packet() {
let mut sph = SpHeader::tc_unseg(TEST_APID_0, 0, 0).unwrap();
let ping_tc = PusTcCreator::new_simple(&mut sph, 17, 1, None, true);
let action_tc = PusTcCreator::new_simple(&mut sph, 8, 0, None, true);
let mut buffer: [u8; 32] = [0; 32];
let packet_len_ping = ping_tc
.write_to_bytes(&mut buffer)
.expect("writing packet failed");
let packet_len_action = action_tc
.write_to_bytes(&mut buffer[packet_len_ping..])
.expect("writing packet failed");
let valid_packet_ids = [TEST_PACKET_ID_0];
let mut tc_cacher = TcCacher::default();
let mut next_write_idx = 0;
let parse_result = parse_buffer_for_ccsds_space_packets(
&mut buffer,
valid_packet_ids.as_slice(),
&mut tc_cacher,
&mut next_write_idx,
);
assert!(parse_result.is_ok());
let parsed_packets = parse_result.unwrap();
assert_eq!(parsed_packets, 2);
assert_eq!(tc_cacher.tc_queue.len(), 2);
assert_eq!(
tc_cacher.tc_queue.pop_front().unwrap(),
buffer[..packet_len_ping]
);
assert_eq!(
tc_cacher.tc_queue.pop_front().unwrap(),
buffer[packet_len_ping..packet_len_ping + packet_len_action]
);
}
#[test]
fn test_multi_apid() {
let mut sph = SpHeader::tc_unseg(TEST_APID_0, 0, 0).unwrap();
let ping_tc = PusTcCreator::new_simple(&mut sph, 17, 1, None, true);
sph = SpHeader::tc_unseg(TEST_APID_1, 0, 0).unwrap();
let action_tc = PusTcCreator::new_simple(&mut sph, 8, 0, None, true);
let mut buffer: [u8; 32] = [0; 32];
let packet_len_ping = ping_tc
.write_to_bytes(&mut buffer)
.expect("writing packet failed");
let packet_len_action = action_tc
.write_to_bytes(&mut buffer[packet_len_ping..])
.expect("writing packet failed");
let valid_packet_ids = [TEST_PACKET_ID_0, TEST_PACKET_ID_1];
let mut tc_cacher = TcCacher::default();
let mut next_write_idx = 0;
let parse_result = parse_buffer_for_ccsds_space_packets(
&mut buffer,
valid_packet_ids.as_slice(),
&mut tc_cacher,
&mut next_write_idx,
);
assert!(parse_result.is_ok());
let parsed_packets = parse_result.unwrap();
assert_eq!(parsed_packets, 2);
assert_eq!(tc_cacher.tc_queue.len(), 2);
assert_eq!(
tc_cacher.tc_queue.pop_front().unwrap(),
buffer[..packet_len_ping]
);
assert_eq!(
tc_cacher.tc_queue.pop_front().unwrap(),
buffer[packet_len_ping..packet_len_ping + packet_len_action]
);
}
#[test]
fn test_split_packet_multi() {
let mut sph = SpHeader::tc_unseg(TEST_APID_0, 0, 0).unwrap();
let ping_tc = PusTcCreator::new_simple(&mut sph, 17, 1, None, true);
sph = SpHeader::tc_unseg(TEST_APID_1, 0, 0).unwrap();
let action_tc = PusTcCreator::new_simple(&mut sph, 8, 0, None, true);
let mut buffer: [u8; 32] = [0; 32];
let packet_len_ping = ping_tc
.write_to_bytes(&mut buffer)
.expect("writing packet failed");
let packet_len_action = action_tc
.write_to_bytes(&mut buffer[packet_len_ping..])
.expect("writing packet failed");
let valid_packet_ids = [TEST_PACKET_ID_0, TEST_PACKET_ID_1];
let mut tc_cacher = TcCacher::default();
let mut next_write_idx = 0;
let parse_result = parse_buffer_for_ccsds_space_packets(
&mut buffer[..packet_len_ping + packet_len_action - 4],
valid_packet_ids.as_slice(),
&mut tc_cacher,
&mut next_write_idx,
);
assert!(parse_result.is_ok());
let parsed_packets = parse_result.unwrap();
assert_eq!(parsed_packets, 1);
assert_eq!(tc_cacher.tc_queue.len(), 1);
// The broken packet was moved to the start, so the next write index should be after the
// last segment missing 4 bytes.
assert_eq!(next_write_idx, packet_len_action - 4);
}
#[test]
fn test_one_split_packet() {
let mut sph = SpHeader::tc_unseg(TEST_APID_0, 0, 0).unwrap();
let ping_tc = PusTcCreator::new_simple(&mut sph, 17, 1, None, true);
let mut buffer: [u8; 32] = [0; 32];
let packet_len_ping = ping_tc
.write_to_bytes(&mut buffer)
.expect("writing packet failed");
let valid_packet_ids = [TEST_PACKET_ID_0, TEST_PACKET_ID_1];
let mut tc_cacher = TcCacher::default();
let mut next_write_idx = 0;
let parse_result = parse_buffer_for_ccsds_space_packets(
&mut buffer[..packet_len_ping - 4],
valid_packet_ids.as_slice(),
&mut tc_cacher,
&mut next_write_idx,
);
assert_eq!(next_write_idx, 0);
assert!(parse_result.is_ok());
let parsed_packets = parse_result.unwrap();
assert_eq!(parsed_packets, 0);
assert_eq!(tc_cacher.tc_queue.len(), 0);
}
}

View File

@ -1,4 +1,4 @@
use crate::{tmtc::PacketSenderRaw, ComponentId};
use crate::tmtc::ReceivesTcCore;
use cobs::{decode_in_place, encode, max_encoding_length};
/// This function encodes the given packet with COBS and also wraps the encoded packet with
@ -13,7 +13,7 @@ use cobs::{decode_in_place, encode, max_encoding_length};
///
/// ```
/// use cobs::decode_in_place_report;
/// use satrs::encoding::{encode_packet_with_cobs};
/// use satrs_core::encoding::{encode_packet_with_cobs};
//
/// const SIMPLE_PACKET: [u8; 5] = [1, 2, 3, 4, 5];
/// const INVERTED_PACKET: [u8; 5] = [5, 4, 3, 2, 1];
@ -55,12 +55,11 @@ pub fn encode_packet_with_cobs(
/// future write operations will be written to the `next_write_idx` argument.
///
/// The parser will write all packets which were decoded successfully to the given `tc_receiver`.
pub fn parse_buffer_for_cobs_encoded_packets<SendError>(
pub fn parse_buffer_for_cobs_encoded_packets<E>(
buf: &mut [u8],
sender_id: ComponentId,
packet_sender: &(impl PacketSenderRaw<Error = SendError> + ?Sized),
tc_receiver: &mut dyn ReceivesTcCore<Error = E>,
next_write_idx: &mut usize,
) -> Result<u32, SendError> {
) -> Result<u32, E> {
let mut start_index_packet = 0;
let mut start_found = false;
let mut last_byte = false;
@ -79,10 +78,8 @@ pub fn parse_buffer_for_cobs_encoded_packets<SendError>(
let decode_result = decode_in_place(&mut buf[start_index_packet..i]);
if let Ok(packet_len) = decode_result {
packets_found += 1;
packet_sender.send_packet(
sender_id,
&buf[start_index_packet..start_index_packet + packet_len],
)?;
tc_receiver
.pass_tc(&buf[start_index_packet..start_index_packet + packet_len])?;
}
start_found = false;
} else {
@ -103,39 +100,32 @@ pub fn parse_buffer_for_cobs_encoded_packets<SendError>(
pub(crate) mod tests {
use cobs::encode;
use crate::{
encoding::tests::{encode_simple_packet, TcCacher, INVERTED_PACKET, SIMPLE_PACKET},
ComponentId,
};
use crate::encoding::tests::{encode_simple_packet, TcCacher, INVERTED_PACKET, SIMPLE_PACKET};
use super::parse_buffer_for_cobs_encoded_packets;
const PARSER_ID: ComponentId = 0x05;
#[test]
fn test_parsing_simple_packet() {
let test_sender = TcCacher::default();
let mut test_sender = TcCacher::default();
let mut encoded_buf: [u8; 16] = [0; 16];
let mut current_idx = 0;
encode_simple_packet(&mut encoded_buf, &mut current_idx);
let mut next_read_idx = 0;
let packets = parse_buffer_for_cobs_encoded_packets(
&mut encoded_buf[0..current_idx],
PARSER_ID,
&test_sender,
&mut test_sender,
&mut next_read_idx,
)
.unwrap();
assert_eq!(packets, 1);
let queue = test_sender.tc_queue.borrow();
assert_eq!(queue.len(), 1);
let packet = &queue[0];
assert_eq!(packet.packet, &SIMPLE_PACKET);
assert_eq!(test_sender.tc_queue.len(), 1);
let packet = &test_sender.tc_queue[0];
assert_eq!(packet, &SIMPLE_PACKET);
}
#[test]
fn test_parsing_consecutive_packets() {
let test_sender = TcCacher::default();
let mut test_sender = TcCacher::default();
let mut encoded_buf: [u8; 16] = [0; 16];
let mut current_idx = 0;
encode_simple_packet(&mut encoded_buf, &mut current_idx);
@ -149,23 +139,21 @@ pub(crate) mod tests {
let mut next_read_idx = 0;
let packets = parse_buffer_for_cobs_encoded_packets(
&mut encoded_buf[0..current_idx],
PARSER_ID,
&test_sender,
&mut test_sender,
&mut next_read_idx,
)
.unwrap();
assert_eq!(packets, 2);
let queue = test_sender.tc_queue.borrow();
assert_eq!(queue.len(), 2);
let packet0 = &queue[0];
assert_eq!(packet0.packet, &SIMPLE_PACKET);
let packet1 = &queue[1];
assert_eq!(packet1.packet, &INVERTED_PACKET);
assert_eq!(test_sender.tc_queue.len(), 2);
let packet0 = &test_sender.tc_queue[0];
assert_eq!(packet0, &SIMPLE_PACKET);
let packet1 = &test_sender.tc_queue[1];
assert_eq!(packet1, &INVERTED_PACKET);
}
#[test]
fn test_split_tail_packet_only() {
let test_sender = TcCacher::default();
let mut test_sender = TcCacher::default();
let mut encoded_buf: [u8; 16] = [0; 16];
let mut current_idx = 0;
encode_simple_packet(&mut encoded_buf, &mut current_idx);
@ -173,19 +161,17 @@ pub(crate) mod tests {
let packets = parse_buffer_for_cobs_encoded_packets(
// Cut off the sentinel byte at the end.
&mut encoded_buf[0..current_idx - 1],
PARSER_ID,
&test_sender,
&mut test_sender,
&mut next_read_idx,
)
.unwrap();
assert_eq!(packets, 0);
let queue = test_sender.tc_queue.borrow();
assert_eq!(queue.len(), 0);
assert_eq!(test_sender.tc_queue.len(), 0);
assert_eq!(next_read_idx, 0);
}
fn generic_test_split_packet(cut_off: usize) {
let test_sender = TcCacher::default();
let mut test_sender = TcCacher::default();
let mut encoded_buf: [u8; 16] = [0; 16];
assert!(cut_off < INVERTED_PACKET.len() + 1);
let mut current_idx = 0;
@ -207,15 +193,13 @@ pub(crate) mod tests {
let packets = parse_buffer_for_cobs_encoded_packets(
// Cut off the sentinel byte at the end.
&mut encoded_buf[0..current_idx - cut_off],
PARSER_ID,
&test_sender,
&mut test_sender,
&mut next_write_idx,
)
.unwrap();
assert_eq!(packets, 1);
let queue = test_sender.tc_queue.borrow();
assert_eq!(queue.len(), 1);
assert_eq!(&queue[0].packet, &SIMPLE_PACKET);
assert_eq!(test_sender.tc_queue.len(), 1);
assert_eq!(&test_sender.tc_queue[0], &SIMPLE_PACKET);
assert_eq!(next_write_idx, next_expected_write_idx);
assert_eq!(encoded_buf[..next_expected_write_idx], expected_at_start);
}
@ -237,7 +221,7 @@ pub(crate) mod tests {
#[test]
fn test_zero_at_end() {
let test_sender = TcCacher::default();
let mut test_sender = TcCacher::default();
let mut encoded_buf: [u8; 16] = [0; 16];
let mut next_write_idx = 0;
let mut current_idx = 0;
@ -249,35 +233,31 @@ pub(crate) mod tests {
let packets = parse_buffer_for_cobs_encoded_packets(
// Cut off the sentinel byte at the end.
&mut encoded_buf[0..current_idx],
PARSER_ID,
&test_sender,
&mut test_sender,
&mut next_write_idx,
)
.unwrap();
assert_eq!(packets, 1);
let queue = test_sender.tc_queue.borrow_mut();
assert_eq!(queue.len(), 1);
assert_eq!(&queue[0].packet, &SIMPLE_PACKET);
assert_eq!(test_sender.tc_queue.len(), 1);
assert_eq!(&test_sender.tc_queue[0], &SIMPLE_PACKET);
assert_eq!(next_write_idx, 1);
assert_eq!(encoded_buf[0], 0);
}
#[test]
fn test_all_zeroes() {
let test_sender = TcCacher::default();
let mut test_sender = TcCacher::default();
let mut all_zeroes: [u8; 5] = [0; 5];
let mut next_write_idx = 0;
let packets = parse_buffer_for_cobs_encoded_packets(
// Cut off the sentinel byte at the end.
&mut all_zeroes,
PARSER_ID,
&test_sender,
&mut test_sender,
&mut next_write_idx,
)
.unwrap();
assert_eq!(packets, 0);
let queue = test_sender.tc_queue.borrow();
assert!(queue.is_empty());
assert!(test_sender.tc_queue.is_empty());
assert_eq!(next_write_idx, 0);
}
}

View File

@ -6,14 +6,9 @@ pub use crate::encoding::cobs::{encode_packet_with_cobs, parse_buffer_for_cobs_e
#[cfg(test)]
pub(crate) mod tests {
use core::cell::RefCell;
use alloc::{collections::VecDeque, vec::Vec};
use alloc::collections::VecDeque;
use crate::{
tmtc::{PacketAsVec, PacketSenderRaw},
ComponentId,
};
use crate::tmtc::ReceivesTcCore;
use super::cobs::encode_packet_with_cobs;
@ -22,15 +17,14 @@ pub(crate) mod tests {
#[derive(Default)]
pub(crate) struct TcCacher {
pub(crate) tc_queue: RefCell<VecDeque<PacketAsVec>>,
pub(crate) tc_queue: VecDeque<Vec<u8>>,
}
impl PacketSenderRaw for TcCacher {
impl ReceivesTcCore for TcCacher {
type Error = ();
fn send_packet(&self, sender_id: ComponentId, tc_raw: &[u8]) -> Result<(), Self::Error> {
let mut mut_queue = self.tc_queue.borrow_mut();
mut_queue.push_back(PacketAsVec::new(sender_id, tc_raw.to_vec()));
fn pass_tc(&mut self, tc_raw: &[u8]) -> Result<(), Self::Error> {
self.tc_queue.push_back(tc_raw.to_vec());
Ok(())
}
}

710
satrs-core/src/event_man.rs Normal file
View File

@ -0,0 +1,710 @@
//! Event management and forwarding
//!
//! This module provides components to perform event routing. The most important component for this
//! task is the [EventManager]. It receives all events and then routes them to event subscribers
//! where appropriate. One common use case for satellite systems is to offer a light-weight
//! publish-subscribe mechanism and IPC mechanism for software and hardware events which are also
//! packaged as telemetry (TM) or can trigger a system response.
//!
//! It is recommended to read the
//! [sat-rs book chapter](https://absatsw.irs.uni-stuttgart.de/projects/sat-rs/book/events.html)
//! about events first:
//!
//! The event manager has a listener table abstracted by the [ListenerTable], which maps
//! listener groups identified by [ListenerKey]s to a [sender ID][ChannelId].
//! It also contains a sender table abstracted by the [SenderTable] which maps these sender IDs
//! to a concrete [SendEventProvider]s. A simple approach would be to use one send event provider
//! for each OBSW thread and then subscribe for all interesting events for a particular thread
//! using the send event provider ID.
//!
//! This can be done with the [EventManager] like this:
//!
//! 1. Provide a concrete [EventReceiver] implementation. This abstraction allow to use different
//! message queue backends. A straightforward implementation where dynamic memory allocation is
//! not a big concern could use [std::sync::mpsc::channel] to do this and is provided in
//! form of the [MpscEventReceiver].
//! 2. To set up event creators, create channel pairs using some message queue implementation.
//! Each event creator gets a (cloned) sender component which allows it to send events to the
//! manager.
//! 3. The event manager receives the receiver component as part of a [EventReceiver]
//! implementation so all events are routed to the manager.
//! 4. Create the [send event providers][SendEventProvider]s which allow routing events to
//! subscribers. You can now use their [sender IDs][SendEventProvider::id] to subscribe for
//! event groups, for example by using the [EventManager::subscribe_single] method.
//! 5. Add the send provider as well using the [EventManager::add_sender] call so the event
//! manager can route listener groups to a the send provider.
//!
//! Some components like a PUS Event Service or PUS Event Action Service might require all
//! events to package them as telemetry or start actions where applicable.
//! Other components might only be interested in certain events. For example, a thermal system
//! handler might only be interested in temperature events generated by a thermal sensor component.
//!
//! # Examples
//!
//! You can check [integration test](https://egit.irs.uni-stuttgart.de/rust/sat-rs/src/branch/main/satrs-core/tests/pus_events.rs)
//! for a concrete example using multi-threading where events are routed to
//! different threads.
use crate::events::{EventU16, EventU32, GenericEvent, LargestEventRaw, LargestGroupIdRaw};
use crate::params::{Params, ParamsHeapless};
#[cfg(feature = "alloc")]
use alloc::boxed::Box;
#[cfg(feature = "alloc")]
use alloc::vec;
#[cfg(feature = "alloc")]
use alloc::vec::Vec;
use core::slice::Iter;
#[cfg(feature = "alloc")]
use hashbrown::HashMap;
use crate::ChannelId;
#[cfg(feature = "std")]
pub use stdmod::*;
#[derive(PartialEq, Eq, Hash, Copy, Clone, Debug)]
pub enum ListenerKey {
Single(LargestEventRaw),
Group(LargestGroupIdRaw),
All,
}
pub type EventWithHeaplessAuxData<Event> = (Event, Option<ParamsHeapless>);
pub type EventU32WithHeaplessAuxData = EventWithHeaplessAuxData<EventU32>;
pub type EventU16WithHeaplessAuxData = EventWithHeaplessAuxData<EventU16>;
pub type EventWithAuxData<Event> = (Event, Option<Params>);
pub type EventU32WithAuxData = EventWithAuxData<EventU32>;
pub type EventU16WithAuxData = EventWithAuxData<EventU16>;
pub trait SendEventProvider<Provider: GenericEvent, AuxDataProvider = Params> {
type Error;
fn id(&self) -> ChannelId;
fn send_no_data(&self, event: Provider) -> Result<(), Self::Error> {
self.send(event, None)
}
fn send(&self, event: Provider, aux_data: Option<AuxDataProvider>) -> Result<(), Self::Error>;
}
/// Generic abstraction for an event receiver.
pub trait EventReceiver<Event: GenericEvent, AuxDataProvider = Params> {
/// This function has to be provided by any event receiver. A receive call may or may not return
/// an event.
///
/// To allow returning arbitrary additional auxiliary data, a mutable slice is passed to the
/// [Self::receive] call as well. Receivers can write data to this slice, but care must be taken
/// to avoid panics due to size missmatches or out of bound writes.
fn receive(&self) -> Option<(Event, Option<AuxDataProvider>)>;
}
pub trait ListenerTable {
fn get_listeners(&self) -> Vec<ListenerKey>;
fn contains_listener(&self, key: &ListenerKey) -> bool;
fn get_listener_ids(&self, key: &ListenerKey) -> Option<Iter<ChannelId>>;
fn add_listener(&mut self, key: ListenerKey, sender_id: ChannelId) -> bool;
fn remove_duplicates(&mut self, key: &ListenerKey);
}
pub trait SenderTable<SendProviderError, Event: GenericEvent = EventU32, AuxDataProvider = Params> {
fn contains_send_event_provider(&self, id: &ChannelId) -> bool;
fn get_send_event_provider(
&self,
id: &ChannelId,
) -> Option<&dyn SendEventProvider<Event, AuxDataProvider, Error = SendProviderError>>;
fn add_send_event_provider(
&mut self,
send_provider: Box<
dyn SendEventProvider<Event, AuxDataProvider, Error = SendProviderError>,
>,
) -> bool;
}
/// Generic event manager implementation.
///
/// # Generics
///
/// * `SendProviderError`: [SendEventProvider] error type
/// * `Event`: Concrete event provider, currently either [EventU32] or [EventU16]
/// * `AuxDataProvider`: Concrete auxiliary data provider, currently either [Params] or
/// [ParamsHeapless]
pub struct EventManager<SendProviderError, Event: GenericEvent = EventU32, AuxDataProvider = Params>
{
listener_table: Box<dyn ListenerTable>,
sender_table: Box<dyn SenderTable<SendProviderError, Event, AuxDataProvider>>,
event_receiver: Box<dyn EventReceiver<Event, AuxDataProvider>>,
}
/// Safety: It is safe to implement [Send] because all fields in the [EventManager] are [Send]
/// as well
#[cfg(feature = "std")]
unsafe impl<E, Event: GenericEvent + Send, AuxDataProvider: Send> Send
for EventManager<E, Event, AuxDataProvider>
{
}
#[cfg(feature = "std")]
pub type EventManagerWithMpscQueue<Event, AuxDataProvider> = EventManager<
std::sync::mpsc::SendError<(Event, Option<AuxDataProvider>)>,
Event,
AuxDataProvider,
>;
#[derive(Debug)]
pub enum EventRoutingResult<Event: GenericEvent, AuxDataProvider> {
/// No event was received
Empty,
/// An event was received and routed.
/// The first tuple entry will contain the number of recipients.
Handled(u32, Event, Option<AuxDataProvider>),
}
#[derive(Debug)]
pub enum EventRoutingError<E> {
SendError(E),
NoSendersForKey(ListenerKey),
NoSenderForId(ChannelId),
}
#[derive(Debug)]
pub struct EventRoutingErrorsWithResult<Event: GenericEvent, AuxDataProvider, E> {
pub result: EventRoutingResult<Event, AuxDataProvider>,
pub errors: [Option<EventRoutingError<E>>; 3],
}
impl<E, Event: GenericEvent + Copy> EventManager<E, Event> {
pub fn remove_duplicates(&mut self, key: &ListenerKey) {
self.listener_table.remove_duplicates(key)
}
/// Subscribe for a unique event.
pub fn subscribe_single(&mut self, event: &Event, sender_id: ChannelId) {
self.update_listeners(ListenerKey::Single(event.raw_as_largest_type()), sender_id);
}
/// Subscribe for an event group.
pub fn subscribe_group(&mut self, group_id: LargestGroupIdRaw, sender_id: ChannelId) {
self.update_listeners(ListenerKey::Group(group_id), sender_id);
}
/// Subscribe for all events received by the manager.
///
/// For example, this can be useful for a handler component which sends every event as
/// a telemetry packet.
pub fn subscribe_all(&mut self, sender_id: ChannelId) {
self.update_listeners(ListenerKey::All, sender_id);
}
}
impl<E: 'static, Event: GenericEvent + Copy + 'static, AuxDataProvider: Clone + 'static>
EventManager<E, Event, AuxDataProvider>
{
/// Create an event manager where the sender table will be the [DefaultSenderTableProvider]
/// and the listener table will be the [DefaultListenerTableProvider].
pub fn new(event_receiver: Box<dyn EventReceiver<Event, AuxDataProvider>>) -> Self {
let listener_table: Box<DefaultListenerTableProvider> = Box::default();
let sender_table: Box<DefaultSenderTableProvider<E, Event, AuxDataProvider>> =
Box::default();
Self::new_custom_tables(listener_table, sender_table, event_receiver)
}
}
impl<E, Event: GenericEvent + Copy, AuxDataProvider: Clone>
EventManager<E, Event, AuxDataProvider>
{
pub fn new_custom_tables(
listener_table: Box<dyn ListenerTable>,
sender_table: Box<dyn SenderTable<E, Event, AuxDataProvider>>,
event_receiver: Box<dyn EventReceiver<Event, AuxDataProvider>>,
) -> Self {
EventManager {
listener_table,
sender_table,
event_receiver,
}
}
pub fn add_sender(
&mut self,
send_provider: impl SendEventProvider<Event, AuxDataProvider, Error = E> + 'static,
) {
if !self
.sender_table
.contains_send_event_provider(&send_provider.id())
{
self.sender_table
.add_send_event_provider(Box::new(send_provider));
}
}
fn update_listeners(&mut self, key: ListenerKey, sender_id: ChannelId) {
self.listener_table.add_listener(key, sender_id);
}
/// This function will use the cached event receiver and try to receive one event.
/// If an event was received, it will try to route that event to all subscribed event listeners.
/// If this works without any issues, the [EventRoutingResult] will contain context information
/// about the routed event.
///
/// This function will track up to 3 errors returned as part of the
/// [EventRoutingErrorsWithResult] error struct.
pub fn try_event_handling(
&self,
) -> Result<
EventRoutingResult<Event, AuxDataProvider>,
EventRoutingErrorsWithResult<Event, AuxDataProvider, E>,
> {
let mut err_idx = 0;
let mut err_slice = [None, None, None];
let mut num_recipients = 0;
let mut add_error = |error: EventRoutingError<E>| {
if err_idx < 3 {
err_slice[err_idx] = Some(error);
err_idx += 1;
}
};
let mut send_handler =
|key: &ListenerKey, event: Event, aux_data: &Option<AuxDataProvider>| {
if self.listener_table.contains_listener(key) {
if let Some(ids) = self.listener_table.get_listener_ids(key) {
for id in ids {
if let Some(sender) = self.sender_table.get_send_event_provider(id) {
if let Err(e) = sender.send(event, aux_data.clone()) {
add_error(EventRoutingError::SendError(e));
} else {
num_recipients += 1;
}
} else {
add_error(EventRoutingError::NoSenderForId(*id));
}
}
} else {
add_error(EventRoutingError::NoSendersForKey(*key));
}
}
};
if let Some((event, aux_data)) = self.event_receiver.receive() {
let single_key = ListenerKey::Single(event.raw_as_largest_type());
send_handler(&single_key, event, &aux_data);
let group_key = ListenerKey::Group(event.group_id_as_largest_type());
send_handler(&group_key, event, &aux_data);
send_handler(&ListenerKey::All, event, &aux_data);
if err_idx > 0 {
return Err(EventRoutingErrorsWithResult {
result: EventRoutingResult::Handled(num_recipients, event, aux_data),
errors: err_slice,
});
}
return Ok(EventRoutingResult::Handled(num_recipients, event, aux_data));
}
Ok(EventRoutingResult::Empty)
}
}
#[derive(Default)]
pub struct DefaultListenerTableProvider {
listeners: HashMap<ListenerKey, Vec<ChannelId>>,
}
pub struct DefaultSenderTableProvider<
SendProviderError,
Event: GenericEvent = EventU32,
AuxDataProvider = Params,
> {
senders: HashMap<
ChannelId,
Box<dyn SendEventProvider<Event, AuxDataProvider, Error = SendProviderError>>,
>,
}
impl<SendProviderError, Event: GenericEvent, AuxDataProvider> Default
for DefaultSenderTableProvider<SendProviderError, Event, AuxDataProvider>
{
fn default() -> Self {
Self {
senders: HashMap::new(),
}
}
}
impl ListenerTable for DefaultListenerTableProvider {
fn get_listeners(&self) -> Vec<ListenerKey> {
let mut key_list = Vec::new();
for key in self.listeners.keys() {
key_list.push(*key);
}
key_list
}
fn contains_listener(&self, key: &ListenerKey) -> bool {
self.listeners.contains_key(key)
}
fn get_listener_ids(&self, key: &ListenerKey) -> Option<Iter<ChannelId>> {
self.listeners.get(key).map(|vec| vec.iter())
}
fn add_listener(&mut self, key: ListenerKey, sender_id: ChannelId) -> bool {
if let Some(existing_list) = self.listeners.get_mut(&key) {
existing_list.push(sender_id);
} else {
let new_list = vec![sender_id];
self.listeners.insert(key, new_list);
}
true
}
fn remove_duplicates(&mut self, key: &ListenerKey) {
if let Some(list) = self.listeners.get_mut(key) {
list.sort_unstable();
list.dedup();
}
}
}
impl<SendProviderError, Event: GenericEvent, AuxDataProvider>
SenderTable<SendProviderError, Event, AuxDataProvider>
for DefaultSenderTableProvider<SendProviderError, Event, AuxDataProvider>
{
fn contains_send_event_provider(&self, id: &ChannelId) -> bool {
self.senders.contains_key(id)
}
fn get_send_event_provider(
&self,
id: &ChannelId,
) -> Option<&dyn SendEventProvider<Event, AuxDataProvider, Error = SendProviderError>> {
self.senders
.get(id)
.filter(|sender| sender.id() == *id)
.map(|v| v.as_ref())
}
fn add_send_event_provider(
&mut self,
send_provider: Box<
dyn SendEventProvider<Event, AuxDataProvider, Error = SendProviderError>,
>,
) -> bool {
let id = send_provider.id();
if self.senders.contains_key(&id) {
return false;
}
self.senders.insert(id, send_provider).is_none()
}
}
#[cfg(feature = "std")]
pub mod stdmod {
use super::*;
use crate::event_man::{EventReceiver, EventWithAuxData};
use crate::events::{EventU16, EventU32, GenericEvent};
use crate::params::Params;
use std::sync::mpsc::{Receiver, SendError, Sender};
pub struct MpscEventReceiver<Event: GenericEvent + Send = EventU32> {
mpsc_receiver: Receiver<(Event, Option<Params>)>,
}
impl<Event: GenericEvent + Send> MpscEventReceiver<Event> {
pub fn new(receiver: Receiver<(Event, Option<Params>)>) -> Self {
Self {
mpsc_receiver: receiver,
}
}
}
impl<Event: GenericEvent + Send> EventReceiver<Event> for MpscEventReceiver<Event> {
fn receive(&self) -> Option<EventWithAuxData<Event>> {
if let Ok(event_and_data) = self.mpsc_receiver.try_recv() {
return Some(event_and_data);
}
None
}
}
pub type MpscEventU32Receiver = MpscEventReceiver<EventU32>;
pub type MpscEventU16Receiver = MpscEventReceiver<EventU16>;
#[derive(Clone)]
pub struct MpscEventSendProvider<Event: GenericEvent + Send> {
id: u32,
sender: Sender<(Event, Option<Params>)>,
}
impl<Event: GenericEvent + Send> MpscEventSendProvider<Event> {
pub fn new(id: u32, sender: Sender<(Event, Option<Params>)>) -> Self {
Self { id, sender }
}
}
impl<Event: GenericEvent + Send> SendEventProvider<Event> for MpscEventSendProvider<Event> {
type Error = SendError<(Event, Option<Params>)>;
fn id(&self) -> u32 {
self.id
}
fn send(&self, event: Event, aux_data: Option<Params>) -> Result<(), Self::Error> {
self.sender.send((event, aux_data))
}
}
pub type MpscEventU32SendProvider = MpscEventSendProvider<EventU32>;
pub type MpscEventU16SendProvider = MpscEventSendProvider<EventU16>;
}
#[cfg(test)]
mod tests {
use super::*;
use crate::event_man::EventManager;
use crate::events::{EventU32, GenericEvent, Severity};
use crate::params::ParamsRaw;
use alloc::boxed::Box;
use std::format;
use std::sync::mpsc::{channel, Receiver, SendError, Sender};
#[derive(Clone)]
struct MpscEventSenderQueue {
id: u32,
mpsc_sender: Sender<EventU32WithAuxData>,
}
impl MpscEventSenderQueue {
fn new(id: u32, mpsc_sender: Sender<EventU32WithAuxData>) -> Self {
Self { id, mpsc_sender }
}
}
impl SendEventProvider<EventU32> for MpscEventSenderQueue {
type Error = SendError<EventU32WithAuxData>;
fn id(&self) -> u32 {
self.id
}
fn send(&self, event: EventU32, aux_data: Option<Params>) -> Result<(), Self::Error> {
self.mpsc_sender.send((event, aux_data))
}
}
fn check_next_event(
expected: EventU32,
receiver: &Receiver<EventU32WithAuxData>,
) -> Option<Params> {
if let Ok(event) = receiver.try_recv() {
assert_eq!(event.0, expected);
return event.1;
}
None
}
fn check_handled_event(
res: EventRoutingResult<EventU32, Params>,
expected: EventU32,
expected_num_sent: u32,
) {
assert!(matches!(res, EventRoutingResult::Handled { .. }));
if let EventRoutingResult::Handled(num_recipients, event, _aux_data) = res {
assert_eq!(event, expected);
assert_eq!(num_recipients, expected_num_sent);
}
}
fn generic_event_man() -> (
Sender<EventU32WithAuxData>,
EventManager<SendError<EventU32WithAuxData>>,
) {
let (event_sender, manager_queue) = channel();
let event_man_receiver = MpscEventReceiver::new(manager_queue);
(
event_sender,
EventManager::new(Box::new(event_man_receiver)),
)
}
#[test]
fn test_basic() {
let (event_sender, mut event_man) = generic_event_man();
let event_grp_0 = EventU32::new(Severity::INFO, 0, 0).unwrap();
let event_grp_1_0 = EventU32::new(Severity::HIGH, 1, 0).unwrap();
let (single_event_sender, single_event_receiver) = channel();
let single_event_listener = MpscEventSenderQueue::new(0, single_event_sender);
event_man.subscribe_single(&event_grp_0, single_event_listener.id());
event_man.add_sender(single_event_listener);
let (group_event_sender_0, group_event_receiver_0) = channel();
let group_event_listener = MpscEventSenderQueue {
id: 1,
mpsc_sender: group_event_sender_0,
};
event_man.subscribe_group(event_grp_1_0.group_id(), group_event_listener.id());
event_man.add_sender(group_event_listener);
// Test event with one listener
event_sender
.send((event_grp_0, None))
.expect("Sending single error failed");
let res = event_man.try_event_handling();
assert!(res.is_ok());
check_handled_event(res.unwrap(), event_grp_0, 1);
check_next_event(event_grp_0, &single_event_receiver);
// Test event which is sent to all group listeners
event_sender
.send((event_grp_1_0, None))
.expect("Sending group error failed");
let res = event_man.try_event_handling();
assert!(res.is_ok());
check_handled_event(res.unwrap(), event_grp_1_0, 1);
check_next_event(event_grp_1_0, &group_event_receiver_0);
}
#[test]
fn test_with_basic_aux_data() {
let (event_sender, mut event_man) = generic_event_man();
let event_grp_0 = EventU32::new(Severity::INFO, 0, 0).unwrap();
let (single_event_sender, single_event_receiver) = channel();
let single_event_listener = MpscEventSenderQueue::new(0, single_event_sender);
event_man.subscribe_single(&event_grp_0, single_event_listener.id());
event_man.add_sender(single_event_listener);
event_sender
.send((event_grp_0, Some(Params::Heapless((2_u32, 3_u32).into()))))
.expect("Sending group error failed");
let res = event_man.try_event_handling();
assert!(res.is_ok());
check_handled_event(res.unwrap(), event_grp_0, 1);
let aux = check_next_event(event_grp_0, &single_event_receiver);
assert!(aux.is_some());
let aux = aux.unwrap();
if let Params::Heapless(ParamsHeapless::Raw(ParamsRaw::U32Pair(pair))) = aux {
assert_eq!(pair.0, 2);
assert_eq!(pair.1, 3);
} else {
panic!("{}", format!("Unexpected auxiliary value type {:?}", aux));
}
}
/// Test listening for multiple groups
#[test]
fn test_multi_group() {
let (event_sender, mut event_man) = generic_event_man();
let res = event_man.try_event_handling();
assert!(res.is_ok());
let hres = res.unwrap();
assert!(matches!(hres, EventRoutingResult::Empty));
let event_grp_0 = EventU32::new(Severity::INFO, 0, 0).unwrap();
let event_grp_1_0 = EventU32::new(Severity::HIGH, 1, 0).unwrap();
let (event_grp_0_sender, event_grp_0_receiver) = channel();
let event_grp_0_and_1_listener = MpscEventSenderQueue {
id: 0,
mpsc_sender: event_grp_0_sender,
};
event_man.subscribe_group(event_grp_0.group_id(), event_grp_0_and_1_listener.id());
event_man.subscribe_group(event_grp_1_0.group_id(), event_grp_0_and_1_listener.id());
event_man.add_sender(event_grp_0_and_1_listener);
event_sender
.send((event_grp_0, None))
.expect("Sending Event Group 0 failed");
event_sender
.send((event_grp_1_0, None))
.expect("Sendign Event Group 1 failed");
let res = event_man.try_event_handling();
assert!(res.is_ok());
check_handled_event(res.unwrap(), event_grp_0, 1);
let res = event_man.try_event_handling();
assert!(res.is_ok());
check_handled_event(res.unwrap(), event_grp_1_0, 1);
check_next_event(event_grp_0, &event_grp_0_receiver);
check_next_event(event_grp_1_0, &event_grp_0_receiver);
}
/// Test listening to the same event from multiple listeners. Also test listening
/// to both group and single events from one listener
#[test]
fn test_listening_to_same_event_and_multi_type() {
let (event_sender, mut event_man) = generic_event_man();
let event_0 = EventU32::new(Severity::INFO, 0, 5).unwrap();
let event_1 = EventU32::new(Severity::HIGH, 1, 0).unwrap();
let (event_0_tx_0, event_0_rx_0) = channel();
let (event_0_tx_1, event_0_rx_1) = channel();
let event_listener_0 = MpscEventSenderQueue {
id: 0,
mpsc_sender: event_0_tx_0,
};
let event_listener_1 = MpscEventSenderQueue {
id: 1,
mpsc_sender: event_0_tx_1,
};
let event_listener_0_sender_id = event_listener_0.id();
event_man.subscribe_single(&event_0, event_listener_0_sender_id);
event_man.add_sender(event_listener_0);
let event_listener_1_sender_id = event_listener_1.id();
event_man.subscribe_single(&event_0, event_listener_1_sender_id);
event_man.add_sender(event_listener_1);
event_sender
.send((event_0, None))
.expect("Triggering Event 0 failed");
let res = event_man.try_event_handling();
assert!(res.is_ok());
check_handled_event(res.unwrap(), event_0, 2);
check_next_event(event_0, &event_0_rx_0);
check_next_event(event_0, &event_0_rx_1);
event_man.subscribe_group(event_1.group_id(), event_listener_0_sender_id);
event_sender
.send((event_0, None))
.expect("Triggering Event 0 failed");
event_sender
.send((event_1, None))
.expect("Triggering Event 1 failed");
// 3 Events messages will be sent now
let res = event_man.try_event_handling();
assert!(res.is_ok());
check_handled_event(res.unwrap(), event_0, 2);
let res = event_man.try_event_handling();
assert!(res.is_ok());
check_handled_event(res.unwrap(), event_1, 1);
// Both the single event and the group event should arrive now
check_next_event(event_0, &event_0_rx_0);
check_next_event(event_1, &event_0_rx_0);
// Do double insertion and then remove duplicates
event_man.subscribe_group(event_1.group_id(), event_listener_0_sender_id);
event_man.remove_duplicates(&ListenerKey::Group(event_1.group_id()));
event_sender
.send((event_1, None))
.expect("Triggering Event 1 failed");
let res = event_man.try_event_handling();
assert!(res.is_ok());
check_handled_event(res.unwrap(), event_1, 1);
}
#[test]
fn test_all_events_listener() {
let (event_sender, manager_queue) = channel();
let event_man_receiver = MpscEventReceiver::new(manager_queue);
let mut event_man: EventManager<SendError<EventU32WithAuxData>> =
EventManager::new(Box::new(event_man_receiver));
let event_0 = EventU32::new(Severity::INFO, 0, 5).unwrap();
let event_1 = EventU32::new(Severity::HIGH, 1, 0).unwrap();
let (event_0_tx_0, all_events_rx) = channel();
let all_events_listener = MpscEventSenderQueue {
id: 0,
mpsc_sender: event_0_tx_0,
};
event_man.subscribe_all(all_events_listener.id());
event_man.add_sender(all_events_listener);
event_sender
.send((event_0, None))
.expect("Triggering event 0 failed");
event_sender
.send((event_1, None))
.expect("Triggering event 1 failed");
let res = event_man.try_event_handling();
assert!(res.is_ok());
check_handled_event(res.unwrap(), event_0, 1);
let res = event_man.try_event_handling();
assert!(res.is_ok());
check_handled_event(res.unwrap(), event_1, 1);
check_next_event(event_0, &all_events_rx);
check_next_event(event_1, &all_events_rx);
}
}

View File

@ -18,14 +18,14 @@
//! # Examples
//!
//! ```
//! use satrs::events::{EventU16, EventU32, EventU32TypedSev, Severity, SeverityHigh, SeverityInfo};
//! use satrs_core::events::{EventU16, EventU32, EventU32TypedSev, Severity, SeverityHigh, SeverityInfo};
//!
//! const MSG_RECVD: EventU32TypedSev<SeverityInfo> = EventU32TypedSev::new(1, 0);
//! const MSG_FAILED: EventU32 = EventU32::new(Severity::Low, 1, 1);
//! const MSG_RECVD: EventU32TypedSev<SeverityInfo> = EventU32TypedSev::const_new(1, 0);
//! const MSG_FAILED: EventU32 = EventU32::const_new(Severity::LOW, 1, 1);
//!
//! const TEMPERATURE_HIGH: EventU32TypedSev<SeverityHigh> = EventU32TypedSev::new(2, 0);
//! const TEMPERATURE_HIGH: EventU32TypedSev<SeverityHigh> = EventU32TypedSev::const_new(2, 0);
//!
//! let small_event = EventU16::new(Severity::Info, 3, 0);
//! let small_event = EventU16::new(Severity::INFO, 3, 0);
//! ```
use core::fmt::Debug;
use core::hash::Hash;
@ -40,17 +40,12 @@ pub type LargestEventRaw = u32;
/// Using a type definition allows to change this to u32 in the future more easily
pub type LargestGroupIdRaw = u16;
pub const MAX_GROUP_ID_U32_EVENT: u16 = 2_u16.pow(14) - 1;
pub const MAX_GROUP_ID_U16_EVENT: u16 = 2_u16.pow(6) - 1;
#[derive(Copy, Clone, PartialEq, Eq, Debug, Hash)]
#[cfg_attr(feature = "serde", derive(serde::Serialize, serde::Deserialize))]
#[cfg_attr(feature = "defmt", derive(defmt::Format))]
pub enum Severity {
Info = 0,
Low = 1,
Medium = 2,
High = 3,
INFO = 0,
LOW = 1,
MEDIUM = 2,
HIGH = 3,
}
pub trait HasSeverity: Debug + PartialEq + Eq + Copy + Clone {
@ -61,31 +56,31 @@ pub trait HasSeverity: Debug + PartialEq + Eq + Copy + Clone {
#[derive(Debug, PartialEq, Eq, Copy, Clone)]
pub struct SeverityInfo {}
impl HasSeverity for SeverityInfo {
const SEVERITY: Severity = Severity::Info;
const SEVERITY: Severity = Severity::INFO;
}
/// Type level support struct
#[derive(Debug, PartialEq, Eq, Copy, Clone)]
pub struct SeverityLow {}
impl HasSeverity for SeverityLow {
const SEVERITY: Severity = Severity::Low;
const SEVERITY: Severity = Severity::LOW;
}
/// Type level support struct
#[derive(Debug, PartialEq, Eq, Copy, Clone)]
pub struct SeverityMedium {}
impl HasSeverity for SeverityMedium {
const SEVERITY: Severity = Severity::Medium;
const SEVERITY: Severity = Severity::MEDIUM;
}
/// Type level support struct
#[derive(Debug, PartialEq, Eq, Copy, Clone)]
pub struct SeverityHigh {}
impl HasSeverity for SeverityHigh {
const SEVERITY: Severity = Severity::High;
const SEVERITY: Severity = Severity::HIGH;
}
pub trait GenericEvent: EcssEnumeration + Copy + Clone {
pub trait GenericEvent: EcssEnumeration {
type Raw;
type GroupId;
type UniqueId;
@ -104,29 +99,27 @@ impl TryFrom<u8> for Severity {
fn try_from(value: u8) -> Result<Self, Self::Error> {
match value {
x if x == Severity::Info as u8 => Ok(Severity::Info),
x if x == Severity::Low as u8 => Ok(Severity::Low),
x if x == Severity::Medium as u8 => Ok(Severity::Medium),
x if x == Severity::High as u8 => Ok(Severity::High),
x if x == Severity::INFO as u8 => Ok(Severity::INFO),
x if x == Severity::LOW as u8 => Ok(Severity::LOW),
x if x == Severity::MEDIUM as u8 => Ok(Severity::MEDIUM),
x if x == Severity::HIGH as u8 => Ok(Severity::HIGH),
_ => Err(()),
}
}
}
#[derive(Copy, Clone, Debug, PartialEq, Eq, Hash)]
#[cfg_attr(feature = "serde", derive(serde::Serialize, serde::Deserialize))]
#[cfg_attr(feature = "defmt", derive(defmt::Format))]
struct EventBase<Raw, GroupId, UniqueId> {
struct EventBase<RAW, GID, UID> {
severity: Severity,
group_id: GroupId,
unique_id: UniqueId,
phantom: PhantomData<Raw>,
group_id: GID,
unique_id: UID,
phantom: PhantomData<RAW>,
}
impl<Raw: ToBeBytes, GroupId, UniqueId> EventBase<Raw, GroupId, UniqueId> {
impl<RAW: ToBeBytes, GID, UID> EventBase<RAW, GID, UID> {
fn write_to_bytes(
&self,
raw: Raw,
raw: RAW,
buf: &mut [u8],
width: usize,
) -> Result<usize, ByteConversionError> {
@ -274,7 +267,6 @@ macro_rules! const_from_fn {
}
#[derive(Copy, Clone, Debug, PartialEq, Eq, Hash)]
#[cfg_attr(feature = "serde", derive(serde::Serialize, serde::Deserialize))]
pub struct EventU32 {
base: EventBase<u32, u16, u16>,
}
@ -317,12 +309,12 @@ impl EventU32 {
/// next 14 bits after the severity. Therefore, the size is limited by dec 16383 hex 0x3FFF.
/// * `unique_id`: Each event has a unique 16 bit ID occupying the last 16 bits of the
/// raw event ID
pub fn new_checked(
pub fn new(
severity: Severity,
group_id: <Self as GenericEvent>::GroupId,
unique_id: <Self as GenericEvent>::UniqueId,
) -> Option<Self> {
if group_id > MAX_GROUP_ID_U32_EVENT {
if group_id > (2u16.pow(14) - 1) {
return None;
}
Some(Self {
@ -334,14 +326,12 @@ impl EventU32 {
},
})
}
/// This constructor will panic if the passed group is is larger than [MAX_GROUP_ID_U32_EVENT].
pub const fn new(
pub const fn const_new(
severity: Severity,
group_id: <Self as GenericEvent>::GroupId,
unique_id: <Self as GenericEvent>::UniqueId,
) -> Self {
if group_id > MAX_GROUP_ID_U32_EVENT {
if group_id > (2u16.pow(14) - 1) {
panic!("Group ID too large");
}
Self {
@ -354,67 +344,32 @@ impl EventU32 {
}
}
pub fn from_be_bytes(bytes: [u8; 4]) -> Self {
Self::from(u32::from_be_bytes(bytes))
}
const_from_fn!(const_from_info, EventU32TypedSev, SeverityInfo);
const_from_fn!(const_from_low, EventU32TypedSev, SeverityLow);
const_from_fn!(const_from_medium, EventU32TypedSev, SeverityMedium);
const_from_fn!(const_from_high, EventU32TypedSev, SeverityHigh);
}
impl From<u32> for EventU32 {
fn from(raw: u32) -> Self {
// Severity conversion from u8 should never fail
let severity = Severity::try_from(((raw >> 30) & 0b11) as u8).unwrap();
let group_id = ((raw >> 16) & 0x3FFF) as u16;
let unique_id = (raw & 0xFFFF) as u16;
// Sanitized input, should never fail
Self::new(severity, group_id, unique_id)
}
}
impl UnsignedEnum for EventU32 {
fn size(&self) -> usize {
core::mem::size_of::<u32>()
}
fn write_to_be_bytes(&self, buf: &mut [u8]) -> Result<usize, ByteConversionError> {
self.base.write_to_bytes(self.raw(), buf, self.size())
}
fn value(&self) -> u64 {
self.raw().into()
}
}
impl EcssEnumeration for EventU32 {
fn pfc(&self) -> u8 {
u32::BITS as u8
}
}
impl<SEVERITY: HasSeverity> EventU32TypedSev<SEVERITY> {
/// This is similar to [EventU32::new] but the severity is a type generic, which allows to
/// have distinct types for events with different severities
pub fn new_checked(
pub fn new(
group_id: <Self as GenericEvent>::GroupId,
unique_id: <Self as GenericEvent>::UniqueId,
) -> Option<Self> {
let event = EventU32::new_checked(SEVERITY::SEVERITY, group_id, unique_id)?;
let event = EventU32::new(SEVERITY::SEVERITY, group_id, unique_id)?;
Some(Self {
event,
phantom: PhantomData,
})
}
/// This constructor will panic if the `group_id` is larger than [MAX_GROUP_ID_U32_EVENT].
pub const fn new(
/// Const version of [Self::new], but panics on invalid group ID input values.
pub const fn const_new(
group_id: <Self as GenericEvent>::GroupId,
unique_id: <Self as GenericEvent>::UniqueId,
) -> Self {
let event = EventU32::new(SEVERITY::SEVERITY, group_id, unique_id);
let event = EventU32::const_new(SEVERITY::SEVERITY, group_id, unique_id);
Self {
event,
phantom: PhantomData,
@ -426,24 +381,50 @@ impl<SEVERITY: HasSeverity> EventU32TypedSev<SEVERITY> {
if severity != expected {
return Err(severity);
}
Ok(Self::new(
Ok(Self::const_new(
((raw >> 16) & 0x3FFF) as u16,
(raw & 0xFFFF) as u16,
))
}
}
try_from_impls!(SeverityInfo, Severity::Info, u32, EventU32TypedSev);
try_from_impls!(SeverityLow, Severity::Low, u32, EventU32TypedSev);
try_from_impls!(SeverityMedium, Severity::Medium, u32, EventU32TypedSev);
try_from_impls!(SeverityHigh, Severity::High, u32, EventU32TypedSev);
impl From<u32> for EventU32 {
fn from(raw: u32) -> Self {
// Severity conversion from u8 should never fail
let severity = Severity::try_from(((raw >> 30) & 0b11) as u8).unwrap();
let group_id = ((raw >> 16) & 0x3FFF) as u16;
let unique_id = (raw & 0xFFFF) as u16;
// Sanitized input, should never fail
Self::const_new(severity, group_id, unique_id)
}
}
try_from_impls!(SeverityInfo, Severity::INFO, u32, EventU32TypedSev);
try_from_impls!(SeverityLow, Severity::LOW, u32, EventU32TypedSev);
try_from_impls!(SeverityMedium, Severity::MEDIUM, u32, EventU32TypedSev);
try_from_impls!(SeverityHigh, Severity::HIGH, u32, EventU32TypedSev);
impl UnsignedEnum for EventU32 {
fn size(&self) -> usize {
core::mem::size_of::<u32>()
}
fn write_to_be_bytes(&self, buf: &mut [u8]) -> Result<usize, ByteConversionError> {
self.base.write_to_bytes(self.raw(), buf, self.size())
}
}
impl EcssEnumeration for EventU32 {
fn pfc(&self) -> u8 {
u32::BITS as u8
}
}
//noinspection RsTraitImplementation
impl<SEVERITY: HasSeverity> UnsignedEnum for EventU32TypedSev<SEVERITY> {
delegate!(to self.event {
fn size(&self) -> usize;
fn write_to_be_bytes(&self, buf: &mut [u8]) -> Result<usize, ByteConversionError>;
fn value(&self) -> u64;
});
}
@ -455,8 +436,6 @@ impl<SEVERITY: HasSeverity> EcssEnumeration for EventU32TypedSev<SEVERITY> {
}
#[derive(Copy, Clone, Debug, PartialEq, Eq, Hash)]
#[cfg_attr(feature = "serde", derive(serde::Serialize, serde::Deserialize))]
#[cfg_attr(feature = "defmt", derive(defmt::Format))]
pub struct EventU16 {
base: EventBase<u16, u8, u8>,
}
@ -491,7 +470,7 @@ impl EventU16 {
/// next 6 bits after the severity. Therefore, the size is limited by dec 63 hex 0x3F.
/// * `unique_id`: Each event has a unique 8 bit ID occupying the last 8 bits of the
/// raw event ID
pub fn new_checked(
pub fn new(
severity: Severity,
group_id: <Self as GenericEvent>::GroupId,
unique_id: <Self as GenericEvent>::UniqueId,
@ -509,8 +488,8 @@ impl EventU16 {
})
}
/// This constructor will panic if the `group_id` is larger than [MAX_GROUP_ID_U16_EVENT].
pub const fn new(
/// Const version of [Self::new], but panics on invalid group ID input values.
pub const fn const_new(
severity: Severity,
group_id: <Self as GenericEvent>::GroupId,
unique_id: <Self as GenericEvent>::UniqueId,
@ -527,66 +506,32 @@ impl EventU16 {
},
}
}
pub fn from_be_bytes(bytes: [u8; 2]) -> Self {
Self::from(u16::from_be_bytes(bytes))
}
const_from_fn!(const_from_info, EventU16TypedSev, SeverityInfo);
const_from_fn!(const_from_low, EventU16TypedSev, SeverityLow);
const_from_fn!(const_from_medium, EventU16TypedSev, SeverityMedium);
const_from_fn!(const_from_high, EventU16TypedSev, SeverityHigh);
}
impl From<u16> for EventU16 {
fn from(raw: <Self as GenericEvent>::Raw) -> Self {
let severity = Severity::try_from(((raw >> 14) & 0b11) as u8).unwrap();
let group_id = ((raw >> 8) & 0x3F) as u8;
let unique_id = (raw & 0xFF) as u8;
// Sanitized input, new call should never fail
Self::new(severity, group_id, unique_id)
}
}
impl UnsignedEnum for EventU16 {
fn size(&self) -> usize {
core::mem::size_of::<u16>()
}
fn write_to_be_bytes(&self, buf: &mut [u8]) -> Result<usize, ByteConversionError> {
self.base.write_to_bytes(self.raw(), buf, self.size())
}
fn value(&self) -> u64 {
self.raw().into()
}
}
impl EcssEnumeration for EventU16 {
#[inline]
fn pfc(&self) -> u8 {
u16::BITS as u8
}
}
impl<SEVERITY: HasSeverity> EventU16TypedSev<SEVERITY> {
/// This is similar to [EventU16::new] but the severity is a type generic, which allows to
/// have distinct types for events with different severities
pub fn new_checked(
pub fn new(
group_id: <Self as GenericEvent>::GroupId,
unique_id: <Self as GenericEvent>::UniqueId,
) -> Option<Self> {
let event = EventU16::new_checked(SEVERITY::SEVERITY, group_id, unique_id)?;
let event = EventU16::new(SEVERITY::SEVERITY, group_id, unique_id)?;
Some(Self {
event,
phantom: PhantomData,
})
}
/// This constructor will panic if the `group_id` is larger than [MAX_GROUP_ID_U16_EVENT].
pub const fn new(
/// Const version of [Self::new], but panics on invalid group ID input values.
pub const fn const_new(
group_id: <Self as GenericEvent>::GroupId,
unique_id: <Self as GenericEvent>::UniqueId,
) -> Self {
let event = EventU16::new(SEVERITY::SEVERITY, group_id, unique_id);
let event = EventU16::const_new(SEVERITY::SEVERITY, group_id, unique_id);
Self {
event,
phantom: PhantomData,
@ -598,18 +543,36 @@ impl<SEVERITY: HasSeverity> EventU16TypedSev<SEVERITY> {
if severity != expected {
return Err(severity);
}
Ok(Self::new(((raw >> 8) & 0x3F) as u8, (raw & 0xFF) as u8))
Ok(Self::const_new(
((raw >> 8) & 0x3F) as u8,
(raw & 0xFF) as u8,
))
}
}
impl_event_provider!(EventU16, EventU16TypedSev, u16, u8, u8);
impl UnsignedEnum for EventU16 {
fn size(&self) -> usize {
core::mem::size_of::<u16>()
}
fn write_to_be_bytes(&self, buf: &mut [u8]) -> Result<usize, ByteConversionError> {
self.base.write_to_bytes(self.raw(), buf, self.size())
}
}
impl EcssEnumeration for EventU16 {
#[inline]
fn pfc(&self) -> u8 {
u16::BITS as u8
}
}
//noinspection RsTraitImplementation
impl<SEVERITY: HasSeverity> UnsignedEnum for EventU16TypedSev<SEVERITY> {
delegate!(to self.event {
fn size(&self) -> usize;
fn write_to_be_bytes(&self, buf: &mut [u8]) -> Result<usize, ByteConversionError>;
fn value(&self) -> u64;
});
}
@ -620,10 +583,20 @@ impl<SEVERITY: HasSeverity> EcssEnumeration for EventU16TypedSev<SEVERITY> {
});
}
try_from_impls!(SeverityInfo, Severity::Info, u16, EventU16TypedSev);
try_from_impls!(SeverityLow, Severity::Low, u16, EventU16TypedSev);
try_from_impls!(SeverityMedium, Severity::Medium, u16, EventU16TypedSev);
try_from_impls!(SeverityHigh, Severity::High, u16, EventU16TypedSev);
impl From<u16> for EventU16 {
fn from(raw: <Self as GenericEvent>::Raw) -> Self {
let severity = Severity::try_from(((raw >> 14) & 0b11) as u8).unwrap();
let group_id = ((raw >> 8) & 0x3F) as u8;
let unique_id = (raw & 0xFF) as u8;
// Sanitized input, new call should never fail
Self::const_new(severity, group_id, unique_id)
}
}
try_from_impls!(SeverityInfo, Severity::INFO, u16, EventU16TypedSev);
try_from_impls!(SeverityLow, Severity::LOW, u16, EventU16TypedSev);
try_from_impls!(SeverityMedium, Severity::MEDIUM, u16, EventU16TypedSev);
try_from_impls!(SeverityHigh, Severity::HIGH, u16, EventU16TypedSev);
impl<Severity: HasSeverity> PartialEq<EventU32> for EventU32TypedSev<Severity> {
#[inline]
@ -664,10 +637,12 @@ mod tests {
assert_eq!(size_of::<T>(), val);
}
const INFO_EVENT: EventU32TypedSev<SeverityInfo> = EventU32TypedSev::new(0, 0);
const INFO_EVENT_SMALL: EventU16TypedSev<SeverityInfo> = EventU16TypedSev::new(0, 0);
const HIGH_SEV_EVENT: EventU32TypedSev<SeverityHigh> = EventU32TypedSev::new(0x3FFF, 0xFFFF);
const HIGH_SEV_EVENT_SMALL: EventU16TypedSev<SeverityHigh> = EventU16TypedSev::new(0x3F, 0xff);
const INFO_EVENT: EventU32TypedSev<SeverityInfo> = EventU32TypedSev::const_new(0, 0);
const INFO_EVENT_SMALL: EventU16TypedSev<SeverityInfo> = EventU16TypedSev::const_new(0, 0);
const HIGH_SEV_EVENT: EventU32TypedSev<SeverityHigh> =
EventU32TypedSev::const_new(0x3FFF, 0xFFFF);
const HIGH_SEV_EVENT_SMALL: EventU16TypedSev<SeverityHigh> =
EventU16TypedSev::const_new(0x3F, 0xff);
/// This working is a test in itself.
const INFO_REDUCED: EventU32 = EventU32::const_from_info(INFO_EVENT);
@ -698,7 +673,7 @@ mod tests {
#[test]
fn test_normal_event_getters() {
assert_eq!(INFO_EVENT.severity(), Severity::Info);
assert_eq!(INFO_EVENT.severity(), Severity::INFO);
assert_eq!(INFO_EVENT.unique_id(), 0);
assert_eq!(INFO_EVENT.group_id(), 0);
let raw_event = INFO_EVENT.raw();
@ -707,7 +682,7 @@ mod tests {
#[test]
fn test_small_event_getters() {
assert_eq!(INFO_EVENT_SMALL.severity(), Severity::Info);
assert_eq!(INFO_EVENT_SMALL.severity(), Severity::INFO);
assert_eq!(INFO_EVENT_SMALL.unique_id(), 0);
assert_eq!(INFO_EVENT_SMALL.group_id(), 0);
let raw_event = INFO_EVENT_SMALL.raw();
@ -716,7 +691,7 @@ mod tests {
#[test]
fn all_ones_event_regular() {
assert_eq!(HIGH_SEV_EVENT.severity(), Severity::High);
assert_eq!(HIGH_SEV_EVENT.severity(), Severity::HIGH);
assert_eq!(HIGH_SEV_EVENT.group_id(), 0x3FFF);
assert_eq!(HIGH_SEV_EVENT.unique_id(), 0xFFFF);
let raw_event = HIGH_SEV_EVENT.raw();
@ -725,7 +700,7 @@ mod tests {
#[test]
fn all_ones_event_small() {
assert_eq!(HIGH_SEV_EVENT_SMALL.severity(), Severity::High);
assert_eq!(HIGH_SEV_EVENT_SMALL.severity(), Severity::HIGH);
assert_eq!(HIGH_SEV_EVENT_SMALL.group_id(), 0x3F);
assert_eq!(HIGH_SEV_EVENT_SMALL.unique_id(), 0xFF);
let raw_event = HIGH_SEV_EVENT_SMALL.raw();
@ -734,19 +709,18 @@ mod tests {
#[test]
fn invalid_group_id_normal() {
assert!(EventU32TypedSev::<SeverityMedium>::new_checked(2_u16.pow(14), 0).is_none());
assert!(EventU32TypedSev::<SeverityMedium>::new(2_u16.pow(14), 0).is_none());
}
#[test]
fn invalid_group_id_small() {
assert!(EventU16TypedSev::<SeverityMedium>::new_checked(2_u8.pow(6), 0).is_none());
assert!(EventU16TypedSev::<SeverityMedium>::new(2_u8.pow(6), 0).is_none());
}
#[test]
fn regular_new() {
assert_eq!(
EventU32TypedSev::<SeverityInfo>::new_checked(0, 0)
.expect("Creating regular event failed"),
EventU32TypedSev::<SeverityInfo>::new(0, 0).expect("Creating regular event failed"),
INFO_EVENT
);
}
@ -754,8 +728,7 @@ mod tests {
#[test]
fn small_new() {
assert_eq!(
EventU16TypedSev::<SeverityInfo>::new_checked(0, 0)
.expect("Creating regular event failed"),
EventU16TypedSev::<SeverityInfo>::new(0, 0).expect("Creating regular event failed"),
INFO_EVENT_SMALL
);
}
@ -794,8 +767,6 @@ mod tests {
assert!(HIGH_SEV_EVENT.write_to_be_bytes(&mut buf).is_ok());
let val_from_raw = u32::from_be_bytes(buf);
assert_eq!(val_from_raw, 0xFFFFFFFF);
let event_read_back = EventU32::from_be_bytes(buf);
assert_eq!(event_read_back, HIGH_SEV_EVENT);
}
#[test]
@ -804,8 +775,6 @@ mod tests {
assert!(HIGH_SEV_EVENT_SMALL.write_to_be_bytes(&mut buf).is_ok());
let val_from_raw = u16::from_be_bytes(buf);
assert_eq!(val_from_raw, 0xFFFF);
let event_read_back = EventU16::from_be_bytes(buf);
assert_eq!(event_read_back, HIGH_SEV_EVENT_SMALL);
}
#[test]
@ -836,13 +805,13 @@ mod tests {
fn severity_from_invalid_raw_val() {
let invalid = 0xFF;
assert!(Severity::try_from(invalid).is_err());
let invalid = Severity::High as u8 + 1;
let invalid = Severity::HIGH as u8 + 1;
assert!(Severity::try_from(invalid).is_err());
}
#[test]
fn reduction() {
let event = EventU32TypedSev::<SeverityInfo>::new(1, 1);
let event = EventU32TypedSev::<SeverityInfo>::const_new(1, 1);
let raw = event.raw();
let reduced: EventU32 = event.into();
assert_eq!(reduced.group_id(), 1);

View File

@ -1,3 +1,4 @@
//! # Hardware Abstraction Layer module
#[cfg(feature = "std")]
#[cfg_attr(doc_cfg, doc(cfg(feature = "std")))]
pub mod std;

View File

@ -1,25 +1,19 @@
use alloc::sync::Arc;
use alloc::vec;
use cobs::encode;
use core::sync::atomic::AtomicBool;
use core::time::Duration;
use delegate::delegate;
use mio::net::{TcpListener, TcpStream};
use std::io::Write;
use std::net::SocketAddr;
use std::net::TcpListener;
use std::net::TcpStream;
use std::vec::Vec;
use crate::encoding::parse_buffer_for_cobs_encoded_packets;
use crate::tmtc::PacketSenderRaw;
use crate::tmtc::PacketSource;
use crate::tmtc::ReceivesTc;
use crate::tmtc::TmPacketSource;
use crate::hal::std::tcp_server::{
ConnectionResult, ServerConfig, TcpTcParser, TcpTmSender, TcpTmtcError, TcpTmtcGenericServer,
};
use crate::ComponentId;
use super::tcp_server::HandledConnectionHandler;
use super::tcp_server::HandledConnectionInfo;
/// Concrete [TcpTcParser] implementation for the [TcpTmtcInCobsServer].
#[derive(Default)]
@ -29,16 +23,14 @@ impl<TmError, TcError: 'static> TcpTcParser<TmError, TcError> for CobsTcParser {
fn handle_tc_parsing(
&mut self,
tc_buffer: &mut [u8],
sender_id: ComponentId,
tc_sender: &(impl PacketSenderRaw<Error = TcError> + ?Sized),
conn_result: &mut HandledConnectionInfo,
tc_receiver: &mut (impl ReceivesTc<Error = TcError> + ?Sized),
conn_result: &mut ConnectionResult,
current_write_idx: usize,
next_write_idx: &mut usize,
) -> Result<(), TcpTmtcError<TmError, TcError>> {
conn_result.num_received_tcs += parse_buffer_for_cobs_encoded_packets(
&mut tc_buffer[..current_write_idx],
sender_id,
tc_sender,
tc_receiver.upcast_mut(),
next_write_idx,
)
.map_err(|e| TcpTmtcError::TcError(e))?;
@ -65,8 +57,8 @@ impl<TmError, TcError> TcpTmSender<TmError, TcError> for CobsTmSender {
fn handle_tm_sending(
&mut self,
tm_buffer: &mut [u8],
tm_source: &mut (impl PacketSource<Error = TmError> + ?Sized),
conn_result: &mut HandledConnectionInfo,
tm_source: &mut (impl TmPacketSource<Error = TmError> + ?Sized),
conn_result: &mut ConnectionResult,
stream: &mut TcpStream,
) -> Result<bool, TcpTmtcError<TmError, TcError>> {
let mut tm_was_sent = false;
@ -104,7 +96,7 @@ impl<TmError, TcError> TcpTmSender<TmError, TcError> for CobsTmSender {
/// Telemetry will be encoded with the COBS protocol using [cobs::encode] in addition to being
/// wrapped with the sentinel value 0 as the packet delimiter as well before being sent back to
/// the client. Please note that the server will send as much data as it can retrieve from the
/// [PacketSource] in its current implementation.
/// [TmPacketSource] in its current implementation.
///
/// Using a framing protocol like COBS imposes minimal restrictions on the type of TMTC data
/// exchanged while also allowing packets with flexible size and a reliable way to reconstruct full
@ -115,33 +107,24 @@ impl<TmError, TcError> TcpTmSender<TmError, TcError> for CobsTmSender {
///
/// ## Example
///
/// The [TCP integration tests](https://egit.irs.uni-stuttgart.de/rust/sat-rs/src/branch/main/satrs/tests/tcp_servers.rs)
/// The [TCP integration tests](https://egit.irs.uni-stuttgart.de/rust/sat-rs/src/branch/main/satrs-core/tests/tcp_servers.rs)
/// test also serves as the example application for this module.
pub struct TcpTmtcInCobsServer<
TmSource: PacketSource<Error = TmError>,
TcSender: PacketSenderRaw<Error = SendError>,
HandledConnection: HandledConnectionHandler,
TmError,
SendError: 'static,
TcError: 'static,
TmSource: TmPacketSource<Error = TmError>,
TcReceiver: ReceivesTc<Error = TcError>,
> {
pub generic_server: TcpTmtcGenericServer<
TmSource,
TcSender,
CobsTmSender,
CobsTcParser,
HandledConnection,
TmError,
SendError,
>,
generic_server:
TcpTmtcGenericServer<TmError, TcError, TmSource, TcReceiver, CobsTmSender, CobsTcParser>,
}
impl<
TmSource: PacketSource<Error = TmError>,
TcReceiver: PacketSenderRaw<Error = TcError>,
HandledConnection: HandledConnectionHandler,
TmError: 'static,
TcError: 'static,
> TcpTmtcInCobsServer<TmSource, TcReceiver, HandledConnection, TmError, TcError>
TmSource: TmPacketSource<Error = TmError>,
TcReceiver: ReceivesTc<Error = TcError>,
> TcpTmtcInCobsServer<TmError, TcError, TmSource, TcReceiver>
{
/// Create a new TCP TMTC server which exchanges TMTC packets encoded with
/// [COBS protocol](https://en.wikipedia.org/wiki/Consistent_Overhead_Byte_Stuffing).
@ -157,8 +140,6 @@ impl<
cfg: ServerConfig,
tm_source: TmSource,
tc_receiver: TcReceiver,
handled_connection: HandledConnection,
stop_signal: Option<Arc<AtomicBool>>,
) -> Result<Self, std::io::Error> {
Ok(Self {
generic_server: TcpTmtcGenericServer::new(
@ -167,8 +148,6 @@ impl<
CobsTmSender::new(cfg.tm_buffer_size),
tm_source,
tc_receiver,
handled_connection,
stop_signal,
)?,
})
}
@ -181,10 +160,9 @@ impl<
/// useful if using the port number 0 for OS auto-assignment.
pub fn local_addr(&self) -> std::io::Result<SocketAddr>;
/// Delegation to the [TcpTmtcGenericServer::handle_all_connections] call.
pub fn handle_all_connections(
/// Delegation to the [TcpTmtcGenericServer::handle_next_connection] call.
pub fn handle_next_connection(
&mut self,
poll_duration: Option<Duration>,
) -> Result<ConnectionResult, TcpTmtcError<TmError, TcError>>;
}
}
@ -199,29 +177,21 @@ mod tests {
use std::{
io::{Read, Write},
net::{IpAddr, Ipv4Addr, SocketAddr, TcpStream},
panic,
sync::mpsc,
thread,
time::Instant,
};
use crate::{
encoding::tests::{INVERTED_PACKET, SIMPLE_PACKET},
hal::std::tcp_server::{
tests::{ConnectionFinishedHandler, SyncTmSource},
ConnectionResult, ServerConfig,
tests::{SyncTcCacher, SyncTmSource},
ServerConfig,
},
queue::GenericSendError,
tmtc::PacketAsVec,
ComponentId,
};
use alloc::sync::Arc;
use cobs::encode;
use super::TcpTmtcInCobsServer;
const TCP_SERVER_ID: ComponentId = 0x05;
fn encode_simple_packet(encoded_buf: &mut [u8], current_idx: &mut usize) {
encode_packet(&SIMPLE_PACKET, encoded_buf, current_idx)
}
@ -240,22 +210,13 @@ mod tests {
fn generic_tmtc_server(
addr: &SocketAddr,
tc_sender: mpsc::Sender<PacketAsVec>,
tc_receiver: SyncTcCacher,
tm_source: SyncTmSource,
stop_signal: Option<Arc<AtomicBool>>,
) -> TcpTmtcInCobsServer<
SyncTmSource,
mpsc::Sender<PacketAsVec>,
ConnectionFinishedHandler,
(),
GenericSendError,
> {
) -> TcpTmtcInCobsServer<(), (), SyncTmSource, SyncTcCacher> {
TcpTmtcInCobsServer::new(
ServerConfig::new(TCP_SERVER_ID, *addr, Duration::from_millis(2), 1024, 1024),
ServerConfig::new(*addr, Duration::from_millis(2), 1024, 1024),
tm_source,
tc_sender,
ConnectionFinishedHandler::default(),
stop_signal,
tc_receiver,
)
.expect("TCP server generation failed")
}
@ -263,10 +224,9 @@ mod tests {
#[test]
fn test_server_basic_no_tm() {
let auto_port_addr = SocketAddr::new(IpAddr::V4(Ipv4Addr::new(127, 0, 0, 1)), 0);
let (tc_sender, tc_receiver) = mpsc::channel();
let tc_receiver = SyncTcCacher::default();
let tm_source = SyncTmSource::default();
let mut tcp_server =
generic_tmtc_server(&auto_port_addr, tc_sender.clone(), tm_source, None);
let mut tcp_server = generic_tmtc_server(&auto_port_addr, tc_receiver.clone(), tm_source);
let dest_addr = tcp_server
.local_addr()
.expect("retrieving dest addr failed");
@ -274,20 +234,13 @@ mod tests {
let set_if_done = conn_handled.clone();
// Call the connection handler in separate thread, does block.
thread::spawn(move || {
let result = tcp_server.handle_all_connections(Some(Duration::from_millis(100)));
let result = tcp_server.handle_next_connection();
if result.is_err() {
panic!("handling connection failed: {:?}", result.unwrap_err());
}
let result = result.unwrap();
assert_eq!(result, ConnectionResult::HandledConnections(1));
tcp_server
.generic_server
.finished_handler
.check_last_connection(0, 1);
tcp_server
.generic_server
.finished_handler
.check_no_connections_left();
let conn_result = result.unwrap();
assert_eq!(conn_result.num_received_tcs, 1);
assert_eq!(conn_result.num_sent_tms, 0);
set_if_done.store(true, Ordering::Relaxed);
});
// Send TC to server now.
@ -309,20 +262,24 @@ mod tests {
panic!("connection was not handled properly");
}
// Check that the packet was received and decoded successfully.
let packet_with_sender = tc_receiver.recv().expect("receiving TC failed");
assert_eq!(packet_with_sender.packet, &SIMPLE_PACKET);
matches!(tc_receiver.try_recv(), Err(mpsc::TryRecvError::Empty));
let mut tc_queue = tc_receiver
.tc_queue
.lock()
.expect("locking tc queue failed");
assert_eq!(tc_queue.len(), 1);
assert_eq!(tc_queue.pop_front().unwrap(), &SIMPLE_PACKET);
drop(tc_queue);
}
#[test]
fn test_server_basic_multi_tm_multi_tc() {
let auto_port_addr = SocketAddr::new(IpAddr::V4(Ipv4Addr::new(127, 0, 0, 1)), 0);
let (tc_sender, tc_receiver) = mpsc::channel();
let tc_receiver = SyncTcCacher::default();
let mut tm_source = SyncTmSource::default();
tm_source.add_tm(&INVERTED_PACKET);
tm_source.add_tm(&SIMPLE_PACKET);
let mut tcp_server =
generic_tmtc_server(&auto_port_addr, tc_sender.clone(), tm_source.clone(), None);
generic_tmtc_server(&auto_port_addr, tc_receiver.clone(), tm_source.clone());
let dest_addr = tcp_server
.local_addr()
.expect("retrieving dest addr failed");
@ -330,20 +287,13 @@ mod tests {
let set_if_done = conn_handled.clone();
// Call the connection handler in separate thread, does block.
thread::spawn(move || {
let result = tcp_server.handle_all_connections(Some(Duration::from_millis(100)));
let result = tcp_server.handle_next_connection();
if result.is_err() {
panic!("handling connection failed: {:?}", result.unwrap_err());
}
let result = result.unwrap();
assert_eq!(result, ConnectionResult::HandledConnections(1));
tcp_server
.generic_server
.finished_handler
.check_last_connection(2, 2);
tcp_server
.generic_server
.finished_handler
.check_no_connections_left();
let conn_result = result.unwrap();
assert_eq!(conn_result.num_received_tcs, 2, "Not enough TCs received");
assert_eq!(conn_result.num_sent_tms, 2, "Not enough TMs received");
set_if_done.store(true, Ordering::Relaxed);
});
// Send TC to server now.
@ -417,78 +367,13 @@ mod tests {
panic!("connection was not handled properly");
}
// Check that the packet was received and decoded successfully.
let packet_with_sender = tc_receiver.recv().expect("receiving TC failed");
let packet = &packet_with_sender.packet;
assert_eq!(packet, &SIMPLE_PACKET);
let packet_with_sender = tc_receiver.recv().expect("receiving TC failed");
let packet = &packet_with_sender.packet;
assert_eq!(packet, &INVERTED_PACKET);
matches!(tc_receiver.try_recv(), Err(mpsc::TryRecvError::Empty));
}
#[test]
fn test_server_accept_timeout() {
let auto_port_addr = SocketAddr::new(IpAddr::V4(Ipv4Addr::new(127, 0, 0, 1)), 0);
let (tc_sender, _tc_receiver) = mpsc::channel();
let tm_source = SyncTmSource::default();
let mut tcp_server =
generic_tmtc_server(&auto_port_addr, tc_sender.clone(), tm_source, None);
let start = Instant::now();
// Call the connection handler in separate thread, does block.
let thread_jh = thread::spawn(move || loop {
let result = tcp_server.handle_all_connections(Some(Duration::from_millis(20)));
if result.is_err() {
panic!("handling connection failed: {:?}", result.unwrap_err());
}
let result = result.unwrap();
if result == ConnectionResult::AcceptTimeout {
break;
}
if Instant::now() - start > Duration::from_millis(100) {
panic!("regular stop signal handling failed");
}
});
thread_jh.join().expect("thread join failed");
}
#[test]
fn test_server_stop_signal() {
let auto_port_addr = SocketAddr::new(IpAddr::V4(Ipv4Addr::new(127, 0, 0, 1)), 0);
let (tc_sender, _tc_receiver) = mpsc::channel();
let tm_source = SyncTmSource::default();
let stop_signal = Arc::new(AtomicBool::new(false));
let mut tcp_server = generic_tmtc_server(
&auto_port_addr,
tc_sender.clone(),
tm_source,
Some(stop_signal.clone()),
);
let dest_addr = tcp_server
.local_addr()
.expect("retrieving dest addr failed");
let stop_signal_copy = stop_signal.clone();
let start = Instant::now();
// Call the connection handler in separate thread, does block.
let thread_jh = thread::spawn(move || loop {
let result = tcp_server.handle_all_connections(Some(Duration::from_millis(20)));
if result.is_err() {
panic!("handling connection failed: {:?}", result.unwrap_err());
}
let result = result.unwrap();
if result == ConnectionResult::AcceptTimeout {
panic!("unexpected accept timeout");
}
if stop_signal_copy.load(Ordering::Relaxed) {
break;
}
if Instant::now() - start > Duration::from_millis(100) {
panic!("regular stop signal handling failed");
}
});
// We connect but do not do anything.
let _stream = TcpStream::connect(dest_addr).expect("connecting to TCP server failed");
stop_signal.store(true, Ordering::Relaxed);
// No need to drop the connection, the stop signal should take take of everything.
thread_jh.join().expect("thread join failed");
let mut tc_queue = tc_receiver
.tc_queue
.lock()
.expect("locking tc queue failed");
assert_eq!(tc_queue.len(), 2);
assert_eq!(tc_queue.pop_front().unwrap(), &SIMPLE_PACKET);
assert_eq!(tc_queue.pop_front().unwrap(), &INVERTED_PACKET);
drop(tc_queue);
}
}

View File

@ -1,23 +1,21 @@
//! Generic TCP TMTC servers with different TMTC format flavours.
use alloc::sync::Arc;
use alloc::vec;
use alloc::vec::Vec;
use core::sync::atomic::AtomicBool;
use core::time::Duration;
use mio::net::{TcpListener, TcpStream};
use mio::{Events, Interest, Poll, Token};
use socket2::{Domain, Socket, Type};
use std::io::{self, Read};
use std::net::SocketAddr;
use std::io::Read;
use std::net::TcpListener;
use std::net::{SocketAddr, TcpStream};
use std::thread;
use crate::tmtc::{PacketSenderRaw, PacketSource};
use crate::ComponentId;
use crate::tmtc::{ReceivesTc, TmPacketSource};
use thiserror::Error;
// Re-export the TMTC in COBS server.
pub use crate::hal::std::tcp_cobs_server::{CobsTcParser, CobsTmSender, TcpTmtcInCobsServer};
pub use crate::hal::std::tcp_spacepackets_server::{SpacepacketsTmSender, TcpSpacepacketsServer};
pub use crate::hal::std::tcp_spacepackets_server::{
SpacepacketsTcParser, SpacepacketsTmSender, TcpSpacepacketsServer,
};
/// Configuration struct for the generic TCP TMTC server
///
@ -27,7 +25,7 @@ pub use crate::hal::std::tcp_spacepackets_server::{SpacepacketsTmSender, TcpSpac
/// * `inner_loop_delay` - If a client connects for a longer period, but no TC is received or
/// no TM needs to be sent, the TCP server will delay for the specified amount of time
/// to reduce CPU load.
/// * `tm_buffer_size` - Size of the TM buffer used to read TM from the [PacketSource] and
/// * `tm_buffer_size` - Size of the TM buffer used to read TM from the [TmPacketSource] and
/// encoding of that data. This buffer should at large enough to hold the maximum expected
/// TM size read from the packet source.
/// * `tc_buffer_size` - Size of the TC buffer used to read encoded telecommands sent from
@ -43,7 +41,6 @@ pub use crate::hal::std::tcp_spacepackets_server::{SpacepacketsTmSender, TcpSpac
/// default.
#[derive(Debug, Copy, Clone)]
pub struct ServerConfig {
pub id: ComponentId,
pub addr: SocketAddr,
pub inner_loop_delay: Duration,
pub tm_buffer_size: usize,
@ -54,20 +51,18 @@ pub struct ServerConfig {
impl ServerConfig {
pub fn new(
id: ComponentId,
addr: SocketAddr,
inner_loop_delay: Duration,
tm_buffer_size: usize,
tc_buffer_size: usize,
) -> Self {
Self {
id,
addr,
inner_loop_delay,
tm_buffer_size,
tc_buffer_size,
reuse_addr: true,
reuse_port: true,
reuse_addr: false,
reuse_port: false,
}
}
}
@ -84,62 +79,37 @@ pub enum TcpTmtcError<TmError, TcError> {
/// Result of one connection attempt. Contains the client address if a connection was established,
/// in addition to the number of telecommands and telemetry packets exchanged.
#[derive(Debug, PartialEq, Eq)]
pub enum ConnectionResult {
AcceptTimeout,
HandledConnections(u32),
}
#[derive(Debug)]
pub struct HandledConnectionInfo {
pub addr: SocketAddr,
#[derive(Debug, Default)]
pub struct ConnectionResult {
pub addr: Option<SocketAddr>,
pub num_received_tcs: u32,
pub num_sent_tms: u32,
/// The generic TCP server can be stopped using an external signal. If this happened, this
/// boolean will be set to true.
pub stopped_by_signal: bool,
}
impl HandledConnectionInfo {
pub fn new(addr: SocketAddr) -> Self {
Self {
addr,
num_received_tcs: 0,
num_sent_tms: 0,
stopped_by_signal: false,
}
}
}
pub trait HandledConnectionHandler {
fn handled_connection(&mut self, info: HandledConnectionInfo);
}
/// Generic parser abstraction for an object which can parse for telecommands given a raw
/// bytestream received from a TCP socket and send them using a generic [PacketSenderRaw]
/// implementation. This allows different encoding schemes for telecommands.
pub trait TcpTcParser<TmError, SendError> {
/// bytestream received from a TCP socket and send them to a generic [ReceivesTc] telecommand
/// receiver. This allows different encoding schemes for telecommands.
pub trait TcpTcParser<TmError, TcError> {
fn handle_tc_parsing(
&mut self,
tc_buffer: &mut [u8],
sender_id: ComponentId,
tc_sender: &(impl PacketSenderRaw<Error = SendError> + ?Sized),
conn_result: &mut HandledConnectionInfo,
tc_receiver: &mut (impl ReceivesTc<Error = TcError> + ?Sized),
conn_result: &mut ConnectionResult,
current_write_idx: usize,
next_write_idx: &mut usize,
) -> Result<(), TcpTmtcError<TmError, SendError>>;
) -> Result<(), TcpTmtcError<TmError, TcError>>;
}
/// Generic sender abstraction for an object which can pull telemetry from a given TM source
/// using a [PacketSource] and then send them back to a client using a given [TcpStream].
/// using a [TmPacketSource] and then send them back to a client using a given [TcpStream].
/// The concrete implementation can also perform any encoding steps which are necessary before
/// sending back the data to a client.
pub trait TcpTmSender<TmError, TcError> {
fn handle_tm_sending(
&mut self,
tm_buffer: &mut [u8],
tm_source: &mut (impl PacketSource<Error = TmError> + ?Sized),
conn_result: &mut HandledConnectionInfo,
tm_source: &mut (impl TmPacketSource<Error = TmError> + ?Sized),
conn_result: &mut ConnectionResult,
stream: &mut TcpStream,
) -> Result<bool, TcpTmtcError<TmError, TcError>>;
}
@ -151,9 +121,9 @@ pub trait TcpTmSender<TmError, TcError> {
/// through the following 4 core abstractions:
///
/// 1. [TcpTcParser] to parse for telecommands from the raw bytestream received from a client.
/// 2. Parsed telecommands will be sent using the [PacketSenderRaw] object.
/// 2. Parsed telecommands will be sent to the [ReceivesTc] telecommand receiver.
/// 3. [TcpTmSender] to send telemetry pulled from a TM source back to the client.
/// 4. [PacketSource] as a generic TM source used by the [TcpTmSender].
/// 4. [TmPacketSource] as a generic TM source used by the [TcpTmSender].
///
/// It is possible to specify custom abstractions to build a dedicated TCP TMTC server without
/// having to re-implement common logic.
@ -161,49 +131,32 @@ pub trait TcpTmSender<TmError, TcError> {
/// Currently, this framework offers the following concrete implementations:
///
/// 1. [TcpTmtcInCobsServer] to exchange TMTC wrapped inside the COBS framing protocol.
/// 2. [TcpSpacepacketsServer] to exchange space packets via TCP.
pub struct TcpTmtcGenericServer<
TmSource: PacketSource<Error = TmError>,
TcSender: PacketSenderRaw<Error = TcSendError>,
TmSender: TcpTmSender<TmError, TcSendError>,
TcParser: TcpTcParser<TmError, TcSendError>,
HandledConnection: HandledConnectionHandler,
TmError,
TcSendError,
TcError,
TmSource: TmPacketSource<Error = TmError>,
TcReceiver: ReceivesTc<Error = TcError>,
TmSender: TcpTmSender<TmError, TcError>,
TcParser: TcpTcParser<TmError, TcError>,
> {
pub id: ComponentId,
pub finished_handler: HandledConnection,
pub(crate) listener: TcpListener,
pub(crate) inner_loop_delay: Duration,
pub(crate) tm_source: TmSource,
pub(crate) tm_buffer: Vec<u8>,
pub(crate) tc_sender: TcSender,
pub(crate) tc_receiver: TcReceiver,
pub(crate) tc_buffer: Vec<u8>,
poll: Poll,
events: Events,
pub tc_handler: TcParser,
pub tm_handler: TmSender,
stop_signal: Option<Arc<AtomicBool>>,
tc_handler: TcParser,
tm_handler: TmSender,
}
impl<
TmSource: PacketSource<Error = TmError>,
TcSender: PacketSenderRaw<Error = TcSendError>,
TmSender: TcpTmSender<TmError, TcSendError>,
TcParser: TcpTcParser<TmError, TcSendError>,
HandledConnection: HandledConnectionHandler,
TmError: 'static,
TcSendError: 'static,
>
TcpTmtcGenericServer<
TmSource,
TcSender,
TmSender,
TcParser,
HandledConnection,
TmError,
TcSendError,
>
TcError: 'static,
TmSource: TmPacketSource<Error = TmError>,
TcReceiver: ReceivesTc<Error = TcError>,
TmSender: TcpTmSender<TmError, TcError>,
TcParser: TcpTcParser<TmError, TcError>,
> TcpTmtcGenericServer<TmError, TcError, TmSource, TcReceiver, TmSender, TcParser>
{
/// Create a new generic TMTC server instance.
///
@ -215,58 +168,32 @@ impl<
/// * `tm_sender` - Sends back telemetry to the client using the specified TM source.
/// * `tm_source` - Generic TM source used by the server to pull telemetry packets which are
/// then sent back to the client.
/// * `tc_sender` - Any received telecommand which was decoded successfully will be forwarded
/// using this TC sender.
/// * `stop_signal` - Can be used to stop the server even if a connection is ongoing.
/// * `tc_receiver` - Any received telecommand which was decoded successfully will be forwarded
/// to this TC receiver.
pub fn new(
cfg: ServerConfig,
tc_parser: TcParser,
tm_sender: TmSender,
tm_source: TmSource,
tc_receiver: TcSender,
finished_handler: HandledConnection,
stop_signal: Option<Arc<AtomicBool>>,
tc_receiver: TcReceiver,
) -> Result<Self, std::io::Error> {
// Create a TCP listener bound to two addresses.
let socket = Socket::new(Domain::IPV4, Type::STREAM, None)?;
socket.set_reuse_address(cfg.reuse_addr)?;
#[cfg(unix)]
socket.set_reuse_port(cfg.reuse_port)?;
// MIO does not do this for us. We want the accept calls to be non-blocking.
socket.set_nonblocking(true)?;
let addr = (cfg.addr).into();
socket.bind(&addr)?;
socket.listen(128)?;
// Create a poll instance.
let poll = Poll::new()?;
// Create storage for events.
let events = Events::with_capacity(32);
let listener: std::net::TcpListener = socket.into();
let mut mio_listener = TcpListener::from_std(listener);
// Start listening for incoming connections.
poll.registry().register(
&mut mio_listener,
Token(0),
Interest::READABLE | Interest::WRITABLE,
)?;
Ok(Self {
id: cfg.id,
tc_handler: tc_parser,
tm_handler: tm_sender,
poll,
events,
listener: mio_listener,
listener: socket.into(),
inner_loop_delay: cfg.inner_loop_delay,
tm_source,
tm_buffer: vec![0; cfg.tm_buffer_size],
tc_sender: tc_receiver,
tc_receiver,
tc_buffer: vec![0; cfg.tc_buffer_size],
stop_signal,
finished_handler,
})
}
@ -281,11 +208,11 @@ impl<
self.listener.local_addr()
}
/// This call is used to handle all connection from clients. Right now, it performs
/// This call is used to handle the next connection to a client. Right now, it performs
/// the following steps:
///
/// 1. It calls the [std::net::TcpListener::accept] method until a client connects. An optional
/// timeout can be specified for non-blocking acceptance.
/// 1. It calls the [std::net::TcpListener::accept] method internally using the blocking API
/// until a client connects.
/// 2. It reads all the telecommands from the client and parses all received data using the
/// user specified [TcpTcParser].
/// 3. After reading and parsing all telecommands, it sends back all telemetry using the
@ -294,66 +221,15 @@ impl<
/// The server will delay for a user-specified period if the client connects to the server
/// for prolonged periods and there is no traffic for the server. This is the case if the
/// client does not send any telecommands and no telemetry needs to be sent back to the client.
pub fn handle_all_connections(
pub fn handle_next_connection(
&mut self,
poll_timeout: Option<Duration>,
) -> Result<ConnectionResult, TcpTmtcError<TmError, TcSendError>> {
let mut handled_connections = 0;
// Poll Mio for events.
self.poll.poll(&mut self.events, poll_timeout)?;
let mut acceptable_connection = false;
// Process each event.
for event in self.events.iter() {
if event.token() == Token(0) {
acceptable_connection = true;
} else {
// Should never happen..
panic!("unexpected TCP event token");
}
}
// I'd love to do this in the loop above, but there are issues with multiple borrows.
if acceptable_connection {
// There might be mutliple connections available. Accept until all of them have
// been handled.
loop {
match self.listener.accept() {
Ok((stream, addr)) => {
if let Err(e) = self.handle_accepted_connection(stream, addr) {
self.reregister_poll_interest()?;
return Err(e);
}
handled_connections += 1;
}
Err(ref err) if err.kind() == io::ErrorKind::WouldBlock => break,
Err(err) => {
self.reregister_poll_interest()?;
return Err(TcpTmtcError::Io(err));
}
}
}
}
if handled_connections > 0 {
return Ok(ConnectionResult::HandledConnections(handled_connections));
}
Ok(ConnectionResult::AcceptTimeout)
}
fn reregister_poll_interest(&mut self) -> io::Result<()> {
self.poll.registry().reregister(
&mut self.listener,
Token(0),
Interest::READABLE | Interest::WRITABLE,
)
}
fn handle_accepted_connection(
&mut self,
mut stream: TcpStream,
addr: SocketAddr,
) -> Result<(), TcpTmtcError<TmError, TcSendError>> {
) -> Result<ConnectionResult, TcpTmtcError<TmError, TcError>> {
let mut connection_result = ConnectionResult::default();
let mut current_write_idx;
let mut next_write_idx = 0;
let mut connection_result = HandledConnectionInfo::new(addr);
let (mut stream, addr) = self.listener.accept()?;
stream.set_nonblocking(true)?;
connection_result.addr = Some(addr);
current_write_idx = next_write_idx;
loop {
let read_result = stream.read(&mut self.tc_buffer[current_write_idx..]);
@ -364,8 +240,7 @@ impl<
if current_write_idx > 0 {
self.tc_handler.handle_tc_parsing(
&mut self.tc_buffer,
self.id,
&self.tc_sender,
&mut self.tc_receiver,
&mut connection_result,
current_write_idx,
&mut next_write_idx,
@ -379,8 +254,7 @@ impl<
if current_write_idx == self.tc_buffer.capacity() {
self.tc_handler.handle_tc_parsing(
&mut self.tc_buffer,
self.id,
&self.tc_sender,
&mut self.tc_receiver,
&mut connection_result,
current_write_idx,
&mut next_write_idx,
@ -394,8 +268,7 @@ impl<
std::io::ErrorKind::WouldBlock | std::io::ErrorKind::TimedOut => {
self.tc_handler.handle_tc_parsing(
&mut self.tc_buffer,
self.id,
&self.tc_sender,
&mut self.tc_receiver,
&mut connection_result,
current_write_idx,
&mut next_write_idx,
@ -411,18 +284,6 @@ impl<
// No TC read, no TM was sent, but the client has not disconnected.
// Perform an inner delay to avoid burning CPU time.
thread::sleep(self.inner_loop_delay);
// Optional stop signal handling.
if self.stop_signal.is_some()
&& self
.stop_signal
.as_ref()
.unwrap()
.load(std::sync::atomic::Ordering::Relaxed)
{
connection_result.stopped_by_signal = true;
self.finished_handler.handled_connection(connection_result);
return Ok(());
}
}
}
_ => {
@ -437,8 +298,7 @@ impl<
&mut connection_result,
&mut stream,
)?;
self.finished_handler.handled_connection(connection_result);
Ok(())
Ok(connection_result)
}
}
@ -448,9 +308,21 @@ pub(crate) mod tests {
use alloc::{collections::VecDeque, sync::Arc, vec::Vec};
use crate::tmtc::PacketSource;
use crate::tmtc::{ReceivesTcCore, TmPacketSourceCore};
use super::*;
#[derive(Default, Clone)]
pub(crate) struct SyncTcCacher {
pub(crate) tc_queue: Arc<Mutex<VecDeque<Vec<u8>>>>,
}
impl ReceivesTcCore for SyncTcCacher {
type Error = ();
fn pass_tc(&mut self, tc_raw: &[u8]) -> Result<(), Self::Error> {
let mut tc_queue = self.tc_queue.lock().expect("tc forwarder failed");
tc_queue.push_back(tc_raw.to_vec());
Ok(())
}
}
#[derive(Default, Clone)]
pub(crate) struct SyncTmSource {
@ -464,7 +336,7 @@ pub(crate) mod tests {
}
}
impl PacketSource for SyncTmSource {
impl TmPacketSourceCore for SyncTmSource {
type Error = ();
fn retrieve_packet(&mut self, buffer: &mut [u8]) -> Result<usize, Self::Error> {
@ -484,30 +356,4 @@ pub(crate) mod tests {
Ok(0)
}
}
#[derive(Default)]
pub struct ConnectionFinishedHandler {
connection_info: VecDeque<HandledConnectionInfo>,
}
impl HandledConnectionHandler for ConnectionFinishedHandler {
fn handled_connection(&mut self, info: HandledConnectionInfo) {
self.connection_info.push_back(info);
}
}
impl ConnectionFinishedHandler {
pub fn check_last_connection(&mut self, num_tms: u32, num_tcs: u32) {
let last_conn_result = self
.connection_info
.pop_back()
.expect("no connection info available");
assert_eq!(last_conn_result.num_received_tcs, num_tcs);
assert_eq!(last_conn_result.num_sent_tms, num_tms);
}
pub fn check_no_connections_left(&self) {
assert!(self.connection_info.is_empty());
}
}
}

View File

@ -1,44 +1,48 @@
use alloc::sync::Arc;
use core::{sync::atomic::AtomicBool, time::Duration};
use delegate::delegate;
use mio::net::{TcpListener, TcpStream};
use std::{io::Write, net::SocketAddr};
use std::{
io::Write,
net::{SocketAddr, TcpListener, TcpStream},
};
use alloc::boxed::Box;
use crate::{
encoding::{ccsds::SpacePacketValidator, parse_buffer_for_ccsds_space_packets},
tmtc::{PacketSenderRaw, PacketSource},
ComponentId,
encoding::{ccsds::PacketIdLookup, parse_buffer_for_ccsds_space_packets},
tmtc::{ReceivesTc, TmPacketSource},
};
use super::tcp_server::{
ConnectionResult, HandledConnectionHandler, HandledConnectionInfo, ServerConfig, TcpTcParser,
TcpTmSender, TcpTmtcError, TcpTmtcGenericServer,
ConnectionResult, ServerConfig, TcpTcParser, TcpTmSender, TcpTmtcError, TcpTmtcGenericServer,
};
impl<T: SpacePacketValidator, TmError, TcError: 'static> TcpTcParser<TmError, TcError> for T {
/// Concrete [TcpTcParser] implementation for the [TcpSpacepacketsServer].
pub struct SpacepacketsTcParser {
packet_id_lookup: Box<dyn PacketIdLookup + Send>,
}
impl SpacepacketsTcParser {
pub fn new(packet_id_lookup: Box<dyn PacketIdLookup + Send>) -> Self {
Self { packet_id_lookup }
}
}
impl<TmError, TcError: 'static> TcpTcParser<TmError, TcError> for SpacepacketsTcParser {
fn handle_tc_parsing(
&mut self,
tc_buffer: &mut [u8],
sender_id: ComponentId,
tc_sender: &(impl PacketSenderRaw<Error = TcError> + ?Sized),
conn_result: &mut HandledConnectionInfo,
tc_receiver: &mut (impl ReceivesTc<Error = TcError> + ?Sized),
conn_result: &mut ConnectionResult,
current_write_idx: usize,
next_write_idx: &mut usize,
) -> Result<(), TcpTmtcError<TmError, TcError>> {
// Reader vec full, need to parse for packets.
let parse_result = parse_buffer_for_ccsds_space_packets(
&tc_buffer[..current_write_idx],
self,
sender_id,
tc_sender,
conn_result.num_received_tcs += parse_buffer_for_ccsds_space_packets(
&mut tc_buffer[..current_write_idx],
self.packet_id_lookup.as_ref(),
tc_receiver.upcast_mut(),
next_write_idx,
)
.map_err(|e| TcpTmtcError::TcError(e))?;
if let Some(broken_tail_start) = parse_result.incomplete_tail_start {
// Copy broken tail to front of buffer.
tc_buffer.copy_within(broken_tail_start..current_write_idx, 0);
*next_write_idx = current_write_idx - broken_tail_start;
}
conn_result.num_received_tcs += parse_result.packets_found;
Ok(())
}
}
@ -51,8 +55,8 @@ impl<TmError, TcError> TcpTmSender<TmError, TcError> for SpacepacketsTmSender {
fn handle_tm_sending(
&mut self,
tm_buffer: &mut [u8],
tm_source: &mut (impl PacketSource<Error = TmError> + ?Sized),
conn_result: &mut HandledConnectionInfo,
tm_source: &mut (impl TmPacketSource<Error = TmError> + ?Sized),
conn_result: &mut ConnectionResult,
stream: &mut TcpStream,
) -> Result<bool, TcpTmtcError<TmError, TcError>> {
let mut tm_was_sent = false;
@ -79,41 +83,35 @@ impl<TmError, TcError> TcpTmSender<TmError, TcError> for SpacepacketsTmSender {
///
/// This serves only works if
/// [CCSDS 133.0-B-2 space packets](https://public.ccsds.org/Pubs/133x0b2e1.pdf) are the only
/// packet type being exchanged. It uses the CCSDS space packet header [spacepackets::SpHeader] and
/// a user specified [SpacePacketValidator] to determine the space packets relevant for further
/// processing.
/// packet type being exchanged. It uses the CCSDS [spacepackets::PacketId] as the packet delimiter
/// and start marker when parsing for packets. The user specifies a set of expected
/// [spacepackets::PacketId]s as part of the server configuration for that purpose.
///
/// ## Example
///
/// The [TCP server integration tests](https://egit.irs.uni-stuttgart.de/rust/sat-rs/src/branch/main/satrs/tests/tcp_servers.rs)
/// The [TCP server integration tests](https://egit.irs.uni-stuttgart.de/rust/sat-rs/src/branch/main/satrs-core/tests/tcp_servers.rs)
/// also serves as the example application for this module.
pub struct TcpSpacepacketsServer<
TmSource: PacketSource<Error = TmError>,
TcSender: PacketSenderRaw<Error = SendError>,
Validator: SpacePacketValidator,
HandledConnection: HandledConnectionHandler,
TmError,
SendError: 'static,
TcError: 'static,
TmSource: TmPacketSource<Error = TmError>,
TcReceiver: ReceivesTc<Error = TcError>,
> {
pub generic_server: TcpTmtcGenericServer<
TmSource,
TcSender,
SpacepacketsTmSender,
Validator,
HandledConnection,
generic_server: TcpTmtcGenericServer<
TmError,
SendError,
TcError,
TmSource,
TcReceiver,
SpacepacketsTmSender,
SpacepacketsTcParser,
>,
}
impl<
TmSource: PacketSource<Error = TmError>,
TcSender: PacketSenderRaw<Error = TcError>,
Validator: SpacePacketValidator,
HandledConnection: HandledConnectionHandler,
TmError: 'static,
TcError: 'static,
> TcpSpacepacketsServer<TmSource, TcSender, Validator, HandledConnection, TmError, TcError>
TmSource: TmPacketSource<Error = TmError>,
TcReceiver: ReceivesTc<Error = TcError>,
> TcpSpacepacketsServer<TmError, TcError, TmSource, TcReceiver>
{
///
/// ## Parameter
@ -121,31 +119,23 @@ impl<
/// * `cfg` - Configuration of the server.
/// * `tm_source` - Generic TM source used by the server to pull telemetry packets which are
/// then sent back to the client.
/// * `tc_sender` - Any received telecommands which were decoded successfully will be
/// forwarded using this [PacketSenderRaw].
/// * `validator` - Used to determine the space packets relevant for further processing and
/// to detect broken space packets.
/// * `handled_connection_hook` - Called to notify the user about a succesfully handled
/// connection.
/// * `stop_signal` - Can be used to shut down the TCP server even for longer running
/// connections.
/// * `tc_receiver` - Any received telecommands which were decoded successfully will be
/// forwarded to this TC receiver.
/// * `packet_id_lookup` - This lookup table contains the relevant packets IDs for packet
/// parsing. This mechanism is used to have a start marker for finding CCSDS packets.
pub fn new(
cfg: ServerConfig,
tm_source: TmSource,
tc_sender: TcSender,
validator: Validator,
handled_connection_hook: HandledConnection,
stop_signal: Option<Arc<AtomicBool>>,
tc_receiver: TcReceiver,
packet_id_lookup: Box<dyn PacketIdLookup + Send>,
) -> Result<Self, std::io::Error> {
Ok(Self {
generic_server: TcpTmtcGenericServer::new(
cfg,
validator,
SpacepacketsTcParser::new(packet_id_lookup),
SpacepacketsTmSender::default(),
tm_source,
tc_sender,
handled_connection_hook,
stop_signal,
tc_receiver,
)?,
})
}
@ -158,10 +148,9 @@ impl<
/// useful if using the port number 0 for OS auto-assignment.
pub fn local_addr(&self) -> std::io::Result<SocketAddr>;
/// Delegation to the [TcpTmtcGenericServer::handle_all_connections] call.
pub fn handle_all_connections(
/// Delegation to the [TcpTmtcGenericServer::handle_next_connection] call.
pub fn handle_next_connection(
&mut self,
poll_timeout: Option<Duration>
) -> Result<ConnectionResult, TcpTmtcError<TmError, TcError>>;
}
}
@ -178,70 +167,39 @@ mod tests {
use std::{
io::{Read, Write},
net::{IpAddr, Ipv4Addr, SocketAddr, TcpStream},
sync::mpsc,
thread,
};
use alloc::sync::Arc;
use alloc::{boxed::Box, sync::Arc};
use hashbrown::HashSet;
use spacepackets::{
ecss::{tc::PusTcCreator, WritablePusPacket},
CcsdsPacket, PacketId, SpHeader,
PacketId, SpHeader,
};
use crate::{
encoding::ccsds::{SpValidity, SpacePacketValidator},
hal::std::tcp_server::{
tests::{ConnectionFinishedHandler, SyncTmSource},
ConnectionResult, ServerConfig,
},
queue::GenericSendError,
tmtc::PacketAsVec,
ComponentId,
use crate::hal::std::tcp_server::{
tests::{SyncTcCacher, SyncTmSource},
ServerConfig,
};
use super::TcpSpacepacketsServer;
const TCP_SERVER_ID: ComponentId = 0x05;
const TEST_APID_0: u16 = 0x02;
const TEST_PACKET_ID_0: PacketId = PacketId::new_for_tc(true, TEST_APID_0);
const TEST_PACKET_ID_0: PacketId = PacketId::const_tc(true, TEST_APID_0);
const TEST_APID_1: u16 = 0x10;
const TEST_PACKET_ID_1: PacketId = PacketId::new_for_tc(true, TEST_APID_1);
#[derive(Default)]
pub struct SimpleValidator(pub HashSet<PacketId>);
impl SpacePacketValidator for SimpleValidator {
fn validate(&self, sp_header: &SpHeader, _raw_buf: &[u8]) -> SpValidity {
if self.0.contains(&sp_header.packet_id()) {
return SpValidity::Valid;
}
// Simple case: Assume that the interface always contains valid space packets.
SpValidity::Skip
}
}
const TEST_PACKET_ID_1: PacketId = PacketId::const_tc(true, TEST_APID_1);
fn generic_tmtc_server(
addr: &SocketAddr,
tc_sender: mpsc::Sender<PacketAsVec>,
tc_receiver: SyncTcCacher,
tm_source: SyncTmSource,
validator: SimpleValidator,
stop_signal: Option<Arc<AtomicBool>>,
) -> TcpSpacepacketsServer<
SyncTmSource,
mpsc::Sender<PacketAsVec>,
SimpleValidator,
ConnectionFinishedHandler,
(),
GenericSendError,
> {
packet_id_lookup: HashSet<PacketId>,
) -> TcpSpacepacketsServer<(), (), SyncTmSource, SyncTcCacher> {
TcpSpacepacketsServer::new(
ServerConfig::new(TCP_SERVER_ID, *addr, Duration::from_millis(2), 1024, 1024),
ServerConfig::new(*addr, Duration::from_millis(2), 1024, 1024),
tm_source,
tc_sender,
validator,
ConnectionFinishedHandler::default(),
stop_signal,
tc_receiver,
Box::new(packet_id_lookup),
)
.expect("TCP server generation failed")
}
@ -249,16 +207,15 @@ mod tests {
#[test]
fn test_basic_tc_only() {
let auto_port_addr = SocketAddr::new(IpAddr::V4(Ipv4Addr::new(127, 0, 0, 1)), 0);
let (tc_sender, tc_receiver) = mpsc::channel();
let tc_receiver = SyncTcCacher::default();
let tm_source = SyncTmSource::default();
let mut validator = SimpleValidator::default();
validator.0.insert(TEST_PACKET_ID_0);
let mut packet_id_lookup = HashSet::new();
packet_id_lookup.insert(TEST_PACKET_ID_0);
let mut tcp_server = generic_tmtc_server(
&auto_port_addr,
tc_sender.clone(),
tc_receiver.clone(),
tm_source,
validator,
None,
packet_id_lookup,
);
let dest_addr = tcp_server
.local_addr()
@ -267,24 +224,17 @@ mod tests {
let set_if_done = conn_handled.clone();
// Call the connection handler in separate thread, does block.
thread::spawn(move || {
let result = tcp_server.handle_all_connections(Some(Duration::from_millis(100)));
let result = tcp_server.handle_next_connection();
if result.is_err() {
panic!("handling connection failed: {:?}", result.unwrap_err());
}
let conn_result = result.unwrap();
matches!(conn_result, ConnectionResult::HandledConnections(1));
tcp_server
.generic_server
.finished_handler
.check_last_connection(0, 1);
tcp_server
.generic_server
.finished_handler
.check_no_connections_left();
assert_eq!(conn_result.num_received_tcs, 1);
assert_eq!(conn_result.num_sent_tms, 0);
set_if_done.store(true, Ordering::Relaxed);
});
let ping_tc =
PusTcCreator::new_simple(SpHeader::new_from_apid(TEST_APID_0), 17, 1, &[], true);
let mut sph = SpHeader::tc_unseg(TEST_APID_0, 0, 0).unwrap();
let ping_tc = PusTcCreator::new_simple(&mut sph, 17, 1, None, true);
let tc_0 = ping_tc.to_vec().expect("packet generation failed");
let mut stream = TcpStream::connect(dest_addr).expect("connecting to TCP server failed");
stream
@ -301,40 +251,40 @@ mod tests {
if !conn_handled.load(Ordering::Relaxed) {
panic!("connection was not handled properly");
}
let packet = tc_receiver.try_recv().expect("receiving TC failed");
assert_eq!(packet.packet, tc_0);
matches!(tc_receiver.try_recv(), Err(mpsc::TryRecvError::Empty));
// Check that TC has arrived.
let mut tc_queue = tc_receiver.tc_queue.lock().unwrap();
assert_eq!(tc_queue.len(), 1);
assert_eq!(tc_queue.pop_front().unwrap(), tc_0);
}
#[test]
fn test_multi_tc_multi_tm() {
let auto_port_addr = SocketAddr::new(IpAddr::V4(Ipv4Addr::new(127, 0, 0, 1)), 0);
let (tc_sender, tc_receiver) = mpsc::channel();
let tc_receiver = SyncTcCacher::default();
let mut tm_source = SyncTmSource::default();
// Add telemetry
let mut total_tm_len = 0;
let verif_tm =
PusTcCreator::new_simple(SpHeader::new_from_apid(TEST_APID_0), 1, 1, &[], true);
let mut sph = SpHeader::tc_unseg(TEST_APID_0, 0, 0).unwrap();
let verif_tm = PusTcCreator::new_simple(&mut sph, 1, 1, None, true);
let tm_0 = verif_tm.to_vec().expect("writing packet failed");
total_tm_len += tm_0.len();
tm_source.add_tm(&tm_0);
let verif_tm =
PusTcCreator::new_simple(SpHeader::new_from_apid(TEST_APID_1), 1, 3, &[], true);
let mut sph = SpHeader::tc_unseg(TEST_APID_1, 0, 0).unwrap();
let verif_tm = PusTcCreator::new_simple(&mut sph, 1, 3, None, true);
let tm_1 = verif_tm.to_vec().expect("writing packet failed");
total_tm_len += tm_1.len();
tm_source.add_tm(&tm_1);
// Set up server
let mut validator = SimpleValidator::default();
validator.0.insert(TEST_PACKET_ID_0);
validator.0.insert(TEST_PACKET_ID_1);
let mut packet_id_lookup = HashSet::new();
packet_id_lookup.insert(TEST_PACKET_ID_0);
packet_id_lookup.insert(TEST_PACKET_ID_1);
let mut tcp_server = generic_tmtc_server(
&auto_port_addr,
tc_sender.clone(),
tc_receiver.clone(),
tm_source,
validator,
None,
packet_id_lookup,
);
let dest_addr = tcp_server
.local_addr()
@ -344,20 +294,16 @@ mod tests {
// Call the connection handler in separate thread, does block.
thread::spawn(move || {
let result = tcp_server.handle_all_connections(Some(Duration::from_millis(100)));
let result = tcp_server.handle_next_connection();
if result.is_err() {
panic!("handling connection failed: {:?}", result.unwrap_err());
}
let conn_result = result.unwrap();
matches!(conn_result, ConnectionResult::HandledConnections(1));
tcp_server
.generic_server
.finished_handler
.check_last_connection(2, 2);
tcp_server
.generic_server
.finished_handler
.check_no_connections_left();
assert_eq!(
conn_result.num_received_tcs, 2,
"wrong number of received TCs"
);
assert_eq!(conn_result.num_sent_tms, 2, "wrong number of sent TMs");
set_if_done.store(true, Ordering::Relaxed);
});
let mut stream = TcpStream::connect(dest_addr).expect("connecting to TCP server failed");
@ -366,14 +312,14 @@ mod tests {
.expect("setting reas timeout failed");
// Send telecommands
let ping_tc =
PusTcCreator::new_simple(SpHeader::new_from_apid(TEST_APID_0), 17, 1, &[], true);
let mut sph = SpHeader::tc_unseg(TEST_APID_0, 0, 0).unwrap();
let ping_tc = PusTcCreator::new_simple(&mut sph, 17, 1, None, true);
let tc_0 = ping_tc.to_vec().expect("ping tc creation failed");
stream
.write_all(&tc_0)
.expect("writing to TCP server failed");
let action_tc =
PusTcCreator::new_simple(SpHeader::new_from_apid(TEST_APID_1), 8, 0, &[], true);
let mut sph = SpHeader::tc_unseg(TEST_APID_1, 0, 0).unwrap();
let action_tc = PusTcCreator::new_simple(&mut sph, 8, 0, None, true);
let tc_1 = action_tc.to_vec().expect("action tc creation failed");
stream
.write_all(&tc_1)
@ -408,10 +354,9 @@ mod tests {
panic!("connection was not handled properly");
}
// Check that TC has arrived.
let packet_0 = tc_receiver.try_recv().expect("receiving TC failed");
assert_eq!(packet_0.packet, tc_0);
let packet_1 = tc_receiver.try_recv().expect("receiving TC failed");
assert_eq!(packet_1.packet, tc_1);
matches!(tc_receiver.try_recv(), Err(mpsc::TryRecvError::Empty));
let mut tc_queue = tc_receiver.tc_queue.lock().unwrap();
assert_eq!(tc_queue.len(), 2);
assert_eq!(tc_queue.pop_front().unwrap(), tc_0);
assert_eq!(tc_queue.pop_front().unwrap(), tc_1);
}
}

View File

@ -1,8 +1,7 @@
//! Generic UDP TC server.
use crate::tmtc::PacketSenderRaw;
use crate::ComponentId;
use core::fmt::Debug;
use std::io::{self, ErrorKind};
use crate::tmtc::{ReceivesTc, ReceivesTcCore};
use std::boxed::Box;
use std::io::{Error, ErrorKind};
use std::net::{SocketAddr, ToSocketAddrs, UdpSocket};
use std::vec;
use std::vec::Vec;
@ -12,46 +11,45 @@ use std::vec::Vec;
///
/// It caches all received telecomands into a vector. The maximum expected telecommand size should
/// be declared upfront. This avoids dynamic allocation during run-time. The user can specify a TC
/// sender in form of a special trait object which implements [PacketSenderRaw]. For example, this
/// can be used to send the telecommands to a centralized TC source component for further
/// processing and routing.
/// receiver in form of a special trait object which implements [ReceivesTc]. Please note that the
/// receiver should copy out the received data if it the data is required past the
/// [ReceivesTcCore::pass_tc] call.
///
/// # Examples
///
/// ```
/// use std::net::{IpAddr, Ipv4Addr, SocketAddr, UdpSocket};
/// use std::sync::mpsc;
/// use spacepackets::ecss::WritablePusPacket;
/// use satrs::hal::std::udp_server::UdpTcServer;
/// use satrs::ComponentId;
/// use satrs::tmtc::PacketSenderRaw;
/// use satrs_core::hal::std::udp_server::UdpTcServer;
/// use satrs_core::tmtc::{ReceivesTc, ReceivesTcCore};
/// use spacepackets::SpHeader;
/// use spacepackets::ecss::tc::PusTcCreator;
///
/// const UDP_SERVER_ID: ComponentId = 0x05;
/// #[derive (Default)]
/// struct PingReceiver {}
/// impl ReceivesTcCore for PingReceiver {
/// type Error = ();
/// fn pass_tc(&mut self, tc_raw: &[u8]) -> Result<(), Self::Error> {
/// assert_eq!(tc_raw.len(), 13);
/// Ok(())
/// }
/// }
///
/// let (packet_sender, packet_receiver) = mpsc::channel();
/// let mut buf = [0; 32];
/// let dest_addr = SocketAddr::new(IpAddr::V4(Ipv4Addr::new(127, 0, 0, 1)), 7777);
/// let mut udp_tc_server = UdpTcServer::new(UDP_SERVER_ID, dest_addr, 2048, packet_sender)
/// let ping_receiver = PingReceiver::default();
/// let mut udp_tc_server = UdpTcServer::new(dest_addr, 2048, Box::new(ping_receiver))
/// .expect("Creating UDP TMTC server failed");
/// let sph = SpHeader::new_from_apid(0x02);
/// let pus_tc = PusTcCreator::new_simple(sph, 17, 1, &[], true);
/// // Can not fail.
/// let ping_tc_raw = pus_tc.to_vec().unwrap();
///
/// // Now create a UDP client and send the ping telecommand to the server.
/// let client = UdpSocket::bind("127.0.0.1:0").expect("creating UDP client failed");
/// let mut sph = SpHeader::tc_unseg(0x02, 0, 0).unwrap();
/// let pus_tc = PusTcCreator::new_simple(&mut sph, 17, 1, None, true);
/// let len = pus_tc
/// .write_to_bytes(&mut buf)
/// .expect("Error writing PUS TC packet");
/// assert_eq!(len, 13);
/// let client = UdpSocket::bind("127.0.0.1:7778").expect("Connecting to UDP server failed");
/// client
/// .send_to(&ping_tc_raw, dest_addr)
/// .send_to(&buf[0..len], dest_addr)
/// .expect("Error sending PUS TC via UDP");
/// let recv_result = udp_tc_server.try_recv_tc();
/// assert!(recv_result.is_ok());
/// // The packet is received by the UDP TC server and sent via the mpsc channel.
/// let sent_packet_with_sender = packet_receiver.try_recv().expect("expected telecommand");
/// assert_eq!(sent_packet_with_sender.packet, ping_tc_raw);
/// assert_eq!(sent_packet_with_sender.sender_id, UDP_SERVER_ID);
/// // No more packets received.
/// matches!(packet_receiver.try_recv(), Err(mpsc::TryRecvError::Empty));
/// ```
///
/// The [satrs-example crate](https://egit.irs.uni-stuttgart.de/rust/fsrc-launchpad/src/branch/main/satrs-example)
@ -59,45 +57,65 @@ use std::vec::Vec;
/// [example code](https://egit.irs.uni-stuttgart.de/rust/sat-rs/src/branch/main/satrs-example/src/tmtc.rs#L67)
/// on how to use this TC server. It uses the server to receive PUS telecommands on a specific port
/// and then forwards them to a generic CCSDS packet receiver.
pub struct UdpTcServer<TcSender: PacketSenderRaw<Error = SendError>, SendError> {
pub id: ComponentId,
pub struct UdpTcServer<E> {
pub socket: UdpSocket,
recv_buf: Vec<u8>,
sender_addr: Option<SocketAddr>,
pub tc_sender: TcSender,
tc_receiver: Box<dyn ReceivesTc<Error = E>>,
}
#[derive(Debug, thiserror::Error)]
pub enum ReceiveResult<SendError: Debug + 'static> {
#[error("nothing was received")]
#[derive(Debug)]
pub enum ReceiveResult<E> {
NothingReceived,
#[error(transparent)]
Io(#[from] io::Error),
#[error(transparent)]
Send(SendError),
IoError(Error),
ReceiverError(E),
}
impl<TcSender: PacketSenderRaw<Error = SendError>, SendError: Debug + 'static>
UdpTcServer<TcSender, SendError>
{
impl<E> From<Error> for ReceiveResult<E> {
fn from(e: Error) -> Self {
ReceiveResult::IoError(e)
}
}
impl<E: PartialEq> PartialEq for ReceiveResult<E> {
fn eq(&self, other: &Self) -> bool {
use ReceiveResult::*;
match (self, other) {
(IoError(ref e), IoError(ref other_e)) => e.kind() == other_e.kind(),
(NothingReceived, NothingReceived) => true,
(ReceiverError(e), ReceiverError(other_e)) => e == other_e,
_ => false,
}
}
}
impl<E: Eq + PartialEq> Eq for ReceiveResult<E> {}
impl<E: 'static> ReceivesTcCore for UdpTcServer<E> {
type Error = E;
fn pass_tc(&mut self, tc_raw: &[u8]) -> Result<(), Self::Error> {
self.tc_receiver.pass_tc(tc_raw)
}
}
impl<E: 'static> UdpTcServer<E> {
pub fn new<A: ToSocketAddrs>(
id: ComponentId,
addr: A,
max_recv_size: usize,
tc_sender: TcSender,
) -> Result<Self, io::Error> {
tc_receiver: Box<dyn ReceivesTc<Error = E>>,
) -> Result<Self, Error> {
let server = Self {
id,
socket: UdpSocket::bind(addr)?,
recv_buf: vec![0; max_recv_size],
sender_addr: None,
tc_sender,
tc_receiver,
};
server.socket.set_nonblocking(true)?;
Ok(server)
}
pub fn try_recv_tc(&mut self) -> Result<(usize, SocketAddr), ReceiveResult<SendError>> {
pub fn try_recv_tc(&mut self) -> Result<(usize, SocketAddr), ReceiveResult<E>> {
let res = match self.socket.recv_from(&mut self.recv_buf) {
Ok(res) => res,
Err(e) => {
@ -110,9 +128,9 @@ impl<TcSender: PacketSenderRaw<Error = SendError>, SendError: Debug + 'static>
};
let (num_bytes, from) = res;
self.sender_addr = Some(from);
self.tc_sender
.send_packet(self.id, &self.recv_buf[0..num_bytes])
.map_err(ReceiveResult::Send)?;
self.tc_receiver
.pass_tc(&self.recv_buf[0..num_bytes])
.map_err(|e| ReceiveResult::ReceiverError(e))?;
Ok(res)
}
@ -124,35 +142,29 @@ impl<TcSender: PacketSenderRaw<Error = SendError>, SendError: Debug + 'static>
#[cfg(test)]
mod tests {
use crate::hal::std::udp_server::{ReceiveResult, UdpTcServer};
use crate::queue::GenericSendError;
use crate::tmtc::PacketSenderRaw;
use crate::ComponentId;
use core::cell::RefCell;
use crate::tmtc::ReceivesTcCore;
use spacepackets::ecss::tc::PusTcCreator;
use spacepackets::ecss::WritablePusPacket;
use spacepackets::SpHeader;
use std::boxed::Box;
use std::collections::VecDeque;
use std::net::{IpAddr, Ipv4Addr, SocketAddr, UdpSocket};
use std::vec::Vec;
fn is_send<T: Send>(_: &T) {}
const UDP_SERVER_ID: ComponentId = 0x05;
#[derive(Default)]
struct PingReceiver {
pub sent_cmds: RefCell<VecDeque<Vec<u8>>>,
pub sent_cmds: VecDeque<Vec<u8>>,
}
impl PacketSenderRaw for PingReceiver {
type Error = GenericSendError;
impl ReceivesTcCore for PingReceiver {
type Error = ();
fn send_packet(&self, sender_id: ComponentId, tc_raw: &[u8]) -> Result<(), Self::Error> {
assert_eq!(sender_id, UDP_SERVER_ID);
fn pass_tc(&mut self, tc_raw: &[u8]) -> Result<(), Self::Error> {
let mut sent_data = Vec::new();
sent_data.extend_from_slice(tc_raw);
let mut queue = self.sent_cmds.borrow_mut();
queue.push_back(sent_data);
self.sent_cmds.push_back(sent_data);
Ok(())
}
}
@ -163,11 +175,11 @@ mod tests {
let dest_addr = SocketAddr::new(IpAddr::V4(Ipv4Addr::new(127, 0, 0, 1)), 7777);
let ping_receiver = PingReceiver::default();
is_send(&ping_receiver);
let mut udp_tc_server = UdpTcServer::new(UDP_SERVER_ID, dest_addr, 2048, ping_receiver)
let mut udp_tc_server = UdpTcServer::new(dest_addr, 2048, Box::new(ping_receiver))
.expect("Creating UDP TMTC server failed");
is_send(&udp_tc_server);
let sph = SpHeader::new_from_apid(0x02);
let pus_tc = PusTcCreator::new_simple(sph, 17, 1, &[], true);
let mut sph = SpHeader::tc_unseg(0x02, 0, 0).unwrap();
let pus_tc = PusTcCreator::new_simple(&mut sph, 17, 1, None, true);
let len = pus_tc
.write_to_bytes(&mut buf)
.expect("Error writing PUS TC packet");
@ -183,10 +195,9 @@ mod tests {
udp_tc_server.last_sender().expect("No sender set"),
local_addr
);
let ping_receiver = &mut udp_tc_server.tc_sender;
let mut queue = ping_receiver.sent_cmds.borrow_mut();
assert_eq!(queue.len(), 1);
let sent_cmd = queue.pop_front().unwrap();
let ping_receiver: &mut PingReceiver = udp_tc_server.tc_receiver.downcast_mut().unwrap();
assert_eq!(ping_receiver.sent_cmds.len(), 1);
let sent_cmd = ping_receiver.sent_cmds.pop_front().unwrap();
assert_eq!(sent_cmd, buf[0..len]);
}
@ -194,11 +205,11 @@ mod tests {
fn test_nothing_received() {
let dest_addr = SocketAddr::new(IpAddr::V4(Ipv4Addr::new(127, 0, 0, 1)), 7779);
let ping_receiver = PingReceiver::default();
let mut udp_tc_server = UdpTcServer::new(UDP_SERVER_ID, dest_addr, 2048, ping_receiver)
let mut udp_tc_server = UdpTcServer::new(dest_addr, 2048, Box::new(ping_receiver))
.expect("Creating UDP TMTC server failed");
let res = udp_tc_server.try_recv_tc();
assert!(res.is_err());
let err = res.unwrap_err();
matches!(err, ReceiveResult::NothingReceived);
assert_eq!(err, ReceiveResult::NothingReceived);
}
}

16
satrs-core/src/hk.rs Normal file
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@ -0,0 +1,16 @@
pub type CollectionIntervalFactor = u32;
pub type UniqueId = u32;
#[derive(Debug, Copy, Clone, PartialEq, Eq)]
pub enum HkRequest {
OneShot(UniqueId),
Enable(UniqueId),
Disable(UniqueId),
ModifyCollectionInterval(UniqueId, CollectionIntervalFactor),
}
#[derive(Debug, Copy, Clone, PartialEq, Eq)]
pub struct TargetedHkRequest {
target: u32,
hk_request: HkRequest,
}

50
satrs-core/src/lib.rs Normal file
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@ -0,0 +1,50 @@
//! # Core components of the sat-rs framework
//!
//! You can find more information about the sat-rs framework on the
//! [homepage](https://egit.irs.uni-stuttgart.de/rust/sat-rs).
//!
//! ## Overview
//!
//! The core modules of this crate include
//!
//! - The [event manager][event_man] module which provides a publish and
//! and subscribe to route events.
//! - The [pus] module which provides special support for projects using
//! the [ECSS PUS C standard](https://ecss.nl/standard/ecss-e-st-70-41c-space-engineering-telemetry-and-telecommand-packet-utilization-15-april-2016/).
#![no_std]
#![cfg_attr(doc_cfg, feature(doc_cfg))]
#[cfg(feature = "alloc")]
extern crate alloc;
#[cfg(feature = "alloc")]
extern crate downcast_rs;
#[cfg(any(feature = "std", test))]
extern crate std;
#[cfg(feature = "alloc")]
#[cfg_attr(doc_cfg, doc(cfg(feature = "alloc")))]
pub mod cfdp;
pub mod encoding;
#[cfg(feature = "alloc")]
#[cfg_attr(doc_cfg, doc(cfg(feature = "alloc")))]
pub mod event_man;
pub mod events;
#[cfg(feature = "std")]
#[cfg_attr(doc_cfg, doc(cfg(feature = "std")))]
pub mod executable;
pub mod hal;
pub mod hk;
pub mod mode;
pub mod objects;
pub mod params;
pub mod pool;
pub mod power;
pub mod pus;
pub mod request;
pub mod res_code;
pub mod seq_count;
pub mod tmtc;
pub use spacepackets;
// Generic channel ID type.
pub type ChannelId = u32;

94
satrs-core/src/mode.rs Normal file
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@ -0,0 +1,94 @@
use crate::tmtc::TargetId;
use core::mem::size_of;
#[cfg(feature = "serde")]
use serde::{Deserialize, Serialize};
use spacepackets::ByteConversionError;
#[derive(Debug, Copy, Clone, PartialEq, Eq)]
#[cfg_attr(feature = "serde", derive(Serialize, Deserialize))]
pub struct ModeAndSubmode {
mode: u32,
submode: u16,
}
impl ModeAndSubmode {
pub const fn new_mode_only(mode: u32) -> Self {
Self { mode, submode: 0 }
}
pub const fn new(mode: u32, submode: u16) -> Self {
Self { mode, submode }
}
pub fn raw_len() -> usize {
size_of::<u32>() + size_of::<u16>()
}
pub fn from_be_bytes(buf: &[u8]) -> Result<Self, ByteConversionError> {
if buf.len() < 6 {
return Err(ByteConversionError::FromSliceTooSmall {
expected: 6,
found: buf.len(),
});
}
Ok(Self {
mode: u32::from_be_bytes(buf[0..4].try_into().unwrap()),
submode: u16::from_be_bytes(buf[4..6].try_into().unwrap()),
})
}
pub fn mode(&self) -> u32 {
self.mode
}
pub fn submode(&self) -> u16 {
self.submode
}
}
#[derive(Debug, Copy, Clone, PartialEq, Eq)]
#[cfg_attr(feature = "serde", derive(Serialize, Deserialize))]
pub struct ModeCommand {
pub address: TargetId,
pub mode_submode: ModeAndSubmode,
}
impl ModeCommand {
pub const fn new(address: TargetId, mode_submode: ModeAndSubmode) -> Self {
Self {
address,
mode_submode,
}
}
pub fn address(&self) -> TargetId {
self.address
}
pub fn mode_submode(&self) -> ModeAndSubmode {
self.mode_submode
}
pub fn mode(&self) -> u32 {
self.mode_submode.mode
}
pub fn submode(&self) -> u16 {
self.mode_submode.submode
}
}
#[derive(Debug, Copy, Clone, PartialEq, Eq)]
#[cfg_attr(feature = "serde", derive(Serialize, Deserialize))]
pub enum ModeRequest {
SetMode(ModeAndSubmode),
ReadMode,
AnnounceMode,
AnnounceModeRecursive,
}
#[derive(Debug, Copy, Clone, PartialEq, Eq)]
#[cfg_attr(feature = "serde", derive(Serialize, Deserialize))]
pub struct TargetedModeRequest {
target_id: TargetId,
mode_request: ModeRequest,
}

307
satrs-core/src/objects.rs Normal file
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@ -0,0 +1,307 @@
//! # Module providing addressable object support and a manager for them
//!
//! Each addressable object can be identified using an [object ID][ObjectId].
//! The [system object][ManagedSystemObject] trait also allows storing these objects into the
//! [object manager][ObjectManager]. They can then be retrieved and casted back to a known type
//! using the object ID.
//!
//! # Examples
//!
//! ```rust
//! use std::any::Any;
//! use std::error::Error;
//! use satrs_core::objects::{ManagedSystemObject, ObjectId, ObjectManager, SystemObject};
//!
//! struct ExampleSysObj {
//! id: ObjectId,
//! dummy: u32,
//! was_initialized: bool,
//! }
//!
//! impl ExampleSysObj {
//! fn new(id: ObjectId, dummy: u32) -> ExampleSysObj {
//! ExampleSysObj {
//! id,
//! dummy,
//! was_initialized: false,
//! }
//! }
//! }
//!
//! impl SystemObject for ExampleSysObj {
//! type Error = ();
//! fn get_object_id(&self) -> &ObjectId {
//! &self.id
//! }
//!
//! fn initialize(&mut self) -> Result<(), Self::Error> {
//! self.was_initialized = true;
//! Ok(())
//! }
//! }
//!
//! impl ManagedSystemObject for ExampleSysObj {}
//!
//! let mut obj_manager = ObjectManager::default();
//! let obj_id = ObjectId { id: 0, name: "Example 0"};
//! let example_obj = ExampleSysObj::new(obj_id, 42);
//! obj_manager.insert(Box::new(example_obj));
//! let obj_back_casted: Option<&ExampleSysObj> = obj_manager.get_ref(&obj_id);
//! let example_obj = obj_back_casted.unwrap();
//! assert_eq!(example_obj.id, obj_id);
//! assert_eq!(example_obj.dummy, 42);
//! ```
use crate::tmtc::TargetId;
#[cfg(feature = "alloc")]
use alloc::boxed::Box;
#[cfg(feature = "alloc")]
pub use alloc_mod::*;
#[cfg(feature = "alloc")]
use downcast_rs::Downcast;
#[cfg(feature = "alloc")]
use hashbrown::HashMap;
#[cfg(feature = "std")]
use std::error::Error;
#[derive(PartialEq, Eq, Hash, Copy, Clone, Debug)]
pub struct ObjectId {
pub id: TargetId,
pub name: &'static str,
}
#[cfg(feature = "alloc")]
pub mod alloc_mod {
use super::*;
/// Each object which is stored inside the [object manager][ObjectManager] needs to implemented
/// this trait
pub trait SystemObject: Downcast {
type Error;
fn get_object_id(&self) -> &ObjectId;
fn initialize(&mut self) -> Result<(), Self::Error>;
}
downcast_rs::impl_downcast!(SystemObject assoc Error);
pub trait ManagedSystemObject: SystemObject + Send {}
downcast_rs::impl_downcast!(ManagedSystemObject assoc Error);
/// Helper module to manage multiple [ManagedSystemObjects][ManagedSystemObject] by mapping them
/// using an [object ID][ObjectId]
#[cfg(feature = "alloc")]
pub struct ObjectManager<E> {
obj_map: HashMap<ObjectId, Box<dyn ManagedSystemObject<Error = E>>>,
}
#[cfg(feature = "alloc")]
impl<E: 'static> Default for ObjectManager<E> {
fn default() -> Self {
Self::new()
}
}
#[cfg(feature = "alloc")]
impl<E: 'static> ObjectManager<E> {
pub fn new() -> Self {
ObjectManager {
obj_map: HashMap::new(),
}
}
pub fn insert(&mut self, sys_obj: Box<dyn ManagedSystemObject<Error = E>>) -> bool {
let obj_id = sys_obj.get_object_id();
if self.obj_map.contains_key(obj_id) {
return false;
}
self.obj_map.insert(*obj_id, sys_obj).is_none()
}
/// Initializes all System Objects in the hash map and returns the number of successful
/// initializations
pub fn initialize(&mut self) -> Result<u32, Box<dyn Error>> {
let mut init_success = 0;
for val in self.obj_map.values_mut() {
if val.initialize().is_ok() {
init_success += 1
}
}
Ok(init_success)
}
/// Retrieve a reference to an object stored inside the manager. The type to retrieve needs to
/// be explicitly passed as a generic parameter or specified on the left hand side of the
/// expression.
pub fn get_ref<T: ManagedSystemObject<Error = E>>(&self, key: &ObjectId) -> Option<&T> {
self.obj_map.get(key).and_then(|o| o.downcast_ref::<T>())
}
/// Retrieve a mutable reference to an object stored inside the manager. The type to retrieve
/// needs to be explicitly passed as a generic parameter or specified on the left hand side
/// of the expression.
pub fn get_mut<T: ManagedSystemObject<Error = E>>(
&mut self,
key: &ObjectId,
) -> Option<&mut T> {
self.obj_map
.get_mut(key)
.and_then(|o| o.downcast_mut::<T>())
}
}
}
#[cfg(test)]
mod tests {
use crate::objects::{ManagedSystemObject, ObjectId, ObjectManager, SystemObject};
use std::boxed::Box;
use std::string::String;
use std::sync::{Arc, Mutex};
use std::thread;
struct ExampleSysObj {
id: ObjectId,
dummy: u32,
was_initialized: bool,
}
impl ExampleSysObj {
fn new(id: ObjectId, dummy: u32) -> ExampleSysObj {
ExampleSysObj {
id,
dummy,
was_initialized: false,
}
}
}
impl SystemObject for ExampleSysObj {
type Error = ();
fn get_object_id(&self) -> &ObjectId {
&self.id
}
fn initialize(&mut self) -> Result<(), Self::Error> {
self.was_initialized = true;
Ok(())
}
}
impl ManagedSystemObject for ExampleSysObj {}
struct OtherExampleObject {
id: ObjectId,
string: String,
was_initialized: bool,
}
impl SystemObject for OtherExampleObject {
type Error = ();
fn get_object_id(&self) -> &ObjectId {
&self.id
}
fn initialize(&mut self) -> Result<(), Self::Error> {
self.was_initialized = true;
Ok(())
}
}
impl ManagedSystemObject for OtherExampleObject {}
#[test]
fn test_obj_manager_simple() {
let mut obj_manager = ObjectManager::default();
let expl_obj_id = ObjectId {
id: 0,
name: "Example 0",
};
let example_obj = ExampleSysObj::new(expl_obj_id, 42);
assert!(obj_manager.insert(Box::new(example_obj)));
let res = obj_manager.initialize();
assert!(res.is_ok());
assert_eq!(res.unwrap(), 1);
let obj_back_casted: Option<&ExampleSysObj> = obj_manager.get_ref(&expl_obj_id);
assert!(obj_back_casted.is_some());
let expl_obj_back_casted = obj_back_casted.unwrap();
assert_eq!(expl_obj_back_casted.dummy, 42);
assert!(expl_obj_back_casted.was_initialized);
let second_obj_id = ObjectId {
id: 12,
name: "Example 1",
};
let second_example_obj = OtherExampleObject {
id: second_obj_id,
string: String::from("Hello Test"),
was_initialized: false,
};
assert!(obj_manager.insert(Box::new(second_example_obj)));
let res = obj_manager.initialize();
assert!(res.is_ok());
assert_eq!(res.unwrap(), 2);
let obj_back_casted: Option<&OtherExampleObject> = obj_manager.get_ref(&second_obj_id);
assert!(obj_back_casted.is_some());
let expl_obj_back_casted = obj_back_casted.unwrap();
assert_eq!(expl_obj_back_casted.string, String::from("Hello Test"));
assert!(expl_obj_back_casted.was_initialized);
let existing_obj_id = ObjectId {
id: 12,
name: "Example 1",
};
let invalid_obj = OtherExampleObject {
id: existing_obj_id,
string: String::from("Hello Test"),
was_initialized: false,
};
assert!(!obj_manager.insert(Box::new(invalid_obj)));
}
#[test]
fn object_man_threaded() {
let obj_manager = Arc::new(Mutex::new(ObjectManager::new()));
let expl_obj_id = ObjectId {
id: 0,
name: "Example 0",
};
let example_obj = ExampleSysObj::new(expl_obj_id, 42);
let second_obj_id = ObjectId {
id: 12,
name: "Example 1",
};
let second_example_obj = OtherExampleObject {
id: second_obj_id,
string: String::from("Hello Test"),
was_initialized: false,
};
let mut obj_man_handle = obj_manager.lock().expect("Mutex lock failed");
assert!(obj_man_handle.insert(Box::new(example_obj)));
assert!(obj_man_handle.insert(Box::new(second_example_obj)));
let res = obj_man_handle.initialize();
std::mem::drop(obj_man_handle);
assert!(res.is_ok());
assert_eq!(res.unwrap(), 2);
let obj_man_0 = obj_manager.clone();
let jh0 = thread::spawn(move || {
let locked_man = obj_man_0.lock().expect("Mutex lock failed");
let obj_back_casted: Option<&ExampleSysObj> = locked_man.get_ref(&expl_obj_id);
assert!(obj_back_casted.is_some());
let expl_obj_back_casted = obj_back_casted.unwrap();
assert_eq!(expl_obj_back_casted.dummy, 42);
assert!(expl_obj_back_casted.was_initialized);
std::mem::drop(locked_man)
});
let jh1 = thread::spawn(move || {
let locked_man = obj_manager.lock().expect("Mutex lock failed");
let obj_back_casted: Option<&OtherExampleObject> = locked_man.get_ref(&second_obj_id);
assert!(obj_back_casted.is_some());
let expl_obj_back_casted = obj_back_casted.unwrap();
assert_eq!(expl_obj_back_casted.string, String::from("Hello Test"));
assert!(expl_obj_back_casted.was_initialized);
std::mem::drop(locked_man)
});
jh0.join().expect("Joining thread 0 failed");
jh1.join().expect("Joining thread 1 failed");
}
}

679
satrs-core/src/params.rs Normal file
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@ -0,0 +1,679 @@
//! Parameter types and enums.
//!
//! This module contains various helper types.
//!
//! # Primtive Parameter Wrappers and Enumeration
//!
//! This module includes wrapper for primitive rust types using the newtype pattern.
//! This was also done for pairs and triplets of these primitive types.
//! The [WritableToBeBytes] was implemented for all those types as well, which allows to easily
//! convert them into a network friendly raw byte format. The [ParamsRaw] enumeration groups
//! all newtypes and implements the [WritableToBeBytes] trait itself.
//!
//! ## Example for primitive type wrapper
//!
//! ```
//! use satrs_core::params::{ParamsRaw, ToBeBytes, U32Pair, WritableToBeBytes};
//!
//! let u32_pair = U32Pair(0x1010, 25);
//! assert_eq!(u32_pair.0, 0x1010);
//! assert_eq!(u32_pair.1, 25);
//! // Convert to raw stream
//! let raw_buf = u32_pair.to_be_bytes();
//! assert_eq!(raw_buf, [0, 0, 0x10, 0x10, 0, 0, 0, 25]);
//!
//! // Convert to enum variant
//! let params_raw: ParamsRaw = u32_pair.into();
//! assert_eq!(params_raw, (0x1010_u32, 25_u32).into());
//!
//! // Convert to stream using the enum variant
//! let mut other_raw_buf: [u8; 8] = [0; 8];
//! params_raw.write_to_be_bytes(&mut other_raw_buf).expect("Writing parameter to buffer failed");
//! assert_eq!(other_raw_buf, [0, 0, 0x10, 0x10, 0, 0, 0, 25]);
//!
//! // Create a pair from a raw stream
//! let u32_pair_from_stream: U32Pair = raw_buf.as_slice().try_into().unwrap();
//! assert_eq!(u32_pair_from_stream.0, 0x1010);
//! assert_eq!(u32_pair_from_stream.1, 25);
//! ```
//!
//! # Generic Parameter Enumeration
//!
//! The module also contains generic parameter enumerations.
//! This includes the [ParamsHeapless] enumeration for contained values which do not require heap
//! allocation, and the [Params] which enumerates [ParamsHeapless] and some additional types which
//! require [alloc] support but allow for more flexbility.
#[cfg(feature = "alloc")]
use crate::pool::StoreAddr;
#[cfg(feature = "alloc")]
use alloc::string::{String, ToString};
#[cfg(feature = "alloc")]
use alloc::vec::Vec;
use core::fmt::Debug;
use core::mem::size_of;
use paste::paste;
use spacepackets::ecss::{EcssEnumU16, EcssEnumU32, EcssEnumU64, EcssEnumU8};
use spacepackets::util::UnsignedEnum;
use spacepackets::ByteConversionError;
#[cfg(feature = "alloc")]
pub use alloc_mod::*;
pub use spacepackets::util::ToBeBytes;
/// Generic trait which is used for objects which can be converted into a raw network (big) endian
/// byte format.
pub trait WritableToBeBytes {
fn raw_len(&self) -> usize;
/// Writes the object to a raw buffer in network endianness (big)
fn write_to_be_bytes(&self, buf: &mut [u8]) -> Result<usize, ByteConversionError>;
}
macro_rules! param_to_be_bytes_impl {
($Newtype: ident) => {
impl WritableToBeBytes for $Newtype {
#[inline]
fn raw_len(&self) -> usize {
size_of::<<Self as ToBeBytes>::ByteArray>()
}
fn write_to_be_bytes(&self, buf: &mut [u8]) -> Result<usize, ByteConversionError> {
let raw_len = self.raw_len();
if buf.len() < raw_len {
return Err(ByteConversionError::ToSliceTooSmall {
found: buf.len(),
expected: raw_len,
});
}
buf[0..raw_len].copy_from_slice(&self.to_be_bytes());
Ok(raw_len)
}
}
};
}
macro_rules! primitive_newtypes_with_eq {
($($ty: ty,)+) => {
$(
paste! {
#[derive(Debug, Copy, Clone, PartialEq, Eq)]
pub struct [<$ty:upper>](pub $ty);
#[derive(Debug, Copy, Clone, PartialEq, Eq)]
pub struct [<$ty:upper Pair>](pub $ty, pub $ty);
#[derive(Debug, Copy, Clone, PartialEq, Eq)]
pub struct [<$ty:upper Triplet>](pub $ty, pub $ty, pub $ty);
param_to_be_bytes_impl!([<$ty:upper>]);
param_to_be_bytes_impl!([<$ty:upper Pair>]);
param_to_be_bytes_impl!([<$ty:upper Triplet>]);
impl From<$ty> for [<$ty:upper>] {
fn from(v: $ty) -> Self {
Self(v)
}
}
impl From<($ty, $ty)> for [<$ty:upper Pair>] {
fn from(v: ($ty, $ty)) -> Self {
Self(v.0, v.1)
}
}
impl From<($ty, $ty, $ty)> for [<$ty:upper Triplet>] {
fn from(v: ($ty, $ty, $ty)) -> Self {
Self(v.0, v.1, v.2)
}
}
}
)+
}
}
macro_rules! primitive_newtypes {
($($ty: ty,)+) => {
$(
paste! {
#[derive(Debug, Copy, Clone, PartialEq)]
pub struct [<$ty:upper>](pub $ty);
#[derive(Debug, Copy, Clone, PartialEq)]
pub struct [<$ty:upper Pair>](pub $ty, pub $ty);
#[derive(Debug, Copy, Clone, PartialEq)]
pub struct [<$ty:upper Triplet>](pub $ty, pub $ty, pub $ty);
param_to_be_bytes_impl!([<$ty:upper>]);
param_to_be_bytes_impl!([<$ty:upper Pair>]);
param_to_be_bytes_impl!([<$ty:upper Triplet>]);
impl From<$ty> for [<$ty:upper>] {
fn from(v: $ty) -> Self {
Self(v)
}
}
impl From<($ty, $ty)> for [<$ty:upper Pair>] {
fn from(v: ($ty, $ty)) -> Self {
Self(v.0, v.1)
}
}
impl From<($ty, $ty, $ty)> for [<$ty:upper Triplet>] {
fn from(v: ($ty, $ty, $ty)) -> Self {
Self(v.0, v.1, v.2)
}
}
}
)+
}
}
primitive_newtypes_with_eq!(u8, u16, u32, u64, i8, i16, i32, i64,);
primitive_newtypes!(f32, f64,);
macro_rules! scalar_byte_conversions_impl {
($($ty: ty,)+) => {
$(
paste! {
impl ToBeBytes for [<$ty:upper>] {
type ByteArray = [u8; size_of::<$ty>()];
fn written_len(&self) -> usize {
size_of::<Self::ByteArray>()
}
fn to_be_bytes(&self) -> Self::ByteArray {
self.0.to_be_bytes()
}
}
impl TryFrom<&[u8]> for [<$ty:upper>] {
type Error = ByteConversionError;
fn try_from(v: &[u8]) -> Result<Self, Self::Error> {
if v.len() < size_of::<$ty>() {
return Err(ByteConversionError::FromSliceTooSmall{
expected: size_of::<$ty>(),
found: v.len()
});
}
Ok([<$ty:upper>]($ty::from_be_bytes(v[0..size_of::<$ty>()].try_into().unwrap())))
}
}
}
)+
}
}
macro_rules! pair_byte_conversions_impl {
($($ty: ty,)+) => {
$(
paste! {
impl ToBeBytes for [<$ty:upper Pair>] {
type ByteArray = [u8; size_of::<$ty>() * 2];
fn written_len(&self) -> usize {
size_of::<Self::ByteArray>()
}
fn to_be_bytes(&self) -> Self::ByteArray {
let mut array = [0; size_of::<$ty>() * 2];
array[0..size_of::<$ty>()].copy_from_slice(&self.0.to_be_bytes());
array[
size_of::<$ty>()..2 * size_of::<$ty>()
].copy_from_slice(&self.1.to_be_bytes());
array
}
}
impl TryFrom<&[u8]> for [<$ty:upper Pair>] {
type Error = ByteConversionError;
fn try_from(v: &[u8]) -> Result<Self, Self::Error> {
if v.len() < 2 * size_of::<$ty>() {
return Err(ByteConversionError::FromSliceTooSmall{
expected: 2 * size_of::<$ty>(),
found: v.len()
});
}
Ok([<$ty:upper Pair>](
$ty::from_be_bytes(v[0..size_of::<$ty>()].try_into().unwrap()),
$ty::from_be_bytes(v[size_of::<$ty>()..2 * size_of::<$ty>()].try_into().unwrap())
))
}
}
}
)+
}
}
macro_rules! triplet_to_be_bytes_impl {
($($ty: ty,)+) => {
$(
paste! {
impl ToBeBytes for [<$ty:upper Triplet>] {
type ByteArray = [u8; size_of::<$ty>() * 3];
fn written_len(&self) -> usize {
size_of::<Self::ByteArray>()
}
fn to_be_bytes(&self) -> Self::ByteArray {
let mut array = [0; size_of::<$ty>() * 3];
array[0..size_of::<$ty>()].copy_from_slice(&self.0.to_be_bytes());
array[
size_of::<$ty>()..2 * size_of::<$ty>()
].copy_from_slice(&self.1.to_be_bytes());
array[
2 * size_of::<$ty>()..3 * size_of::<$ty>()
].copy_from_slice(&self.2.to_be_bytes());
array
}
}
impl TryFrom<&[u8]> for [<$ty:upper Triplet>] {
type Error = ByteConversionError;
fn try_from(v: &[u8]) -> Result<Self, Self::Error> {
if v.len() < 3 * size_of::<$ty>() {
return Err(ByteConversionError::FromSliceTooSmall{
expected: 3 * size_of::<$ty>(),
found: v.len()
});
}
Ok([<$ty:upper Triplet>](
$ty::from_be_bytes(v[0..size_of::<$ty>()].try_into().unwrap()),
$ty::from_be_bytes(v[size_of::<$ty>()..2 * size_of::<$ty>()].try_into().unwrap()),
$ty::from_be_bytes(v[2 * size_of::<$ty>()..3 * size_of::<$ty>()].try_into().unwrap())
))
}
}
}
)+
}
}
scalar_byte_conversions_impl!(u8, u16, u32, u64, i8, i16, i32, i64, f32, f64,);
impl ToBeBytes for U8Pair {
type ByteArray = [u8; 2];
fn written_len(&self) -> usize {
size_of::<Self::ByteArray>()
}
fn to_be_bytes(&self) -> Self::ByteArray {
let mut array = [0; 2];
array[0] = self.0;
array[1] = self.1;
array
}
}
impl ToBeBytes for I8Pair {
type ByteArray = [u8; 2];
fn written_len(&self) -> usize {
size_of::<Self::ByteArray>()
}
fn to_be_bytes(&self) -> Self::ByteArray {
let mut array = [0; 2];
array[0] = self.0 as u8;
array[1] = self.1 as u8;
array
}
}
impl ToBeBytes for U8Triplet {
type ByteArray = [u8; 3];
fn written_len(&self) -> usize {
size_of::<Self::ByteArray>()
}
fn to_be_bytes(&self) -> Self::ByteArray {
let mut array = [0; 3];
array[0] = self.0;
array[1] = self.1;
array[2] = self.2;
array
}
}
impl ToBeBytes for I8Triplet {
type ByteArray = [u8; 3];
fn written_len(&self) -> usize {
size_of::<Self::ByteArray>()
}
fn to_be_bytes(&self) -> Self::ByteArray {
let mut array = [0; 3];
array[0] = self.0 as u8;
array[1] = self.1 as u8;
array[2] = self.2 as u8;
array
}
}
pair_byte_conversions_impl!(u16, u32, u64, i16, i32, i64, f32, f64,);
triplet_to_be_bytes_impl!(u16, u32, u64, i16, i32, i64, f32, f64,);
/// Generic enumeration for additonal parameters only consisting of primitive data types.
///
/// All contained variants and the enum itself implement the [WritableToBeBytes] trait, which
/// allows to easily convert them into a network-friendly format.
#[derive(Debug, Copy, Clone, PartialEq)]
pub enum ParamsRaw {
U8(U8),
U8Pair(U8Pair),
U8Triplet(U8Triplet),
I8(I8),
I8Pair(I8Pair),
I8Triplet(I8Triplet),
U16(U16),
U16Pair(U16Pair),
U16Triplet(U16Triplet),
I16(I16),
I16Pair(I16Pair),
I16Triplet(I16Triplet),
U32(U32),
U32Pair(U32Pair),
U32Triplet(U32Triplet),
I32(I32),
I32Pair(I32Pair),
I32Triplet(I32Triplet),
F32(F32),
F32Pair(F32Pair),
F32Triplet(F32Triplet),
U64(U64),
I64(I64),
F64(F64),
}
impl WritableToBeBytes for ParamsRaw {
fn raw_len(&self) -> usize {
match self {
ParamsRaw::U8(v) => v.raw_len(),
ParamsRaw::U8Pair(v) => v.raw_len(),
ParamsRaw::U8Triplet(v) => v.raw_len(),
ParamsRaw::I8(v) => v.raw_len(),
ParamsRaw::I8Pair(v) => v.raw_len(),
ParamsRaw::I8Triplet(v) => v.raw_len(),
ParamsRaw::U16(v) => v.raw_len(),
ParamsRaw::U16Pair(v) => v.raw_len(),
ParamsRaw::U16Triplet(v) => v.raw_len(),
ParamsRaw::I16(v) => v.raw_len(),
ParamsRaw::I16Pair(v) => v.raw_len(),
ParamsRaw::I16Triplet(v) => v.raw_len(),
ParamsRaw::U32(v) => v.raw_len(),
ParamsRaw::U32Pair(v) => v.raw_len(),
ParamsRaw::U32Triplet(v) => v.raw_len(),
ParamsRaw::I32(v) => v.raw_len(),
ParamsRaw::I32Pair(v) => v.raw_len(),
ParamsRaw::I32Triplet(v) => v.raw_len(),
ParamsRaw::F32(v) => v.raw_len(),
ParamsRaw::F32Pair(v) => v.raw_len(),
ParamsRaw::F32Triplet(v) => v.raw_len(),
ParamsRaw::U64(v) => v.raw_len(),
ParamsRaw::I64(v) => v.raw_len(),
ParamsRaw::F64(v) => v.raw_len(),
}
}
fn write_to_be_bytes(&self, buf: &mut [u8]) -> Result<usize, ByteConversionError> {
match self {
ParamsRaw::U8(v) => v.write_to_be_bytes(buf),
ParamsRaw::U8Pair(v) => v.write_to_be_bytes(buf),
ParamsRaw::U8Triplet(v) => v.write_to_be_bytes(buf),
ParamsRaw::I8(v) => v.write_to_be_bytes(buf),
ParamsRaw::I8Pair(v) => v.write_to_be_bytes(buf),
ParamsRaw::I8Triplet(v) => v.write_to_be_bytes(buf),
ParamsRaw::U16(v) => v.write_to_be_bytes(buf),
ParamsRaw::U16Pair(v) => v.write_to_be_bytes(buf),
ParamsRaw::U16Triplet(v) => v.write_to_be_bytes(buf),
ParamsRaw::I16(v) => v.write_to_be_bytes(buf),
ParamsRaw::I16Pair(v) => v.write_to_be_bytes(buf),
ParamsRaw::I16Triplet(v) => v.write_to_be_bytes(buf),
ParamsRaw::U32(v) => v.write_to_be_bytes(buf),
ParamsRaw::U32Pair(v) => v.write_to_be_bytes(buf),
ParamsRaw::U32Triplet(v) => v.write_to_be_bytes(buf),
ParamsRaw::I32(v) => v.write_to_be_bytes(buf),
ParamsRaw::I32Pair(v) => v.write_to_be_bytes(buf),
ParamsRaw::I32Triplet(v) => v.write_to_be_bytes(buf),
ParamsRaw::F32(v) => v.write_to_be_bytes(buf),
ParamsRaw::F32Pair(v) => v.write_to_be_bytes(buf),
ParamsRaw::F32Triplet(v) => v.write_to_be_bytes(buf),
ParamsRaw::U64(v) => v.write_to_be_bytes(buf),
ParamsRaw::I64(v) => v.write_to_be_bytes(buf),
ParamsRaw::F64(v) => v.write_to_be_bytes(buf),
}
}
}
macro_rules! params_raw_from_newtype {
($($newtype: ident,)+) => {
$(
impl From<$newtype> for ParamsRaw {
fn from(v: $newtype) -> Self {
Self::$newtype(v)
}
}
)+
}
}
params_raw_from_newtype!(
U8, U8Pair, U8Triplet, U16, U16Pair, U16Triplet, U32, U32Pair, U32Triplet, I8, I8Pair,
I8Triplet, I16, I16Pair, I16Triplet, I32, I32Pair, I32Triplet, F32, F32Pair, F32Triplet, U64,
I64, F64,
);
#[derive(Debug, Copy, Clone, PartialEq, Eq)]
pub enum EcssEnumParams {
U8(EcssEnumU8),
U16(EcssEnumU16),
U32(EcssEnumU32),
U64(EcssEnumU64),
}
macro_rules! writable_as_be_bytes_ecss_enum_impl {
($EnumIdent: ident) => {
impl WritableToBeBytes for $EnumIdent {
fn raw_len(&self) -> usize {
self.size()
}
fn write_to_be_bytes(&self, buf: &mut [u8]) -> Result<usize, ByteConversionError> {
<Self as UnsignedEnum>::write_to_be_bytes(self, buf).map(|_| self.raw_len())
}
}
};
}
writable_as_be_bytes_ecss_enum_impl!(EcssEnumU8);
writable_as_be_bytes_ecss_enum_impl!(EcssEnumU16);
writable_as_be_bytes_ecss_enum_impl!(EcssEnumU32);
writable_as_be_bytes_ecss_enum_impl!(EcssEnumU64);
impl WritableToBeBytes for EcssEnumParams {
fn raw_len(&self) -> usize {
match self {
EcssEnumParams::U8(e) => e.raw_len(),
EcssEnumParams::U16(e) => e.raw_len(),
EcssEnumParams::U32(e) => e.raw_len(),
EcssEnumParams::U64(e) => e.raw_len(),
}
}
fn write_to_be_bytes(&self, buf: &mut [u8]) -> Result<usize, ByteConversionError> {
match self {
EcssEnumParams::U8(e) => WritableToBeBytes::write_to_be_bytes(e, buf),
EcssEnumParams::U16(e) => WritableToBeBytes::write_to_be_bytes(e, buf),
EcssEnumParams::U32(e) => WritableToBeBytes::write_to_be_bytes(e, buf),
EcssEnumParams::U64(e) => WritableToBeBytes::write_to_be_bytes(e, buf),
}
}
}
/// Generic enumeration for parameters which do not rely on heap allocations.
#[derive(Debug, Copy, Clone, PartialEq)]
pub enum ParamsHeapless {
Raw(ParamsRaw),
EcssEnum(EcssEnumParams),
}
macro_rules! from_conversions_for_raw {
($(($raw_ty: ty, $TargetPath: path),)+) => {
$(
impl From<$raw_ty> for ParamsRaw {
fn from(val: $raw_ty) -> Self {
$TargetPath(val.into())
}
}
impl From<$raw_ty> for ParamsHeapless {
fn from(val: $raw_ty) -> Self {
ParamsHeapless::Raw(val.into())
}
}
)+
};
}
from_conversions_for_raw!(
(u8, Self::U8),
((u8, u8), Self::U8Pair),
((u8, u8, u8), Self::U8Triplet),
(i8, Self::I8),
((i8, i8), Self::I8Pair),
((i8, i8, i8), Self::I8Triplet),
(u16, Self::U16),
((u16, u16), Self::U16Pair),
((u16, u16, u16), Self::U16Triplet),
(i16, Self::I16),
((i16, i16), Self::I16Pair),
((i16, i16, i16), Self::I16Triplet),
(u32, Self::U32),
((u32, u32), Self::U32Pair),
((u32, u32, u32), Self::U32Triplet),
(i32, Self::I32),
((i32, i32), Self::I32Pair),
((i32, i32, i32), Self::I32Triplet),
(f32, Self::F32),
((f32, f32), Self::F32Pair),
((f32, f32, f32), Self::F32Triplet),
(u64, Self::U64),
(f64, Self::F64),
);
#[cfg(feature = "alloc")]
mod alloc_mod {
use super::*;
/// Generic enumeration for additional parameters, including parameters which rely on heap
/// allocations.
#[cfg_attr(doc_cfg, doc(cfg(feature = "alloc")))]
#[derive(Debug, Clone)]
pub enum Params {
Heapless(ParamsHeapless),
Store(StoreAddr),
Vec(Vec<u8>),
String(String),
}
impl From<StoreAddr> for Params {
fn from(x: StoreAddr) -> Self {
Self::Store(x)
}
}
impl From<ParamsHeapless> for Params {
fn from(x: ParamsHeapless) -> Self {
Self::Heapless(x)
}
}
impl From<Vec<u8>> for Params {
fn from(val: Vec<u8>) -> Self {
Self::Vec(val)
}
}
/// Converts a byte slice into the [Params::Vec] variant
impl From<&[u8]> for Params {
fn from(val: &[u8]) -> Self {
Self::Vec(val.to_vec())
}
}
impl From<String> for Params {
fn from(val: String) -> Self {
Self::String(val)
}
}
/// Converts a string slice into the [Params::String] variant
impl From<&str> for Params {
fn from(val: &str) -> Self {
Self::String(val.to_string())
}
}
}
#[cfg(test)]
mod tests {
use super::*;
#[test]
fn test_basic_u32_pair() {
let u32_pair = U32Pair(4, 8);
assert_eq!(u32_pair.0, 4);
assert_eq!(u32_pair.1, 8);
let raw = u32_pair.to_be_bytes();
let mut u32_conv_back = u32::from_be_bytes(raw[0..4].try_into().unwrap());
assert_eq!(u32_conv_back, 4);
u32_conv_back = u32::from_be_bytes(raw[4..8].try_into().unwrap());
assert_eq!(u32_conv_back, 8);
}
#[test]
fn basic_signed_test_pair() {
let i8_pair = I8Pair(-3, -16);
assert_eq!(i8_pair.0, -3);
assert_eq!(i8_pair.1, -16);
let raw = i8_pair.to_be_bytes();
let mut i8_conv_back = i8::from_be_bytes(raw[0..1].try_into().unwrap());
assert_eq!(i8_conv_back, -3);
i8_conv_back = i8::from_be_bytes(raw[1..2].try_into().unwrap());
assert_eq!(i8_conv_back, -16);
}
#[test]
fn basic_signed_test_triplet() {
let i8_triplet = I8Triplet(-3, -16, -126);
assert_eq!(i8_triplet.0, -3);
assert_eq!(i8_triplet.1, -16);
assert_eq!(i8_triplet.2, -126);
let raw = i8_triplet.to_be_bytes();
let mut i8_conv_back = i8::from_be_bytes(raw[0..1].try_into().unwrap());
assert_eq!(i8_conv_back, -3);
i8_conv_back = i8::from_be_bytes(raw[1..2].try_into().unwrap());
assert_eq!(i8_conv_back, -16);
i8_conv_back = i8::from_be_bytes(raw[2..3].try_into().unwrap());
assert_eq!(i8_conv_back, -126);
}
#[test]
fn conversion_test_string() {
let param: Params = "Test String".into();
if let Params::String(str) = param {
assert_eq!(str, String::from("Test String"));
} else {
panic!("Params type is not String")
}
}
#[test]
fn conversion_from_slice() {
let test_slice: [u8; 5] = [0; 5];
let vec_param: Params = test_slice.as_slice().into();
if let Params::Vec(vec) = vec_param {
assert_eq!(vec, test_slice.to_vec());
} else {
panic!("Params type is not a vector")
}
}
}

939
satrs-core/src/pool.rs Normal file
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@ -0,0 +1,939 @@
//! # Pool implementation providing memory pools for packet storage.
//!
//! # Example for the [StaticMemoryPool]
//!
//! ```
//! use satrs_core::pool::{PoolProvider, StaticMemoryPool, StaticPoolConfig};
//!
//! // 4 buckets of 4 bytes, 2 of 8 bytes and 1 of 16 bytes
//! let pool_cfg = StaticPoolConfig::new(vec![(4, 4), (2, 8), (1, 16)]);
//! let mut local_pool = StaticMemoryPool::new(pool_cfg);
//! let mut read_buf: [u8; 16] = [0; 16];
//! let mut addr;
//! {
//! // Add new data to the pool
//! let mut example_data = [0; 4];
//! example_data[0] = 42;
//! let res = local_pool.add(&example_data);
//! assert!(res.is_ok());
//! addr = res.unwrap();
//! }
//!
//! {
//! // Read the store data back
//! let res = local_pool.read(&addr, &mut read_buf);
//! assert!(res.is_ok());
//! let read_bytes = res.unwrap();
//! assert_eq!(read_bytes, 4);
//! assert_eq!(read_buf[0], 42);
//! // Modify the stored data
//! let res = local_pool.modify(&addr, |buf| {
//! buf[0] = 12;
//! });
//! assert!(res.is_ok());
//! }
//!
//! {
//! // Read the modified data back
//! let res = local_pool.read(&addr, &mut read_buf);
//! assert!(res.is_ok());
//! let read_bytes = res.unwrap();
//! assert_eq!(read_bytes, 4);
//! assert_eq!(read_buf[0], 12);
//! }
//!
//! // Delete the stored data
//! local_pool.delete(addr);
//!
//! // Get a free element in the pool with an appropriate size
//! {
//! let res = local_pool.free_element(12, |buf| {
//! buf[0] = 7;
//! });
//! assert!(res.is_ok());
//! addr = res.unwrap();
//! }
//!
//! // Read back the data
//! {
//! // Read the store data back
//! let res = local_pool.read(&addr, &mut read_buf);
//! assert!(res.is_ok());
//! let read_bytes = res.unwrap();
//! assert_eq!(read_bytes, 12);
//! assert_eq!(read_buf[0], 7);
//! }
//! ```
#[cfg(feature = "alloc")]
#[cfg_attr(doc_cfg, doc(cfg(feature = "alloc")))]
pub use alloc_mod::*;
use core::fmt::{Display, Formatter};
use delegate::delegate;
#[cfg(feature = "serde")]
use serde::{Deserialize, Serialize};
use spacepackets::ByteConversionError;
#[cfg(feature = "std")]
use std::error::Error;
type NumBlocks = u16;
pub type StoreAddr = u64;
/// Simple address type used for transactions with the local pool.
#[derive(Debug, Copy, Clone, PartialEq, Eq)]
#[cfg_attr(feature = "serde", derive(Serialize, Deserialize))]
pub struct StaticPoolAddr {
pub(crate) pool_idx: u16,
pub(crate) packet_idx: NumBlocks,
}
impl StaticPoolAddr {
pub const INVALID_ADDR: u32 = 0xFFFFFFFF;
pub fn raw(&self) -> u32 {
((self.pool_idx as u32) << 16) | self.packet_idx as u32
}
}
impl From<StaticPoolAddr> for StoreAddr {
fn from(value: StaticPoolAddr) -> Self {
((value.pool_idx as u64) << 16) | value.packet_idx as u64
}
}
impl From<StoreAddr> for StaticPoolAddr {
fn from(value: StoreAddr) -> Self {
Self {
pool_idx: ((value >> 16) & 0xff) as u16,
packet_idx: (value & 0xff) as u16,
}
}
}
impl Display for StaticPoolAddr {
fn fmt(&self, f: &mut Formatter<'_>) -> core::fmt::Result {
write!(
f,
"StoreAddr(pool index: {}, packet index: {})",
self.pool_idx, self.packet_idx
)
}
}
#[derive(Debug, Clone, PartialEq, Eq)]
#[cfg_attr(feature = "serde", derive(Serialize, Deserialize))]
pub enum StoreIdError {
InvalidSubpool(u16),
InvalidPacketIdx(u16),
}
impl Display for StoreIdError {
fn fmt(&self, f: &mut Formatter<'_>) -> core::fmt::Result {
match self {
StoreIdError::InvalidSubpool(pool) => {
write!(f, "invalid subpool, index: {pool}")
}
StoreIdError::InvalidPacketIdx(packet_idx) => {
write!(f, "invalid packet index: {packet_idx}")
}
}
}
}
#[cfg(feature = "std")]
impl Error for StoreIdError {}
#[derive(Debug, Clone, PartialEq, Eq)]
#[cfg_attr(feature = "serde", derive(Serialize, Deserialize))]
pub enum StoreError {
/// Requested data block is too large
DataTooLarge(usize),
/// The store is full. Contains the index of the full subpool
StoreFull(u16),
/// Store ID is invalid. This also includes partial errors where only the subpool is invalid
InvalidStoreId(StoreIdError, Option<StoreAddr>),
/// Valid subpool and packet index, but no data is stored at the given address
DataDoesNotExist(StoreAddr),
ByteConversionError(spacepackets::ByteConversionError),
LockError,
/// Internal or configuration errors
InternalError(u32),
}
impl Display for StoreError {
fn fmt(&self, f: &mut Formatter<'_>) -> core::fmt::Result {
match self {
StoreError::DataTooLarge(size) => {
write!(f, "data to store with size {size} is too large")
}
StoreError::StoreFull(u16) => {
write!(f, "store is too full. index for full subpool: {u16}")
}
StoreError::InvalidStoreId(id_e, addr) => {
write!(f, "invalid store ID: {id_e}, address: {addr:?}")
}
StoreError::DataDoesNotExist(addr) => {
write!(f, "no data exists at address {addr:?}")
}
StoreError::InternalError(e) => {
write!(f, "internal error: {e}")
}
StoreError::ByteConversionError(e) => {
write!(f, "store error: {e}")
}
StoreError::LockError => {
write!(f, "lock error")
}
}
}
}
impl From<ByteConversionError> for StoreError {
fn from(value: ByteConversionError) -> Self {
Self::ByteConversionError(value)
}
}
#[cfg(feature = "std")]
impl Error for StoreError {
fn source(&self) -> Option<&(dyn Error + 'static)> {
if let StoreError::InvalidStoreId(e, _) = self {
return Some(e);
}
None
}
}
/// Generic trait for pool providers where the data can be modified and read in-place. This
/// generally means that a shared pool structure has to be wrapped inside a lock structure.
pub trait PoolProvider {
/// Add new data to the pool. The provider should attempt to reserve a memory block with the
/// appropriate size and then copy the given data to the block. Yields a [StoreAddr] which can
/// be used to access the data stored in the pool
fn add(&mut self, data: &[u8]) -> Result<StoreAddr, StoreError>;
/// The provider should attempt to reserve a free memory block with the appropriate size first.
/// It then executes a user-provided closure and passes a mutable reference to that memory
/// block to the closure. This allows the user to write data to the memory block.
/// The function should yield a [StoreAddr] which can be used to access the data stored in the
/// pool.
fn free_element<W: FnMut(&mut [u8])>(
&mut self,
len: usize,
writer: W,
) -> Result<StoreAddr, StoreError>;
/// Modify data added previously using a given [StoreAddr]. The provider should use the store
/// address to determine if a memory block exists for that address. If it does, it should
/// call the user-provided closure and pass a mutable reference to the memory block
/// to the closure. This allows the user to modify the memory block.
fn modify<U: FnMut(&mut [u8])>(
&mut self,
addr: &StoreAddr,
updater: U,
) -> Result<(), StoreError>;
/// The provider should copy the data from the memory block to the user-provided buffer if
/// it exists.
fn read(&self, addr: &StoreAddr, buf: &mut [u8]) -> Result<usize, StoreError>;
/// Delete data inside the pool given a [StoreAddr].
fn delete(&mut self, addr: StoreAddr) -> Result<(), StoreError>;
fn has_element_at(&self, addr: &StoreAddr) -> Result<bool, StoreError>;
/// Retrieve the length of the data at the given store address.
fn len_of_data(&self, addr: &StoreAddr) -> Result<usize, StoreError>;
#[cfg(feature = "alloc")]
fn read_as_vec(&self, addr: &StoreAddr) -> Result<alloc::vec::Vec<u8>, StoreError> {
let mut vec = alloc::vec![0; self.len_of_data(addr)?];
self.read(addr, &mut vec)?;
Ok(vec)
}
}
pub trait PoolProviderWithGuards: PoolProvider {
/// This function behaves like [PoolProvider::read], but consumes the provided address
/// and returns a RAII conformant guard object.
///
/// Unless the guard [PoolRwGuard::release] method is called, the data for the
/// given address will be deleted automatically when the guard is dropped.
/// This can prevent memory leaks. Users can read the data and release the guard
/// if the data in the store is valid for further processing. If the data is faulty, no
/// manual deletion is necessary when returning from a processing function prematurely.
fn read_with_guard(&mut self, addr: StoreAddr) -> PoolGuard<Self>;
/// This function behaves like [PoolProvider::modify], but consumes the provided
/// address and returns a RAII conformant guard object.
///
/// Unless the guard [PoolRwGuard::release] method is called, the data for the
/// given address will be deleted automatically when the guard is dropped.
/// This can prevent memory leaks. Users can read (and modify) the data and release the guard
/// if the data in the store is valid for further processing. If the data is faulty, no
/// manual deletion is necessary when returning from a processing function prematurely.
fn modify_with_guard(&mut self, addr: StoreAddr) -> PoolRwGuard<Self>;
}
pub struct PoolGuard<'a, MemProvider: PoolProvider + ?Sized> {
pool: &'a mut MemProvider,
pub addr: StoreAddr,
no_deletion: bool,
deletion_failed_error: Option<StoreError>,
}
/// This helper object
impl<'a, MemProvider: PoolProvider> PoolGuard<'a, MemProvider> {
pub fn new(pool: &'a mut MemProvider, addr: StoreAddr) -> Self {
Self {
pool,
addr,
no_deletion: false,
deletion_failed_error: None,
}
}
pub fn read(&self, buf: &mut [u8]) -> Result<usize, StoreError> {
self.pool.read(&self.addr, buf)
}
#[cfg(feature = "alloc")]
pub fn read_as_vec(&self) -> Result<alloc::vec::Vec<u8>, StoreError> {
self.pool.read_as_vec(&self.addr)
}
/// Releasing the pool guard will disable the automatic deletion of the data when the guard
/// is dropped.
pub fn release(&mut self) {
self.no_deletion = true;
}
}
impl<MemProvider: PoolProvider + ?Sized> Drop for PoolGuard<'_, MemProvider> {
fn drop(&mut self) {
if !self.no_deletion {
if let Err(e) = self.pool.delete(self.addr) {
self.deletion_failed_error = Some(e);
}
}
}
}
pub struct PoolRwGuard<'a, MemProvider: PoolProvider + ?Sized> {
guard: PoolGuard<'a, MemProvider>,
}
impl<'a, MemProvider: PoolProvider> PoolRwGuard<'a, MemProvider> {
pub fn new(pool: &'a mut MemProvider, addr: StoreAddr) -> Self {
Self {
guard: PoolGuard::new(pool, addr),
}
}
pub fn update<U: FnMut(&mut [u8])>(&mut self, updater: &mut U) -> Result<(), StoreError> {
self.guard.pool.modify(&self.guard.addr, updater)
}
delegate!(
to self.guard {
pub fn read(&self, buf: &mut [u8]) -> Result<usize, StoreError>;
/// Releasing the pool guard will disable the automatic deletion of the data when the guard
/// is dropped.
pub fn release(&mut self);
}
);
}
#[cfg(feature = "alloc")]
mod alloc_mod {
use super::{PoolGuard, PoolProvider, PoolProviderWithGuards, PoolRwGuard, StaticPoolAddr};
use crate::pool::{NumBlocks, StoreAddr, StoreError, StoreIdError};
use alloc::vec;
use alloc::vec::Vec;
use spacepackets::ByteConversionError;
#[cfg(feature = "std")]
use std::sync::{Arc, RwLock};
#[cfg(feature = "std")]
pub type SharedStaticMemoryPool = Arc<RwLock<StaticMemoryPool>>;
type PoolSize = usize;
const STORE_FREE: PoolSize = PoolSize::MAX;
pub const POOL_MAX_SIZE: PoolSize = STORE_FREE - 1;
/// Configuration structure of the [static memory pool][StaticMemoryPool]
///
/// # Parameters
///
/// * `cfg`: Vector of tuples which represent a subpool. The first entry in the tuple specifies the
/// number of memory blocks in the subpool, the second entry the size of the blocks
#[derive(Clone)]
pub struct StaticPoolConfig {
cfg: Vec<(NumBlocks, usize)>,
}
impl StaticPoolConfig {
pub fn new(cfg: Vec<(NumBlocks, usize)>) -> Self {
StaticPoolConfig { cfg }
}
pub fn cfg(&self) -> &Vec<(NumBlocks, usize)> {
&self.cfg
}
pub fn sanitize(&mut self) -> usize {
self.cfg
.retain(|&(bucket_num, size)| bucket_num > 0 && size < POOL_MAX_SIZE);
self.cfg
.sort_unstable_by(|(_, sz0), (_, sz1)| sz0.partial_cmp(sz1).unwrap());
self.cfg.len()
}
}
/// Pool implementation providing sub-pools with fixed size memory blocks.
///
/// This is a simple memory pool implementation which pre-allocates all sub-pools using a given pool
/// configuration. After the pre-allocation, no dynamic memory allocation will be performed
/// during run-time. This makes the implementation suitable for real-time applications and
/// embedded environments. The pool implementation will also track the size of the data stored
/// inside it.
///
/// Transactions with the [pool][StaticMemoryPool] are done using a generic
/// [address][StoreAddr] type.
/// Adding any data to the pool will yield a store address. Modification and read operations are
/// done using a reference to a store address. Deletion will consume the store address.
pub struct StaticMemoryPool {
pool_cfg: StaticPoolConfig,
pool: Vec<Vec<u8>>,
sizes_lists: Vec<Vec<PoolSize>>,
}
impl StaticMemoryPool {
/// Create a new local pool from the [given configuration][StaticPoolConfig]. This function
/// will sanitize the given configuration as well.
pub fn new(mut cfg: StaticPoolConfig) -> StaticMemoryPool {
let subpools_num = cfg.sanitize();
let mut local_pool = StaticMemoryPool {
pool_cfg: cfg,
pool: Vec::with_capacity(subpools_num),
sizes_lists: Vec::with_capacity(subpools_num),
};
for &(num_elems, elem_size) in local_pool.pool_cfg.cfg.iter() {
let next_pool_len = elem_size * num_elems as usize;
local_pool.pool.push(vec![0; next_pool_len]);
let next_sizes_list_len = num_elems as usize;
local_pool
.sizes_lists
.push(vec![STORE_FREE; next_sizes_list_len]);
}
local_pool
}
fn addr_check(&self, addr: &StaticPoolAddr) -> Result<usize, StoreError> {
self.validate_addr(addr)?;
let pool_idx = addr.pool_idx as usize;
let size_list = self.sizes_lists.get(pool_idx).unwrap();
let curr_size = size_list[addr.packet_idx as usize];
if curr_size == STORE_FREE {
return Err(StoreError::DataDoesNotExist(StoreAddr::from(*addr)));
}
Ok(curr_size)
}
fn validate_addr(&self, addr: &StaticPoolAddr) -> Result<(), StoreError> {
let pool_idx = addr.pool_idx as usize;
if pool_idx >= self.pool_cfg.cfg.len() {
return Err(StoreError::InvalidStoreId(
StoreIdError::InvalidSubpool(addr.pool_idx),
Some(StoreAddr::from(*addr)),
));
}
if addr.packet_idx >= self.pool_cfg.cfg[addr.pool_idx as usize].0 {
return Err(StoreError::InvalidStoreId(
StoreIdError::InvalidPacketIdx(addr.packet_idx),
Some(StoreAddr::from(*addr)),
));
}
Ok(())
}
fn reserve(&mut self, data_len: usize) -> Result<StaticPoolAddr, StoreError> {
let subpool_idx = self.find_subpool(data_len, 0)?;
let (slot, size_slot_ref) = self.find_empty(subpool_idx)?;
*size_slot_ref = data_len;
Ok(StaticPoolAddr {
pool_idx: subpool_idx,
packet_idx: slot,
})
}
fn find_subpool(&self, req_size: usize, start_at_subpool: u16) -> Result<u16, StoreError> {
for (i, &(_, elem_size)) in self.pool_cfg.cfg.iter().enumerate() {
if i < start_at_subpool as usize {
continue;
}
if elem_size >= req_size {
return Ok(i as u16);
}
}
Err(StoreError::DataTooLarge(req_size))
}
fn write(&mut self, addr: &StaticPoolAddr, data: &[u8]) -> Result<(), StoreError> {
let packet_pos = self.raw_pos(addr).ok_or(StoreError::InternalError(0))?;
let subpool = self
.pool
.get_mut(addr.pool_idx as usize)
.ok_or(StoreError::InternalError(1))?;
let pool_slice = &mut subpool[packet_pos..packet_pos + data.len()];
pool_slice.copy_from_slice(data);
Ok(())
}
fn find_empty(&mut self, subpool: u16) -> Result<(u16, &mut usize), StoreError> {
if let Some(size_list) = self.sizes_lists.get_mut(subpool as usize) {
for (i, elem_size) in size_list.iter_mut().enumerate() {
if *elem_size == STORE_FREE {
return Ok((i as u16, elem_size));
}
}
} else {
return Err(StoreError::InvalidStoreId(
StoreIdError::InvalidSubpool(subpool),
None,
));
}
Err(StoreError::StoreFull(subpool))
}
fn raw_pos(&self, addr: &StaticPoolAddr) -> Option<usize> {
let (_, size) = self.pool_cfg.cfg.get(addr.pool_idx as usize)?;
Some(addr.packet_idx as usize * size)
}
}
impl PoolProvider for StaticMemoryPool {
fn add(&mut self, data: &[u8]) -> Result<StoreAddr, StoreError> {
let data_len = data.len();
if data_len > POOL_MAX_SIZE {
return Err(StoreError::DataTooLarge(data_len));
}
let addr = self.reserve(data_len)?;
self.write(&addr, data)?;
Ok(addr.into())
}
fn free_element<W: FnMut(&mut [u8])>(
&mut self,
len: usize,
mut writer: W,
) -> Result<StoreAddr, StoreError> {
if len > POOL_MAX_SIZE {
return Err(StoreError::DataTooLarge(len));
}
let addr = self.reserve(len)?;
let raw_pos = self.raw_pos(&addr).unwrap();
let block =
&mut self.pool.get_mut(addr.pool_idx as usize).unwrap()[raw_pos..raw_pos + len];
writer(block);
Ok(addr.into())
}
fn modify<U: FnMut(&mut [u8])>(
&mut self,
addr: &StoreAddr,
mut updater: U,
) -> Result<(), StoreError> {
let addr = StaticPoolAddr::from(*addr);
let curr_size = self.addr_check(&addr)?;
let raw_pos = self.raw_pos(&addr).unwrap();
let block = &mut self.pool.get_mut(addr.pool_idx as usize).unwrap()
[raw_pos..raw_pos + curr_size];
updater(block);
Ok(())
}
fn read(&self, addr: &StoreAddr, buf: &mut [u8]) -> Result<usize, StoreError> {
let addr = StaticPoolAddr::from(*addr);
let curr_size = self.addr_check(&addr)?;
if buf.len() < curr_size {
return Err(ByteConversionError::ToSliceTooSmall {
found: buf.len(),
expected: curr_size,
}
.into());
}
let raw_pos = self.raw_pos(&addr).unwrap();
let block =
&self.pool.get(addr.pool_idx as usize).unwrap()[raw_pos..raw_pos + curr_size];
//block.copy_from_slice(&src);
buf[..curr_size].copy_from_slice(block);
Ok(curr_size)
}
fn delete(&mut self, addr: StoreAddr) -> Result<(), StoreError> {
let addr = StaticPoolAddr::from(addr);
self.addr_check(&addr)?;
let block_size = self.pool_cfg.cfg.get(addr.pool_idx as usize).unwrap().1;
let raw_pos = self.raw_pos(&addr).unwrap();
let block = &mut self.pool.get_mut(addr.pool_idx as usize).unwrap()
[raw_pos..raw_pos + block_size];
let size_list = self.sizes_lists.get_mut(addr.pool_idx as usize).unwrap();
size_list[addr.packet_idx as usize] = STORE_FREE;
block.fill(0);
Ok(())
}
fn has_element_at(&self, addr: &StoreAddr) -> Result<bool, StoreError> {
let addr = StaticPoolAddr::from(*addr);
self.validate_addr(&addr)?;
let pool_idx = addr.pool_idx as usize;
let size_list = self.sizes_lists.get(pool_idx).unwrap();
let curr_size = size_list[addr.packet_idx as usize];
if curr_size == STORE_FREE {
return Ok(false);
}
Ok(true)
}
fn len_of_data(&self, addr: &StoreAddr) -> Result<usize, StoreError> {
let addr = StaticPoolAddr::from(*addr);
self.validate_addr(&addr)?;
let pool_idx = addr.pool_idx as usize;
let size_list = self.sizes_lists.get(pool_idx).unwrap();
let size = size_list[addr.packet_idx as usize];
Ok(match size {
STORE_FREE => 0,
_ => size,
})
}
}
impl PoolProviderWithGuards for StaticMemoryPool {
fn modify_with_guard(&mut self, addr: StoreAddr) -> PoolRwGuard<Self> {
PoolRwGuard::new(self, addr)
}
fn read_with_guard(&mut self, addr: StoreAddr) -> PoolGuard<Self> {
PoolGuard::new(self, addr)
}
}
}
#[cfg(test)]
mod tests {
use crate::pool::{
PoolGuard, PoolProvider, PoolProviderWithGuards, PoolRwGuard, StaticMemoryPool,
StaticPoolAddr, StaticPoolConfig, StoreError, StoreIdError, POOL_MAX_SIZE,
};
use std::vec;
fn basic_small_pool() -> StaticMemoryPool {
// 4 buckets of 4 bytes, 2 of 8 bytes and 1 of 16 bytes
let pool_cfg = StaticPoolConfig::new(vec![(4, 4), (2, 8), (1, 16)]);
StaticMemoryPool::new(pool_cfg)
}
#[test]
fn test_cfg() {
// Values where number of buckets is 0 or size is too large should be removed
let mut pool_cfg = StaticPoolConfig::new(vec![(0, 0), (1, 0), (2, POOL_MAX_SIZE)]);
pool_cfg.sanitize();
assert_eq!(*pool_cfg.cfg(), vec![(1, 0)]);
// Entries should be ordered according to bucket size
pool_cfg = StaticPoolConfig::new(vec![(16, 6), (32, 3), (8, 12)]);
pool_cfg.sanitize();
assert_eq!(*pool_cfg.cfg(), vec![(32, 3), (16, 6), (8, 12)]);
// Unstable sort is used, so order of entries with same block length should not matter
pool_cfg = StaticPoolConfig::new(vec![(12, 12), (14, 16), (10, 12)]);
pool_cfg.sanitize();
assert!(
*pool_cfg.cfg() == vec![(12, 12), (10, 12), (14, 16)]
|| *pool_cfg.cfg() == vec![(10, 12), (12, 12), (14, 16)]
);
}
#[test]
fn test_add_and_read() {
let mut local_pool = basic_small_pool();
let mut test_buf: [u8; 16] = [0; 16];
for (i, val) in test_buf.iter_mut().enumerate() {
*val = i as u8;
}
let mut other_buf: [u8; 16] = [0; 16];
let addr = local_pool.add(&test_buf).expect("Adding data failed");
// Read back data and verify correctness
let res = local_pool.read(&addr, &mut other_buf);
assert!(res.is_ok());
let read_len = res.unwrap();
assert_eq!(read_len, 16);
for (i, &val) in other_buf.iter().enumerate() {
assert_eq!(val, i as u8);
}
}
#[test]
fn test_add_smaller_than_full_slot() {
let mut local_pool = basic_small_pool();
let test_buf: [u8; 12] = [0; 12];
let addr = local_pool.add(&test_buf).expect("Adding data failed");
let res = local_pool
.read(&addr, &mut [0; 12])
.expect("Read back failed");
assert_eq!(res, 12);
}
#[test]
fn test_delete() {
let mut local_pool = basic_small_pool();
let test_buf: [u8; 16] = [0; 16];
let addr = local_pool.add(&test_buf).expect("Adding data failed");
// Delete the data
let res = local_pool.delete(addr);
assert!(res.is_ok());
let mut writer = |buf: &mut [u8]| {
assert_eq!(buf.len(), 12);
};
// Verify that the slot is free by trying to get a reference to it
let res = local_pool.free_element(12, &mut writer);
assert!(res.is_ok());
let addr = res.unwrap();
assert_eq!(
addr,
u64::from(StaticPoolAddr {
pool_idx: 2,
packet_idx: 0
})
);
}
#[test]
fn test_modify() {
let mut local_pool = basic_small_pool();
let mut test_buf: [u8; 16] = [0; 16];
for (i, val) in test_buf.iter_mut().enumerate() {
*val = i as u8;
}
let addr = local_pool.add(&test_buf).expect("Adding data failed");
{
// Verify that the slot is free by trying to get a reference to it
local_pool
.modify(&addr, &mut |buf: &mut [u8]| {
buf[0] = 0;
buf[1] = 0x42;
})
.expect("Modifying data failed");
}
local_pool
.read(&addr, &mut test_buf)
.expect("Reading back data failed");
assert_eq!(test_buf[0], 0);
assert_eq!(test_buf[1], 0x42);
assert_eq!(test_buf[2], 2);
assert_eq!(test_buf[3], 3);
}
#[test]
fn test_consecutive_reservation() {
let mut local_pool = basic_small_pool();
// Reserve two smaller blocks consecutively and verify that the third reservation fails
let res = local_pool.free_element(8, |_| {});
assert!(res.is_ok());
let addr0 = res.unwrap();
let res = local_pool.free_element(8, |_| {});
assert!(res.is_ok());
let addr1 = res.unwrap();
let res = local_pool.free_element(8, |_| {});
assert!(res.is_err());
let err = res.unwrap_err();
assert_eq!(err, StoreError::StoreFull(1));
// Verify that the two deletions are successful
assert!(local_pool.delete(addr0).is_ok());
assert!(local_pool.delete(addr1).is_ok());
}
#[test]
fn test_read_does_not_exist() {
let local_pool = basic_small_pool();
// Try to access data which does not exist
let res = local_pool.read(
&StaticPoolAddr {
packet_idx: 0,
pool_idx: 0,
}
.into(),
&mut [],
);
assert!(res.is_err());
assert!(matches!(
res.unwrap_err(),
StoreError::DataDoesNotExist { .. }
));
}
#[test]
fn test_store_full() {
let mut local_pool = basic_small_pool();
let test_buf: [u8; 16] = [0; 16];
assert!(local_pool.add(&test_buf).is_ok());
// The subpool is now full and the call should fail accordingly
let res = local_pool.add(&test_buf);
assert!(res.is_err());
let err = res.unwrap_err();
assert!(matches!(err, StoreError::StoreFull { .. }));
if let StoreError::StoreFull(subpool) = err {
assert_eq!(subpool, 2);
}
}
#[test]
fn test_invalid_pool_idx() {
let local_pool = basic_small_pool();
let addr = StaticPoolAddr {
pool_idx: 3,
packet_idx: 0,
}
.into();
let res = local_pool.read(&addr, &mut []);
assert!(res.is_err());
let err = res.unwrap_err();
assert!(matches!(
err,
StoreError::InvalidStoreId(StoreIdError::InvalidSubpool(3), Some(_))
));
}
#[test]
fn test_invalid_packet_idx() {
let local_pool = basic_small_pool();
let addr = StaticPoolAddr {
pool_idx: 2,
packet_idx: 1,
};
assert_eq!(addr.raw(), 0x00020001);
let res = local_pool.read(&addr.into(), &mut []);
assert!(res.is_err());
let err = res.unwrap_err();
assert!(matches!(
err,
StoreError::InvalidStoreId(StoreIdError::InvalidPacketIdx(1), Some(_))
));
}
#[test]
fn test_add_too_large() {
let mut local_pool = basic_small_pool();
let data_too_large = [0; 20];
let res = local_pool.add(&data_too_large);
assert!(res.is_err());
let err = res.unwrap_err();
assert_eq!(err, StoreError::DataTooLarge(20));
}
#[test]
fn test_data_too_large_1() {
let mut local_pool = basic_small_pool();
let res = local_pool.free_element(POOL_MAX_SIZE + 1, |_| {});
assert!(res.is_err());
assert_eq!(
res.unwrap_err(),
StoreError::DataTooLarge(POOL_MAX_SIZE + 1)
);
}
#[test]
fn test_free_element_too_large() {
let mut local_pool = basic_small_pool();
// Try to request a slot which is too large
let res = local_pool.free_element(20, |_| {});
assert!(res.is_err());
assert_eq!(res.unwrap_err(), StoreError::DataTooLarge(20));
}
#[test]
fn test_pool_guard_deletion_man_creation() {
let mut local_pool = basic_small_pool();
let test_buf: [u8; 16] = [0; 16];
let addr = local_pool.add(&test_buf).expect("Adding data failed");
let read_guard = PoolGuard::new(&mut local_pool, addr);
drop(read_guard);
assert!(!local_pool.has_element_at(&addr).expect("Invalid address"));
}
#[test]
fn test_pool_guard_deletion() {
let mut local_pool = basic_small_pool();
let test_buf: [u8; 16] = [0; 16];
let addr = local_pool.add(&test_buf).expect("Adding data failed");
let read_guard = local_pool.read_with_guard(addr);
drop(read_guard);
assert!(!local_pool.has_element_at(&addr).expect("Invalid address"));
}
#[test]
fn test_pool_guard_with_release() {
let mut local_pool = basic_small_pool();
let test_buf: [u8; 16] = [0; 16];
let addr = local_pool.add(&test_buf).expect("Adding data failed");
let mut read_guard = PoolGuard::new(&mut local_pool, addr);
read_guard.release();
drop(read_guard);
assert!(local_pool.has_element_at(&addr).expect("Invalid address"));
}
#[test]
fn test_pool_modify_guard_man_creation() {
let mut local_pool = basic_small_pool();
let test_buf: [u8; 16] = [0; 16];
let addr = local_pool.add(&test_buf).expect("Adding data failed");
let mut rw_guard = PoolRwGuard::new(&mut local_pool, addr);
rw_guard.update(&mut |_| {}).expect("modify failed");
drop(rw_guard);
assert!(!local_pool.has_element_at(&addr).expect("Invalid address"));
}
#[test]
fn test_pool_modify_guard() {
let mut local_pool = basic_small_pool();
let test_buf: [u8; 16] = [0; 16];
let addr = local_pool.add(&test_buf).expect("Adding data failed");
let mut rw_guard = local_pool.modify_with_guard(addr);
rw_guard.update(&mut |_| {}).expect("modify failed");
drop(rw_guard);
assert!(!local_pool.has_element_at(&addr).expect("Invalid address"));
}
#[test]
fn modify_pool_index_above_0() {
let mut local_pool = basic_small_pool();
let test_buf_0: [u8; 4] = [1; 4];
let test_buf_1: [u8; 4] = [2; 4];
let test_buf_2: [u8; 4] = [3; 4];
let test_buf_3: [u8; 4] = [4; 4];
let addr0 = local_pool.add(&test_buf_0).expect("Adding data failed");
let addr1 = local_pool.add(&test_buf_1).expect("Adding data failed");
let addr2 = local_pool.add(&test_buf_2).expect("Adding data failed");
let addr3 = local_pool.add(&test_buf_3).expect("Adding data failed");
local_pool
.modify(&addr0, |buf| {
assert_eq!(buf, test_buf_0);
})
.expect("Modifying data failed");
local_pool
.modify(&addr1, |buf| {
assert_eq!(buf, test_buf_1);
})
.expect("Modifying data failed");
local_pool
.modify(&addr2, |buf| {
assert_eq!(buf, test_buf_2);
})
.expect("Modifying data failed");
local_pool
.modify(&addr3, |buf| {
assert_eq!(buf, test_buf_3);
})
.expect("Modifying data failed");
}
}

102
satrs-core/src/power.rs Normal file
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@ -0,0 +1,102 @@
#[cfg(feature = "serde")]
use serde::{Deserialize, Serialize};
/// Generic trait for a device capable of switching itself on or off.
pub trait PowerSwitch {
type Error;
fn switch_on(&mut self) -> Result<(), Self::Error>;
fn switch_off(&mut self) -> Result<(), Self::Error>;
fn is_switch_on(&self) -> bool {
self.switch_state() == SwitchState::On
}
fn switch_state(&self) -> SwitchState;
}
#[derive(Debug, Eq, PartialEq, Copy, Clone)]
#[cfg_attr(feature = "serde", derive(Serialize, Deserialize))]
pub enum SwitchState {
Off = 0,
On = 1,
Unknown = 2,
Faulty = 3,
}
pub type SwitchId = u16;
/// Generic trait for a device capable of turning on and off switches.
pub trait PowerSwitcherCommandSender {
type Error;
fn send_switch_on_cmd(&mut self, switch_id: SwitchId) -> Result<(), Self::Error>;
fn send_switch_off_cmd(&mut self, switch_id: SwitchId) -> Result<(), Self::Error>;
}
pub trait PowerSwitchInfo {
type Error;
/// Retrieve the switch state
fn get_switch_state(&mut self, switch_id: SwitchId) -> Result<SwitchState, Self::Error>;
fn get_is_switch_on(&mut self, switch_id: SwitchId) -> Result<bool, Self::Error> {
Ok(self.get_switch_state(switch_id)? == SwitchState::On)
}
/// The maximum delay it will take to change a switch.
///
/// This may take into account the time to send a command, wait for it to be executed, and
/// see the switch changed.
fn switch_delay_ms(&self) -> u32;
}
#[cfg(test)]
mod tests {
#![allow(dead_code)]
use super::*;
use std::boxed::Box;
struct Pcdu {
switch_rx: std::sync::mpsc::Receiver<(SwitchId, u16)>,
}
#[derive(Eq, PartialEq)]
enum DeviceState {
OFF,
SwitchingPower,
ON,
SETUP,
IDLE,
}
struct MyComplexDevice {
power_switcher: Box<dyn PowerSwitcherCommandSender<Error = ()>>,
power_info: Box<dyn PowerSwitchInfo<Error = ()>>,
switch_id: SwitchId,
some_state: u16,
dev_state: DeviceState,
mode: u32,
submode: u16,
}
impl MyComplexDevice {
pub fn periodic_op(&mut self) {
// .. mode command coming in
let mode = 1;
if mode == 1 {
if self.dev_state == DeviceState::OFF {
self.power_switcher
.send_switch_on_cmd(self.switch_id)
.expect("sending siwthc cmd failed");
self.dev_state = DeviceState::SwitchingPower;
}
if self.dev_state == DeviceState::SwitchingPower {
if self.power_info.get_is_switch_on(0).unwrap() {
self.dev_state = DeviceState::ON;
self.mode = 1;
}
}
}
}
}
}

449
satrs-core/src/pus/event.rs Normal file
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use crate::pus::{source_buffer_large_enough, EcssTmtcError};
use spacepackets::ecss::tm::PusTmCreator;
use spacepackets::ecss::tm::PusTmSecondaryHeader;
use spacepackets::ecss::{EcssEnumeration, PusError};
use spacepackets::{SpHeader, MAX_APID};
use crate::pus::EcssTmSenderCore;
#[cfg(feature = "alloc")]
pub use alloc_mod::EventReporter;
pub use spacepackets::ecss::event::*;
pub struct EventReporterBase {
msg_count: u16,
apid: u16,
pub dest_id: u16,
}
impl EventReporterBase {
pub fn new(apid: u16) -> Option<Self> {
if apid > MAX_APID {
return None;
}
Some(Self {
msg_count: 0,
dest_id: 0,
apid,
})
}
pub fn event_info(
&mut self,
buf: &mut [u8],
sender: &mut (impl EcssTmSenderCore + ?Sized),
time_stamp: &[u8],
event_id: impl EcssEnumeration,
aux_data: Option<&[u8]>,
) -> Result<(), EcssTmtcError> {
self.generate_and_send_generic_tm(
buf,
Subservice::TmInfoReport,
sender,
time_stamp,
event_id,
aux_data,
)
}
pub fn event_low_severity(
&mut self,
buf: &mut [u8],
sender: &mut (impl EcssTmSenderCore + ?Sized),
time_stamp: &[u8],
event_id: impl EcssEnumeration,
aux_data: Option<&[u8]>,
) -> Result<(), EcssTmtcError> {
self.generate_and_send_generic_tm(
buf,
Subservice::TmLowSeverityReport,
sender,
time_stamp,
event_id,
aux_data,
)
}
pub fn event_medium_severity(
&mut self,
buf: &mut [u8],
sender: &mut (impl EcssTmSenderCore + ?Sized),
time_stamp: &[u8],
event_id: impl EcssEnumeration,
aux_data: Option<&[u8]>,
) -> Result<(), EcssTmtcError> {
self.generate_and_send_generic_tm(
buf,
Subservice::TmMediumSeverityReport,
sender,
time_stamp,
event_id,
aux_data,
)
}
pub fn event_high_severity(
&mut self,
buf: &mut [u8],
sender: &mut (impl EcssTmSenderCore + ?Sized),
time_stamp: &[u8],
event_id: impl EcssEnumeration,
aux_data: Option<&[u8]>,
) -> Result<(), EcssTmtcError> {
self.generate_and_send_generic_tm(
buf,
Subservice::TmHighSeverityReport,
sender,
time_stamp,
event_id,
aux_data,
)
}
fn generate_and_send_generic_tm(
&mut self,
buf: &mut [u8],
subservice: Subservice,
sender: &mut (impl EcssTmSenderCore + ?Sized),
time_stamp: &[u8],
event_id: impl EcssEnumeration,
aux_data: Option<&[u8]>,
) -> Result<(), EcssTmtcError> {
let tm = self.generate_generic_event_tm(buf, subservice, time_stamp, event_id, aux_data)?;
sender.send_tm(tm.into())?;
self.msg_count += 1;
Ok(())
}
fn generate_generic_event_tm<'a>(
&'a self,
buf: &'a mut [u8],
subservice: Subservice,
time_stamp: &'a [u8],
event_id: impl EcssEnumeration,
aux_data: Option<&[u8]>,
) -> Result<PusTmCreator, EcssTmtcError> {
let mut src_data_len = event_id.size();
if let Some(aux_data) = aux_data {
src_data_len += aux_data.len();
}
source_buffer_large_enough(buf.len(), src_data_len)?;
let mut sp_header = SpHeader::tm_unseg(self.apid, 0, 0).unwrap();
let sec_header = PusTmSecondaryHeader::new(
5,
subservice.into(),
self.msg_count,
self.dest_id,
Some(time_stamp),
);
let mut current_idx = 0;
event_id
.write_to_be_bytes(&mut buf[0..event_id.size()])
.map_err(PusError::ByteConversion)?;
current_idx += event_id.size();
if let Some(aux_data) = aux_data {
buf[current_idx..current_idx + aux_data.len()].copy_from_slice(aux_data);
current_idx += aux_data.len();
}
Ok(PusTmCreator::new(
&mut sp_header,
sec_header,
&buf[0..current_idx],
true,
))
}
}
#[cfg(feature = "alloc")]
mod alloc_mod {
use super::*;
use alloc::vec;
use alloc::vec::Vec;
pub struct EventReporter {
source_data_buf: Vec<u8>,
pub reporter: EventReporterBase,
}
impl EventReporter {
pub fn new(apid: u16, max_event_id_and_aux_data_size: usize) -> Option<Self> {
let reporter = EventReporterBase::new(apid)?;
Some(Self {
source_data_buf: vec![0; max_event_id_and_aux_data_size],
reporter,
})
}
pub fn event_info(
&mut self,
sender: &mut (impl EcssTmSenderCore + ?Sized),
time_stamp: &[u8],
event_id: impl EcssEnumeration,
aux_data: Option<&[u8]>,
) -> Result<(), EcssTmtcError> {
self.reporter.event_info(
self.source_data_buf.as_mut_slice(),
sender,
time_stamp,
event_id,
aux_data,
)
}
pub fn event_low_severity(
&mut self,
sender: &mut (impl EcssTmSenderCore + ?Sized),
time_stamp: &[u8],
event_id: impl EcssEnumeration,
aux_data: Option<&[u8]>,
) -> Result<(), EcssTmtcError> {
self.reporter.event_low_severity(
self.source_data_buf.as_mut_slice(),
sender,
time_stamp,
event_id,
aux_data,
)
}
pub fn event_medium_severity(
&mut self,
sender: &mut (impl EcssTmSenderCore + ?Sized),
time_stamp: &[u8],
event_id: impl EcssEnumeration,
aux_data: Option<&[u8]>,
) -> Result<(), EcssTmtcError> {
self.reporter.event_medium_severity(
self.source_data_buf.as_mut_slice(),
sender,
time_stamp,
event_id,
aux_data,
)
}
pub fn event_high_severity(
&mut self,
sender: &mut (impl EcssTmSenderCore + ?Sized),
time_stamp: &[u8],
event_id: impl EcssEnumeration,
aux_data: Option<&[u8]>,
) -> Result<(), EcssTmtcError> {
self.reporter.event_high_severity(
self.source_data_buf.as_mut_slice(),
sender,
time_stamp,
event_id,
aux_data,
)
}
}
}
#[cfg(test)]
mod tests {
use super::*;
use crate::events::{EventU32, Severity};
use crate::pus::tests::CommonTmInfo;
use crate::pus::{EcssChannel, PusTmWrapper};
use crate::ChannelId;
use spacepackets::ByteConversionError;
use std::cell::RefCell;
use std::collections::VecDeque;
use std::vec::Vec;
const EXAMPLE_APID: u16 = 0xee;
const EXAMPLE_GROUP_ID: u16 = 2;
const EXAMPLE_EVENT_ID_0: u16 = 1;
#[allow(dead_code)]
const EXAMPLE_EVENT_ID_1: u16 = 2;
#[derive(Debug, Eq, PartialEq, Clone)]
struct TmInfo {
pub common: CommonTmInfo,
pub event: EventU32,
pub aux_data: Vec<u8>,
}
#[derive(Default, Clone)]
struct TestSender {
pub service_queue: RefCell<VecDeque<TmInfo>>,
}
impl EcssChannel for TestSender {
fn id(&self) -> ChannelId {
0
}
}
impl EcssTmSenderCore for TestSender {
fn send_tm(&self, tm: PusTmWrapper) -> Result<(), EcssTmtcError> {
match tm {
PusTmWrapper::InStore(_) => {
panic!("TestSender: unexpected call with address");
}
PusTmWrapper::Direct(tm) => {
assert!(!tm.source_data().is_empty());
let src_data = tm.source_data();
assert!(src_data.len() >= 4);
let event =
EventU32::from(u32::from_be_bytes(src_data[0..4].try_into().unwrap()));
let mut aux_data = Vec::new();
if src_data.len() > 4 {
aux_data.extend_from_slice(&src_data[4..]);
}
self.service_queue.borrow_mut().push_back(TmInfo {
common: CommonTmInfo::new_from_tm(&tm),
event,
aux_data,
});
Ok(())
}
}
}
}
fn severity_to_subservice(severity: Severity) -> Subservice {
match severity {
Severity::INFO => Subservice::TmInfoReport,
Severity::LOW => Subservice::TmLowSeverityReport,
Severity::MEDIUM => Subservice::TmMediumSeverityReport,
Severity::HIGH => Subservice::TmHighSeverityReport,
}
}
fn report_basic_event(
reporter: &mut EventReporter,
sender: &mut TestSender,
time_stamp: &[u8],
event: EventU32,
severity: Severity,
aux_data: Option<&[u8]>,
) {
match severity {
Severity::INFO => {
reporter
.event_info(sender, time_stamp, event, aux_data)
.expect("Error reporting info event");
}
Severity::LOW => {
reporter
.event_low_severity(sender, time_stamp, event, aux_data)
.expect("Error reporting low event");
}
Severity::MEDIUM => {
reporter
.event_medium_severity(sender, time_stamp, event, aux_data)
.expect("Error reporting medium event");
}
Severity::HIGH => {
reporter
.event_high_severity(sender, time_stamp, event, aux_data)
.expect("Error reporting high event");
}
}
}
fn basic_event_test(
max_event_aux_data_buf: usize,
severity: Severity,
error_data: Option<&[u8]>,
) {
let mut sender = TestSender::default();
let reporter = EventReporter::new(EXAMPLE_APID, max_event_aux_data_buf);
assert!(reporter.is_some());
let mut reporter = reporter.unwrap();
let time_stamp_empty: [u8; 7] = [0; 7];
let mut error_copy = Vec::new();
if let Some(err_data) = error_data {
error_copy.extend_from_slice(err_data);
}
let event = EventU32::new(severity, EXAMPLE_GROUP_ID, EXAMPLE_EVENT_ID_0)
.expect("Error creating example event");
report_basic_event(
&mut reporter,
&mut sender,
&time_stamp_empty,
event,
severity,
error_data,
);
let mut service_queue = sender.service_queue.borrow_mut();
assert_eq!(service_queue.len(), 1);
let tm_info = service_queue.pop_front().unwrap();
assert_eq!(
tm_info.common.subservice,
severity_to_subservice(severity) as u8
);
assert_eq!(tm_info.common.dest_id, 0);
assert_eq!(tm_info.common.time_stamp, time_stamp_empty);
assert_eq!(tm_info.common.msg_counter, 0);
assert_eq!(tm_info.common.apid, EXAMPLE_APID);
assert_eq!(tm_info.event, event);
assert_eq!(tm_info.aux_data, error_copy);
}
#[test]
fn basic_info_event_generation() {
basic_event_test(4, Severity::INFO, None);
}
#[test]
fn basic_low_severity_event() {
basic_event_test(4, Severity::LOW, None);
}
#[test]
fn basic_medium_severity_event() {
basic_event_test(4, Severity::MEDIUM, None);
}
#[test]
fn basic_high_severity_event() {
basic_event_test(4, Severity::HIGH, None);
}
#[test]
fn event_with_info_string() {
let info_string = "Test Information";
basic_event_test(32, Severity::INFO, Some(info_string.as_bytes()));
}
#[test]
fn low_severity_with_raw_err_data() {
let raw_err_param: i32 = -1;
let raw_err = raw_err_param.to_be_bytes();
basic_event_test(8, Severity::LOW, Some(&raw_err))
}
fn check_buf_too_small(
reporter: &mut EventReporter,
sender: &mut TestSender,
expected_found_len: usize,
) {
let time_stamp_empty: [u8; 7] = [0; 7];
let event = EventU32::new(Severity::INFO, EXAMPLE_GROUP_ID, EXAMPLE_EVENT_ID_0)
.expect("Error creating example event");
let err = reporter.event_info(sender, &time_stamp_empty, event, None);
assert!(err.is_err());
let err = err.unwrap_err();
if let EcssTmtcError::Pus(PusError::ByteConversion(
ByteConversionError::ToSliceTooSmall { found, expected },
)) = err
{
assert_eq!(expected, 4);
assert_eq!(found, expected_found_len);
} else {
panic!("Unexpected error {:?}", err);
}
}
#[test]
fn insufficient_buffer() {
let mut sender = TestSender::default();
for i in 0..3 {
let reporter = EventReporter::new(EXAMPLE_APID, i);
assert!(reporter.is_some());
let mut reporter = reporter.unwrap();
check_buf_too_small(&mut reporter, &mut sender, i);
}
}
}

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use crate::events::{EventU32, GenericEvent, Severity};
#[cfg(feature = "alloc")]
use crate::events::{EventU32TypedSev, HasSeverity};
#[cfg(feature = "alloc")]
use alloc::boxed::Box;
#[cfg(feature = "alloc")]
use core::hash::Hash;
#[cfg(feature = "alloc")]
use hashbrown::HashSet;
#[cfg(feature = "alloc")]
pub use crate::pus::event::EventReporter;
use crate::pus::verification::TcStateToken;
#[cfg(feature = "alloc")]
use crate::pus::EcssTmSenderCore;
use crate::pus::EcssTmtcError;
#[cfg(feature = "alloc")]
#[cfg_attr(doc_cfg, doc(cfg(feature = "alloc")))]
pub use alloc_mod::*;
#[cfg(feature = "heapless")]
#[cfg_attr(doc_cfg, doc(cfg(feature = "heapless")))]
pub use heapless_mod::*;
/// This trait allows the PUS event manager implementation to stay generic over various types
/// of backend containers.
///
/// These backend containers keep track on whether a particular event is enabled or disabled for
/// reporting and also expose a simple API to enable or disable the event reporting.
///
/// For example, a straight forward implementation for host systems could use a
/// [hash set](https://docs.rs/hashbrown/latest/hashbrown/struct.HashSet.html)
/// structure to track disabled events. A more primitive and embedded friendly
/// solution could track this information in a static or pre-allocated list which contains
/// the disabled events.
pub trait PusEventMgmtBackendProvider<Provider: GenericEvent> {
type Error;
fn event_enabled(&self, event: &Provider) -> bool;
fn enable_event_reporting(&mut self, event: &Provider) -> Result<bool, Self::Error>;
fn disable_event_reporting(&mut self, event: &Provider) -> Result<bool, Self::Error>;
}
#[cfg(feature = "heapless")]
pub mod heapless_mod {
use super::*;
use crate::events::{GenericEvent, LargestEventRaw};
use std::marker::PhantomData;
#[cfg_attr(doc_cfg, doc(cfg(feature = "heapless")))]
// TODO: After a new version of heapless is released which uses hash32 version 0.3, try using
// regular Event type again.
#[derive(Default)]
pub struct HeaplessPusMgmtBackendProvider<const N: usize, Provider: GenericEvent> {
disabled: heapless::FnvIndexSet<LargestEventRaw, N>,
phantom: PhantomData<Provider>,
}
/// Safety: All contained field are [Send] as well
unsafe impl<const N: usize, Event: GenericEvent + Send> Send
for HeaplessPusMgmtBackendProvider<N, Event>
{
}
impl<const N: usize, Provider: GenericEvent> PusEventMgmtBackendProvider<Provider>
for HeaplessPusMgmtBackendProvider<N, Provider>
{
type Error = ();
fn event_enabled(&self, event: &Provider) -> bool {
self.disabled.contains(&event.raw_as_largest_type())
}
fn enable_event_reporting(&mut self, event: &Provider) -> Result<bool, Self::Error> {
self.disabled
.insert(event.raw_as_largest_type())
.map_err(|_| ())
}
fn disable_event_reporting(&mut self, event: &Provider) -> Result<bool, Self::Error> {
Ok(self.disabled.remove(&event.raw_as_largest_type()))
}
}
}
#[derive(Debug, PartialEq, Eq)]
pub enum EventRequest<Event: GenericEvent = EventU32> {
Enable(Event),
Disable(Event),
}
#[derive(Debug)]
pub struct EventRequestWithToken<Event: GenericEvent = EventU32> {
pub request: EventRequest<Event>,
pub token: TcStateToken,
}
#[derive(Debug)]
pub enum EventManError {
EcssTmtcError(EcssTmtcError),
SeverityMissmatch(Severity, Severity),
}
impl From<EcssTmtcError> for EventManError {
fn from(v: EcssTmtcError) -> Self {
Self::EcssTmtcError(v)
}
}
#[cfg(feature = "alloc")]
pub mod alloc_mod {
use super::*;
/// Default backend provider which uses a hash set as the event reporting status container
/// like mentioned in the example of the [PusEventMgmtBackendProvider] documentation.
///
/// This provider is a good option for host systems or larger embedded systems where
/// the expected occasional memory allocation performed by the [HashSet] is not an issue.
pub struct DefaultPusMgmtBackendProvider<Event: GenericEvent = EventU32> {
disabled: HashSet<Event>,
}
/// Safety: All contained field are [Send] as well
unsafe impl<Event: GenericEvent + Send> Send for DefaultPusMgmtBackendProvider<Event> {}
impl<Event: GenericEvent> Default for DefaultPusMgmtBackendProvider<Event> {
fn default() -> Self {
Self {
disabled: HashSet::default(),
}
}
}
impl<Provider: GenericEvent + PartialEq + Eq + Hash + Copy + Clone>
PusEventMgmtBackendProvider<Provider> for DefaultPusMgmtBackendProvider<Provider>
{
type Error = ();
fn event_enabled(&self, event: &Provider) -> bool {
!self.disabled.contains(event)
}
fn enable_event_reporting(&mut self, event: &Provider) -> Result<bool, Self::Error> {
Ok(self.disabled.remove(event))
}
fn disable_event_reporting(&mut self, event: &Provider) -> Result<bool, Self::Error> {
Ok(self.disabled.insert(*event))
}
}
pub struct PusEventDispatcher<BackendError, Provider: GenericEvent> {
reporter: EventReporter,
backend: Box<dyn PusEventMgmtBackendProvider<Provider, Error = BackendError>>,
}
/// Safety: All contained fields are send as well.
unsafe impl<E: Send, Event: GenericEvent + Send> Send for PusEventDispatcher<E, Event> {}
impl<BackendError, Provider: GenericEvent> PusEventDispatcher<BackendError, Provider> {
pub fn new(
reporter: EventReporter,
backend: Box<dyn PusEventMgmtBackendProvider<Provider, Error = BackendError>>,
) -> Self {
Self { reporter, backend }
}
}
impl<BackendError, Event: GenericEvent> PusEventDispatcher<BackendError, Event> {
pub fn enable_tm_for_event(&mut self, event: &Event) -> Result<bool, BackendError> {
self.backend.enable_event_reporting(event)
}
pub fn disable_tm_for_event(&mut self, event: &Event) -> Result<bool, BackendError> {
self.backend.disable_event_reporting(event)
}
pub fn generate_pus_event_tm_generic(
&mut self,
sender: &mut (impl EcssTmSenderCore + ?Sized),
time_stamp: &[u8],
event: Event,
aux_data: Option<&[u8]>,
) -> Result<bool, EventManError> {
if !self.backend.event_enabled(&event) {
return Ok(false);
}
match event.severity() {
Severity::INFO => self
.reporter
.event_info(sender, time_stamp, event, aux_data)
.map(|_| true)
.map_err(|e| e.into()),
Severity::LOW => self
.reporter
.event_low_severity(sender, time_stamp, event, aux_data)
.map(|_| true)
.map_err(|e| e.into()),
Severity::MEDIUM => self
.reporter
.event_medium_severity(sender, time_stamp, event, aux_data)
.map(|_| true)
.map_err(|e| e.into()),
Severity::HIGH => self
.reporter
.event_high_severity(sender, time_stamp, event, aux_data)
.map(|_| true)
.map_err(|e| e.into()),
}
}
}
impl<BackendError> PusEventDispatcher<BackendError, EventU32> {
pub fn enable_tm_for_event_with_sev<Severity: HasSeverity>(
&mut self,
event: &EventU32TypedSev<Severity>,
) -> Result<bool, BackendError> {
self.backend.enable_event_reporting(event.as_ref())
}
pub fn disable_tm_for_event_with_sev<Severity: HasSeverity>(
&mut self,
event: &EventU32TypedSev<Severity>,
) -> Result<bool, BackendError> {
self.backend.disable_event_reporting(event.as_ref())
}
pub fn generate_pus_event_tm<Severity: HasSeverity>(
&mut self,
sender: &mut (impl EcssTmSenderCore + ?Sized),
time_stamp: &[u8],
event: EventU32TypedSev<Severity>,
aux_data: Option<&[u8]>,
) -> Result<bool, EventManError> {
self.generate_pus_event_tm_generic(sender, time_stamp, event.into(), aux_data)
}
}
}
#[cfg(test)]
mod tests {
use super::*;
use crate::events::SeverityInfo;
use crate::pus::MpscTmAsVecSender;
use std::sync::mpsc::{channel, TryRecvError};
const INFO_EVENT: EventU32TypedSev<SeverityInfo> =
EventU32TypedSev::<SeverityInfo>::const_new(1, 0);
const LOW_SEV_EVENT: EventU32 = EventU32::const_new(Severity::LOW, 1, 5);
const EMPTY_STAMP: [u8; 7] = [0; 7];
fn create_basic_man() -> PusEventDispatcher<(), EventU32> {
let reporter = EventReporter::new(0x02, 128).expect("Creating event repoter failed");
let backend = DefaultPusMgmtBackendProvider::<EventU32>::default();
PusEventDispatcher::new(reporter, Box::new(backend))
}
#[test]
fn test_basic() {
let mut event_man = create_basic_man();
let (event_tx, event_rx) = channel();
let mut sender = MpscTmAsVecSender::new(0, "test_sender", event_tx);
let event_sent = event_man
.generate_pus_event_tm(&mut sender, &EMPTY_STAMP, INFO_EVENT, None)
.expect("Sending info event failed");
assert!(event_sent);
// Will not check packet here, correctness of packet was tested somewhere else
event_rx.try_recv().expect("Receiving event TM failed");
}
#[test]
fn test_disable_event() {
let mut event_man = create_basic_man();
let (event_tx, event_rx) = channel();
let mut sender = MpscTmAsVecSender::new(0, "test", event_tx);
let res = event_man.disable_tm_for_event(&LOW_SEV_EVENT);
assert!(res.is_ok());
assert!(res.unwrap());
let mut event_sent = event_man
.generate_pus_event_tm_generic(&mut sender, &EMPTY_STAMP, LOW_SEV_EVENT, None)
.expect("Sending low severity event failed");
assert!(!event_sent);
let res = event_rx.try_recv();
assert!(res.is_err());
assert!(matches!(res.unwrap_err(), TryRecvError::Empty));
// Check that only the low severity event was disabled
event_sent = event_man
.generate_pus_event_tm(&mut sender, &EMPTY_STAMP, INFO_EVENT, None)
.expect("Sending info event failed");
assert!(event_sent);
event_rx.try_recv().expect("No info event received");
}
#[test]
fn test_reenable_event() {
let mut event_man = create_basic_man();
let (event_tx, event_rx) = channel();
let mut sender = MpscTmAsVecSender::new(0, "test", event_tx);
let mut res = event_man.disable_tm_for_event_with_sev(&INFO_EVENT);
assert!(res.is_ok());
assert!(res.unwrap());
res = event_man.enable_tm_for_event_with_sev(&INFO_EVENT);
assert!(res.is_ok());
assert!(res.unwrap());
let event_sent = event_man
.generate_pus_event_tm(&mut sender, &EMPTY_STAMP, INFO_EVENT, None)
.expect("Sending info event failed");
assert!(event_sent);
event_rx.try_recv().expect("No info event received");
}
}

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@ -0,0 +1,280 @@
use crate::events::EventU32;
use crate::pus::event_man::{EventRequest, EventRequestWithToken};
use crate::pus::verification::TcStateToken;
use crate::pus::{PartialPusHandlingError, PusPacketHandlerResult, PusPacketHandlingError};
use spacepackets::ecss::event::Subservice;
use spacepackets::ecss::PusPacket;
use std::sync::mpsc::Sender;
use super::{EcssTcInMemConverter, PusServiceBase, PusServiceHelper};
pub struct PusService5EventHandler<TcInMemConverter: EcssTcInMemConverter> {
pub service_helper: PusServiceHelper<TcInMemConverter>,
event_request_tx: Sender<EventRequestWithToken>,
}
impl<TcInMemConverter: EcssTcInMemConverter> PusService5EventHandler<TcInMemConverter> {
pub fn new(
service_handler: PusServiceHelper<TcInMemConverter>,
event_request_tx: Sender<EventRequestWithToken>,
) -> Self {
Self {
service_helper: service_handler,
event_request_tx,
}
}
pub fn handle_one_tc(&mut self) -> Result<PusPacketHandlerResult, PusPacketHandlingError> {
let possible_packet = self.service_helper.retrieve_and_accept_next_packet()?;
if possible_packet.is_none() {
return Ok(PusPacketHandlerResult::Empty);
}
let ecss_tc_and_token = possible_packet.unwrap();
let tc = self
.service_helper
.tc_in_mem_converter
.convert_ecss_tc_in_memory_to_reader(&ecss_tc_and_token.tc_in_memory)?;
let subservice = tc.subservice();
let srv = Subservice::try_from(subservice);
if srv.is_err() {
return Ok(PusPacketHandlerResult::CustomSubservice(
tc.subservice(),
ecss_tc_and_token.token,
));
}
let handle_enable_disable_request = |enable: bool, stamp: [u8; 7]| {
if tc.user_data().len() < 4 {
return Err(PusPacketHandlingError::NotEnoughAppData(
"at least 4 bytes event ID expected".into(),
));
}
let user_data = tc.user_data();
let event_u32 = EventU32::from(u32::from_be_bytes(user_data[0..4].try_into().unwrap()));
let start_token = self
.service_helper
.common
.verification_handler
.borrow_mut()
.start_success(ecss_tc_and_token.token, Some(&stamp))
.map_err(|_| PartialPusHandlingError::Verification);
let partial_error = start_token.clone().err();
let mut token: TcStateToken = ecss_tc_and_token.token.into();
if let Ok(start_token) = start_token {
token = start_token.into();
}
let event_req_with_token = if enable {
EventRequestWithToken {
request: EventRequest::Enable(event_u32),
token,
}
} else {
EventRequestWithToken {
request: EventRequest::Disable(event_u32),
token,
}
};
self.event_request_tx
.send(event_req_with_token)
.map_err(|_| {
PusPacketHandlingError::Other("Forwarding event request failed".into())
})?;
if let Some(partial_error) = partial_error {
return Ok(PusPacketHandlerResult::RequestHandledPartialSuccess(
partial_error,
));
}
Ok(PusPacketHandlerResult::RequestHandled)
};
let mut partial_error = None;
let time_stamp = PusServiceBase::get_current_timestamp(&mut partial_error);
match srv.unwrap() {
Subservice::TmInfoReport
| Subservice::TmLowSeverityReport
| Subservice::TmMediumSeverityReport
| Subservice::TmHighSeverityReport => {
return Err(PusPacketHandlingError::InvalidSubservice(tc.subservice()))
}
Subservice::TcEnableEventGeneration => {
handle_enable_disable_request(true, time_stamp)?;
}
Subservice::TcDisableEventGeneration => {
handle_enable_disable_request(false, time_stamp)?;
}
Subservice::TcReportDisabledList | Subservice::TmDisabledEventsReport => {
return Ok(PusPacketHandlerResult::SubserviceNotImplemented(
subservice,
ecss_tc_and_token.token,
));
}
}
Ok(PusPacketHandlerResult::RequestHandled)
}
}
#[cfg(test)]
mod tests {
use delegate::delegate;
use spacepackets::ecss::event::Subservice;
use spacepackets::util::UnsignedEnum;
use spacepackets::{
ecss::{
tc::{PusTcCreator, PusTcSecondaryHeader},
tm::PusTmReader,
},
SequenceFlags, SpHeader,
};
use std::sync::mpsc::{self, Sender};
use crate::pus::event_man::EventRequest;
use crate::pus::tests::SimplePusPacketHandler;
use crate::pus::verification::RequestId;
use crate::{
events::EventU32,
pus::{
event_man::EventRequestWithToken,
tests::{PusServiceHandlerWithSharedStoreCommon, PusTestHarness, TEST_APID},
verification::{TcStateAccepted, VerificationToken},
EcssTcInSharedStoreConverter, PusPacketHandlerResult, PusPacketHandlingError,
},
};
use super::PusService5EventHandler;
const TEST_EVENT_0: EventU32 = EventU32::const_new(crate::events::Severity::INFO, 5, 25);
struct Pus5HandlerWithStoreTester {
common: PusServiceHandlerWithSharedStoreCommon,
handler: PusService5EventHandler<EcssTcInSharedStoreConverter>,
}
impl Pus5HandlerWithStoreTester {
pub fn new(event_request_tx: Sender<EventRequestWithToken>) -> Self {
let (common, srv_handler) = PusServiceHandlerWithSharedStoreCommon::new();
Self {
common,
handler: PusService5EventHandler::new(srv_handler, event_request_tx),
}
}
}
impl PusTestHarness for Pus5HandlerWithStoreTester {
delegate! {
to self.common {
fn send_tc(&mut self, tc: &PusTcCreator) -> VerificationToken<TcStateAccepted>;
fn read_next_tm(&mut self) -> PusTmReader<'_>;
fn check_no_tm_available(&self) -> bool;
fn check_next_verification_tm(&self, subservice: u8, expected_request_id: RequestId);
}
}
}
impl SimplePusPacketHandler for Pus5HandlerWithStoreTester {
delegate! {
to self.handler {
fn handle_one_tc(&mut self) -> Result<PusPacketHandlerResult, PusPacketHandlingError>;
}
}
}
fn event_test(
test_harness: &mut (impl PusTestHarness + SimplePusPacketHandler),
subservice: Subservice,
expected_event_req: EventRequest,
event_req_receiver: mpsc::Receiver<EventRequestWithToken>,
) {
let mut sp_header = SpHeader::tc(TEST_APID, SequenceFlags::Unsegmented, 0, 0).unwrap();
let sec_header = PusTcSecondaryHeader::new_simple(5, subservice as u8);
let mut app_data = [0; 4];
TEST_EVENT_0
.write_to_be_bytes(&mut app_data)
.expect("writing test event failed");
let ping_tc = PusTcCreator::new(&mut sp_header, sec_header, &app_data, true);
let token = test_harness.send_tc(&ping_tc);
let request_id = token.req_id();
test_harness.handle_one_tc().unwrap();
test_harness.check_next_verification_tm(1, request_id);
test_harness.check_next_verification_tm(3, request_id);
// Completion TM is not generated for us.
assert!(test_harness.check_no_tm_available());
let event_request = event_req_receiver
.try_recv()
.expect("no event request received");
assert_eq!(expected_event_req, event_request.request);
}
#[test]
fn test_enabling_event_reporting() {
let (event_request_tx, event_request_rx) = mpsc::channel();
let mut test_harness = Pus5HandlerWithStoreTester::new(event_request_tx);
event_test(
&mut test_harness,
Subservice::TcEnableEventGeneration,
EventRequest::Enable(TEST_EVENT_0),
event_request_rx,
);
}
#[test]
fn test_disabling_event_reporting() {
let (event_request_tx, event_request_rx) = mpsc::channel();
let mut test_harness = Pus5HandlerWithStoreTester::new(event_request_tx);
event_test(
&mut test_harness,
Subservice::TcDisableEventGeneration,
EventRequest::Disable(TEST_EVENT_0),
event_request_rx,
);
}
#[test]
fn test_empty_tc_queue() {
let (event_request_tx, _) = mpsc::channel();
let mut test_harness = Pus5HandlerWithStoreTester::new(event_request_tx);
let result = test_harness.handle_one_tc();
assert!(result.is_ok());
let result = result.unwrap();
if let PusPacketHandlerResult::Empty = result {
} else {
panic!("unexpected result type {result:?}")
}
}
#[test]
fn test_sending_custom_subservice() {
let (event_request_tx, _) = mpsc::channel();
let mut test_harness = Pus5HandlerWithStoreTester::new(event_request_tx);
let mut sp_header = SpHeader::tc(TEST_APID, SequenceFlags::Unsegmented, 0, 0).unwrap();
let sec_header = PusTcSecondaryHeader::new_simple(5, 200);
let ping_tc = PusTcCreator::new_no_app_data(&mut sp_header, sec_header, true);
test_harness.send_tc(&ping_tc);
let result = test_harness.handle_one_tc();
assert!(result.is_ok());
let result = result.unwrap();
if let PusPacketHandlerResult::CustomSubservice(subservice, _) = result {
assert_eq!(subservice, 200);
} else {
panic!("unexpected result type {result:?}")
}
}
#[test]
fn test_sending_invalid_app_data() {
let (event_request_tx, _) = mpsc::channel();
let mut test_harness = Pus5HandlerWithStoreTester::new(event_request_tx);
let mut sp_header = SpHeader::tc(TEST_APID, SequenceFlags::Unsegmented, 0, 0).unwrap();
let sec_header =
PusTcSecondaryHeader::new_simple(5, Subservice::TcEnableEventGeneration as u8);
let ping_tc = PusTcCreator::new(&mut sp_header, sec_header, &[0, 1, 2], true);
test_harness.send_tc(&ping_tc);
let result = test_harness.handle_one_tc();
assert!(result.is_err());
let result = result.unwrap_err();
if let PusPacketHandlingError::NotEnoughAppData(string) = result {
assert_eq!(string, "at least 4 bytes event ID expected");
} else {
panic!("unexpected result type {result:?}")
}
}
}

1
satrs-core/src/pus/hk.rs Normal file
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pub use spacepackets::ecss::hk::*;

1194
satrs-core/src/pus/mod.rs Normal file

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use num_enum::{IntoPrimitive, TryFromPrimitive};
#[cfg(feature = "serde")]
use serde::{Deserialize, Serialize};
#[derive(Debug, Eq, PartialEq, Copy, Clone, IntoPrimitive, TryFromPrimitive)]
#[cfg_attr(feature = "serde", derive(Serialize, Deserialize))]
#[repr(u8)]
pub enum Subservice {
TcSetMode = 1,
TcReadMode = 3,
TcAnnounceMode = 4,
TcAnnounceModeRecursive = 5,
TmModeReply = 6,
TmCantReachMode = 7,
TmWrongModeReply = 8,
}

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use super::scheduler::PusSchedulerInterface;
use super::{EcssTcInMemConverter, PusServiceBase, PusServiceHelper};
use crate::pool::PoolProvider;
use crate::pus::{PusPacketHandlerResult, PusPacketHandlingError};
use alloc::string::ToString;
use spacepackets::ecss::{scheduling, PusPacket};
use spacepackets::time::cds::TimeProvider;
/// This is a helper class for [std] environments to handle generic PUS 11 (scheduling service)
/// packets. This handler is able to handle the most important PUS requests for a scheduling
/// service which provides the [PusSchedulerInterface].
///
/// Please note that this class does not do the regular periodic handling like releasing any
/// telecommands inside the scheduler. The user can retrieve the wrapped scheduler via the
/// [Self::scheduler] and [Self::scheduler_mut] function and then use the scheduler API to release
/// telecommands when applicable.
pub struct PusService11SchedHandler<
TcInMemConverter: EcssTcInMemConverter,
Scheduler: PusSchedulerInterface,
> {
pub service_helper: PusServiceHelper<TcInMemConverter>,
scheduler: Scheduler,
}
impl<TcInMemConverter: EcssTcInMemConverter, Scheduler: PusSchedulerInterface>
PusService11SchedHandler<TcInMemConverter, Scheduler>
{
pub fn new(service_helper: PusServiceHelper<TcInMemConverter>, scheduler: Scheduler) -> Self {
Self {
service_helper,
scheduler,
}
}
pub fn scheduler_mut(&mut self) -> &mut Scheduler {
&mut self.scheduler
}
pub fn scheduler(&self) -> &Scheduler {
&self.scheduler
}
pub fn handle_one_tc(
&mut self,
sched_tc_pool: &mut (impl PoolProvider + ?Sized),
) -> Result<PusPacketHandlerResult, PusPacketHandlingError> {
let possible_packet = self.service_helper.retrieve_and_accept_next_packet()?;
if possible_packet.is_none() {
return Ok(PusPacketHandlerResult::Empty);
}
let ecss_tc_and_token = possible_packet.unwrap();
let tc = self
.service_helper
.tc_in_mem_converter
.convert_ecss_tc_in_memory_to_reader(&ecss_tc_and_token.tc_in_memory)?;
let subservice = PusPacket::subservice(&tc);
let standard_subservice = scheduling::Subservice::try_from(subservice);
if standard_subservice.is_err() {
return Ok(PusPacketHandlerResult::CustomSubservice(
subservice,
ecss_tc_and_token.token,
));
}
let mut partial_error = None;
let time_stamp = PusServiceBase::get_current_timestamp(&mut partial_error);
match standard_subservice.unwrap() {
scheduling::Subservice::TcEnableScheduling => {
let start_token = self
.service_helper
.common
.verification_handler
.get_mut()
.start_success(ecss_tc_and_token.token, Some(&time_stamp))
.expect("Error sending start success");
self.scheduler.enable();
if self.scheduler.is_enabled() {
self.service_helper
.common
.verification_handler
.get_mut()
.completion_success(start_token, Some(&time_stamp))
.expect("Error sending completion success");
} else {
return Err(PusPacketHandlingError::Other(
"failed to enabled scheduler".to_string(),
));
}
}
scheduling::Subservice::TcDisableScheduling => {
let start_token = self
.service_helper
.common
.verification_handler
.get_mut()
.start_success(ecss_tc_and_token.token, Some(&time_stamp))
.expect("Error sending start success");
self.scheduler.disable();
if !self.scheduler.is_enabled() {
self.service_helper
.common
.verification_handler
.get_mut()
.completion_success(start_token, Some(&time_stamp))
.expect("Error sending completion success");
} else {
return Err(PusPacketHandlingError::Other(
"failed to disable scheduler".to_string(),
));
}
}
scheduling::Subservice::TcResetScheduling => {
let start_token = self
.service_helper
.common
.verification_handler
.get_mut()
.start_success(ecss_tc_and_token.token, Some(&time_stamp))
.expect("Error sending start success");
self.scheduler
.reset(sched_tc_pool)
.expect("Error resetting TC Pool");
self.service_helper
.common
.verification_handler
.get_mut()
.completion_success(start_token, Some(&time_stamp))
.expect("Error sending completion success");
}
scheduling::Subservice::TcInsertActivity => {
let start_token = self
.service_helper
.common
.verification_handler
.get_mut()
.start_success(ecss_tc_and_token.token, Some(&time_stamp))
.expect("error sending start success");
// let mut pool = self.sched_tc_pool.write().expect("locking pool failed");
self.scheduler
.insert_wrapped_tc::<TimeProvider>(&tc, sched_tc_pool)
.expect("insertion of activity into pool failed");
self.service_helper
.common
.verification_handler
.get_mut()
.completion_success(start_token, Some(&time_stamp))
.expect("sending completion success failed");
}
_ => {
// Treat unhandled standard subservices as custom subservices for now.
return Ok(PusPacketHandlerResult::CustomSubservice(
subservice,
ecss_tc_and_token.token,
));
}
}
if let Some(partial_error) = partial_error {
return Ok(PusPacketHandlerResult::RequestHandledPartialSuccess(
partial_error,
));
}
Ok(PusPacketHandlerResult::RequestHandled)
}
}
#[cfg(test)]
mod tests {
use crate::pool::{StaticMemoryPool, StaticPoolConfig};
use crate::pus::tests::TEST_APID;
use crate::pus::{
scheduler::{self, PusSchedulerInterface, TcInfo},
tests::{PusServiceHandlerWithSharedStoreCommon, PusTestHarness},
verification::{RequestId, TcStateAccepted, VerificationToken},
EcssTcInSharedStoreConverter,
};
use alloc::collections::VecDeque;
use delegate::delegate;
use spacepackets::ecss::scheduling::Subservice;
use spacepackets::ecss::tc::PusTcSecondaryHeader;
use spacepackets::ecss::WritablePusPacket;
use spacepackets::time::TimeWriter;
use spacepackets::SpHeader;
use spacepackets::{
ecss::{tc::PusTcCreator, tm::PusTmReader},
time::cds,
};
use super::PusService11SchedHandler;
struct Pus11HandlerWithStoreTester {
common: PusServiceHandlerWithSharedStoreCommon,
handler: PusService11SchedHandler<EcssTcInSharedStoreConverter, TestScheduler>,
sched_tc_pool: StaticMemoryPool,
}
impl Pus11HandlerWithStoreTester {
pub fn new() -> Self {
let test_scheduler = TestScheduler::default();
let pool_cfg = StaticPoolConfig::new(alloc::vec![(16, 16), (8, 32), (4, 64)]);
let sched_tc_pool = StaticMemoryPool::new(pool_cfg.clone());
let (common, srv_handler) = PusServiceHandlerWithSharedStoreCommon::new();
Self {
common,
handler: PusService11SchedHandler::new(srv_handler, test_scheduler),
sched_tc_pool,
}
}
}
impl PusTestHarness for Pus11HandlerWithStoreTester {
delegate! {
to self.common {
fn send_tc(&mut self, tc: &PusTcCreator) -> VerificationToken<TcStateAccepted>;
fn read_next_tm(&mut self) -> PusTmReader<'_>;
fn check_no_tm_available(&self) -> bool;
fn check_next_verification_tm(&self, subservice: u8, expected_request_id: RequestId);
}
}
}
#[derive(Default)]
pub struct TestScheduler {
reset_count: u32,
enabled: bool,
enabled_count: u32,
disabled_count: u32,
inserted_tcs: VecDeque<TcInfo>,
}
impl PusSchedulerInterface for TestScheduler {
type TimeProvider = cds::TimeProvider;
fn reset(
&mut self,
_store: &mut (impl crate::pool::PoolProvider + ?Sized),
) -> Result<(), crate::pool::StoreError> {
self.reset_count += 1;
Ok(())
}
fn is_enabled(&self) -> bool {
self.enabled
}
fn enable(&mut self) {
self.enabled_count += 1;
self.enabled = true;
}
fn disable(&mut self) {
self.disabled_count += 1;
self.enabled = false;
}
fn insert_unwrapped_and_stored_tc(
&mut self,
_time_stamp: spacepackets::time::UnixTimestamp,
info: crate::pus::scheduler::TcInfo,
) -> Result<(), crate::pus::scheduler::ScheduleError> {
self.inserted_tcs.push_back(info);
Ok(())
}
}
fn generic_subservice_send(
test_harness: &mut Pus11HandlerWithStoreTester,
subservice: Subservice,
) {
let mut reply_header = SpHeader::tm_unseg(TEST_APID, 0, 0).unwrap();
let tc_header = PusTcSecondaryHeader::new_simple(11, subservice as u8);
let enable_scheduling = PusTcCreator::new(&mut reply_header, tc_header, &[0; 7], true);
let token = test_harness.send_tc(&enable_scheduling);
let request_id = token.req_id();
test_harness
.handler
.handle_one_tc(&mut test_harness.sched_tc_pool)
.unwrap();
test_harness.check_next_verification_tm(1, request_id);
test_harness.check_next_verification_tm(3, request_id);
test_harness.check_next_verification_tm(7, request_id);
}
#[test]
fn test_scheduling_enabling_tc() {
let mut test_harness = Pus11HandlerWithStoreTester::new();
test_harness.handler.scheduler_mut().disable();
assert!(!test_harness.handler.scheduler().is_enabled());
generic_subservice_send(&mut test_harness, Subservice::TcEnableScheduling);
assert!(test_harness.handler.scheduler().is_enabled());
assert_eq!(test_harness.handler.scheduler().enabled_count, 1);
}
#[test]
fn test_scheduling_disabling_tc() {
let mut test_harness = Pus11HandlerWithStoreTester::new();
test_harness.handler.scheduler_mut().enable();
assert!(test_harness.handler.scheduler().is_enabled());
generic_subservice_send(&mut test_harness, Subservice::TcDisableScheduling);
assert!(!test_harness.handler.scheduler().is_enabled());
assert_eq!(test_harness.handler.scheduler().disabled_count, 1);
}
#[test]
fn test_reset_scheduler_tc() {
let mut test_harness = Pus11HandlerWithStoreTester::new();
generic_subservice_send(&mut test_harness, Subservice::TcResetScheduling);
assert_eq!(test_harness.handler.scheduler().reset_count, 1);
}
#[test]
fn test_insert_activity_tc() {
let mut test_harness = Pus11HandlerWithStoreTester::new();
let mut reply_header = SpHeader::tm_unseg(TEST_APID, 0, 0).unwrap();
let mut sec_header = PusTcSecondaryHeader::new_simple(17, 1);
let ping_tc = PusTcCreator::new(&mut reply_header, sec_header, &[], true);
let req_id_ping_tc = scheduler::RequestId::from_tc(&ping_tc);
let stamper = cds::TimeProvider::from_now_with_u16_days().expect("time provider failed");
let mut sched_app_data: [u8; 64] = [0; 64];
let mut written_len = stamper.write_to_bytes(&mut sched_app_data).unwrap();
let ping_raw = ping_tc.to_vec().expect("generating raw tc failed");
sched_app_data[written_len..written_len + ping_raw.len()].copy_from_slice(&ping_raw);
written_len += ping_raw.len();
reply_header = SpHeader::tm_unseg(TEST_APID, 1, 0).unwrap();
sec_header = PusTcSecondaryHeader::new_simple(11, Subservice::TcInsertActivity as u8);
let enable_scheduling = PusTcCreator::new(
&mut reply_header,
sec_header,
&sched_app_data[..written_len],
true,
);
let token = test_harness.send_tc(&enable_scheduling);
let request_id = token.req_id();
test_harness
.handler
.handle_one_tc(&mut test_harness.sched_tc_pool)
.unwrap();
test_harness.check_next_verification_tm(1, request_id);
test_harness.check_next_verification_tm(3, request_id);
test_harness.check_next_verification_tm(7, request_id);
let tc_info = test_harness
.handler
.scheduler_mut()
.inserted_tcs
.pop_front()
.unwrap();
assert_eq!(tc_info.request_id(), req_id_ping_tc);
}
}

272
satrs-core/src/pus/test.rs Normal file
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use crate::pus::{
PartialPusHandlingError, PusPacketHandlerResult, PusPacketHandlingError, PusTmWrapper,
};
use spacepackets::ecss::tm::{PusTmCreator, PusTmSecondaryHeader};
use spacepackets::ecss::PusPacket;
use spacepackets::SpHeader;
use super::{EcssTcInMemConverter, PusServiceBase, PusServiceHelper};
/// This is a helper class for [std] environments to handle generic PUS 17 (test service) packets.
/// This handler only processes ping requests and generates a ping reply for them accordingly.
pub struct PusService17TestHandler<TcInMemConverter: EcssTcInMemConverter> {
pub service_helper: PusServiceHelper<TcInMemConverter>,
}
impl<TcInMemConverter: EcssTcInMemConverter> PusService17TestHandler<TcInMemConverter> {
pub fn new(service_helper: PusServiceHelper<TcInMemConverter>) -> Self {
Self { service_helper }
}
pub fn handle_one_tc(&mut self) -> Result<PusPacketHandlerResult, PusPacketHandlingError> {
let possible_packet = self.service_helper.retrieve_and_accept_next_packet()?;
if possible_packet.is_none() {
return Ok(PusPacketHandlerResult::Empty);
}
let ecss_tc_and_token = possible_packet.unwrap();
let tc = self
.service_helper
.tc_in_mem_converter
.convert_ecss_tc_in_memory_to_reader(&ecss_tc_and_token.tc_in_memory)?;
if tc.service() != 17 {
return Err(PusPacketHandlingError::WrongService(tc.service()));
}
if tc.subservice() == 1 {
let mut partial_error = None;
let time_stamp = PusServiceBase::get_current_timestamp(&mut partial_error);
let result = self
.service_helper
.common
.verification_handler
.get_mut()
.start_success(ecss_tc_and_token.token, Some(&time_stamp))
.map_err(|_| PartialPusHandlingError::Verification);
let start_token = if let Ok(result) = result {
Some(result)
} else {
partial_error = Some(result.unwrap_err());
None
};
// Sequence count will be handled centrally in TM funnel.
let mut reply_header =
SpHeader::tm_unseg(self.service_helper.common.tm_apid, 0, 0).unwrap();
let tc_header = PusTmSecondaryHeader::new_simple(17, 2, &time_stamp);
let ping_reply = PusTmCreator::new(&mut reply_header, tc_header, &[], true);
let result = self
.service_helper
.common
.tm_sender
.send_tm(PusTmWrapper::Direct(ping_reply))
.map_err(PartialPusHandlingError::TmSend);
if let Err(err) = result {
partial_error = Some(err);
}
if let Some(start_token) = start_token {
if self
.service_helper
.common
.verification_handler
.get_mut()
.completion_success(start_token, Some(&time_stamp))
.is_err()
{
partial_error = Some(PartialPusHandlingError::Verification)
}
}
if let Some(partial_error) = partial_error {
return Ok(PusPacketHandlerResult::RequestHandledPartialSuccess(
partial_error,
));
};
} else {
return Ok(PusPacketHandlerResult::CustomSubservice(
tc.subservice(),
ecss_tc_and_token.token,
));
}
Ok(PusPacketHandlerResult::RequestHandled)
}
}
#[cfg(test)]
mod tests {
use crate::pus::tests::{
PusServiceHandlerWithSharedStoreCommon, PusServiceHandlerWithVecCommon, PusTestHarness,
SimplePusPacketHandler, TEST_APID,
};
use crate::pus::verification::RequestId;
use crate::pus::verification::{TcStateAccepted, VerificationToken};
use crate::pus::{
EcssTcInSharedStoreConverter, EcssTcInVecConverter, PusPacketHandlerResult,
PusPacketHandlingError,
};
use delegate::delegate;
use spacepackets::ecss::tc::{PusTcCreator, PusTcSecondaryHeader};
use spacepackets::ecss::tm::PusTmReader;
use spacepackets::ecss::PusPacket;
use spacepackets::{SequenceFlags, SpHeader};
use super::PusService17TestHandler;
struct Pus17HandlerWithStoreTester {
common: PusServiceHandlerWithSharedStoreCommon,
handler: PusService17TestHandler<EcssTcInSharedStoreConverter>,
}
impl Pus17HandlerWithStoreTester {
pub fn new() -> Self {
let (common, srv_handler) = PusServiceHandlerWithSharedStoreCommon::new();
let pus_17_handler = PusService17TestHandler::new(srv_handler);
Self {
common,
handler: pus_17_handler,
}
}
}
impl PusTestHarness for Pus17HandlerWithStoreTester {
delegate! {
to self.common {
fn send_tc(&mut self, tc: &PusTcCreator) -> VerificationToken<TcStateAccepted>;
fn read_next_tm(&mut self) -> PusTmReader<'_>;
fn check_no_tm_available(&self) -> bool;
fn check_next_verification_tm(
&self,
subservice: u8,
expected_request_id: RequestId
);
}
}
}
impl SimplePusPacketHandler for Pus17HandlerWithStoreTester {
delegate! {
to self.handler {
fn handle_one_tc(&mut self) -> Result<PusPacketHandlerResult, PusPacketHandlingError>;
}
}
}
struct Pus17HandlerWithVecTester {
common: PusServiceHandlerWithVecCommon,
handler: PusService17TestHandler<EcssTcInVecConverter>,
}
impl Pus17HandlerWithVecTester {
pub fn new() -> Self {
let (common, srv_handler) = PusServiceHandlerWithVecCommon::new();
Self {
common,
handler: PusService17TestHandler::new(srv_handler),
}
}
}
impl PusTestHarness for Pus17HandlerWithVecTester {
delegate! {
to self.common {
fn send_tc(&mut self, tc: &PusTcCreator) -> VerificationToken<TcStateAccepted>;
fn read_next_tm(&mut self) -> PusTmReader<'_>;
fn check_no_tm_available(&self) -> bool;
fn check_next_verification_tm(
&self,
subservice: u8,
expected_request_id: RequestId,
);
}
}
}
impl SimplePusPacketHandler for Pus17HandlerWithVecTester {
delegate! {
to self.handler {
fn handle_one_tc(&mut self) -> Result<PusPacketHandlerResult, PusPacketHandlingError>;
}
}
}
fn ping_test(test_harness: &mut (impl PusTestHarness + SimplePusPacketHandler)) {
// Create a ping TC, verify acceptance.
let mut sp_header = SpHeader::tc(TEST_APID, SequenceFlags::Unsegmented, 0, 0).unwrap();
let sec_header = PusTcSecondaryHeader::new_simple(17, 1);
let ping_tc = PusTcCreator::new_no_app_data(&mut sp_header, sec_header, true);
let token = test_harness.send_tc(&ping_tc);
let request_id = token.req_id();
let result = test_harness.handle_one_tc();
assert!(result.is_ok());
// We should see 4 replies in the TM queue now: Acceptance TM, Start TM, ping reply and
// Completion TM
// Acceptance TM
test_harness.check_next_verification_tm(1, request_id);
// Start TM
test_harness.check_next_verification_tm(3, request_id);
// Ping reply
let tm = test_harness.read_next_tm();
assert_eq!(tm.service(), 17);
assert_eq!(tm.subservice(), 2);
assert!(tm.user_data().is_empty());
// TM completion
test_harness.check_next_verification_tm(7, request_id);
}
#[test]
fn test_basic_ping_processing_using_store() {
let mut test_harness = Pus17HandlerWithStoreTester::new();
ping_test(&mut test_harness);
}
#[test]
fn test_basic_ping_processing_using_vec() {
let mut test_harness = Pus17HandlerWithVecTester::new();
ping_test(&mut test_harness);
}
#[test]
fn test_empty_tc_queue() {
let mut test_harness = Pus17HandlerWithStoreTester::new();
let result = test_harness.handle_one_tc();
assert!(result.is_ok());
let result = result.unwrap();
if let PusPacketHandlerResult::Empty = result {
} else {
panic!("unexpected result type {result:?}")
}
}
#[test]
fn test_sending_unsupported_service() {
let mut test_harness = Pus17HandlerWithStoreTester::new();
let mut sp_header = SpHeader::tc(TEST_APID, SequenceFlags::Unsegmented, 0, 0).unwrap();
let sec_header = PusTcSecondaryHeader::new_simple(3, 1);
let ping_tc = PusTcCreator::new_no_app_data(&mut sp_header, sec_header, true);
test_harness.send_tc(&ping_tc);
let result = test_harness.handle_one_tc();
assert!(result.is_err());
let error = result.unwrap_err();
if let PusPacketHandlingError::WrongService(num) = error {
assert_eq!(num, 3);
} else {
panic!("unexpected error type {error}")
}
}
#[test]
fn test_sending_custom_subservice() {
let mut test_harness = Pus17HandlerWithStoreTester::new();
let mut sp_header = SpHeader::tc(TEST_APID, SequenceFlags::Unsegmented, 0, 0).unwrap();
let sec_header = PusTcSecondaryHeader::new_simple(17, 200);
let ping_tc = PusTcCreator::new_no_app_data(&mut sp_header, sec_header, true);
test_harness.send_tc(&ping_tc);
let result = test_harness.handle_one_tc();
assert!(result.is_ok());
let result = result.unwrap();
if let PusPacketHandlerResult::CustomSubservice(subservice, _) = result {
assert_eq!(subservice, 200);
} else {
panic!("unexpected result type {result:?}")
}
}
}

File diff suppressed because it is too large Load Diff

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@ -0,0 +1 @@

View File

@ -0,0 +1,60 @@
#[cfg(feature = "serde")]
use serde::{Deserialize, Serialize};
use spacepackets::ecss::{EcssEnumU16, EcssEnumeration};
use spacepackets::util::UnsignedEnum;
use spacepackets::ByteConversionError;
#[derive(Debug, Copy, Clone, PartialEq, Eq)]
#[cfg_attr(feature = "serde", derive(Serialize, Deserialize))]
pub struct ResultU16 {
group_id: u8,
unique_id: u8,
}
impl ResultU16 {
pub const fn const_new(group_id: u8, unique_id: u8) -> Self {
Self {
group_id,
unique_id,
}
}
pub fn raw(&self) -> u16 {
((self.group_id as u16) << 8) | self.unique_id as u16
}
pub fn group_id(&self) -> u8 {
self.group_id
}
pub fn unique_id(&self) -> u8 {
self.unique_id
}
}
impl From<ResultU16> for EcssEnumU16 {
fn from(v: ResultU16) -> Self {
EcssEnumU16::new(v.raw())
}
}
impl UnsignedEnum for ResultU16 {
fn size(&self) -> usize {
core::mem::size_of::<u16>()
}
fn write_to_be_bytes(&self, buf: &mut [u8]) -> Result<usize, ByteConversionError> {
if buf.len() < 2 {
return Err(ByteConversionError::ToSliceTooSmall {
found: buf.len(),
expected: 2,
});
}
buf[0] = self.group_id;
buf[1] = self.unique_id;
Ok(self.size())
}
}
impl EcssEnumeration for ResultU16 {
fn pfc(&self) -> u8 {
16
}
}

View File

@ -32,7 +32,7 @@ dyn_clone::clone_trait_object!(SequenceCountProvider<u16>);
#[cfg(feature = "alloc")]
impl<T, Raw> SequenceCountProvider<Raw> for T where T: SequenceCountProviderCore<Raw> + Clone {}
#[derive(Clone)]
#[derive(Default, Clone)]
pub struct SeqCountProviderSimple<T: Copy> {
seq_count: Cell<T>,
max_val: T,
@ -43,12 +43,13 @@ macro_rules! impl_for_primitives {
$(
paste! {
impl SeqCountProviderSimple<$ty> {
pub fn [<new_custom_max_val_ $ty>](max_val: $ty) -> Self {
pub fn [<new_ $ty _max_val>](max_val: $ty) -> Self {
Self {
seq_count: Cell::new(0),
max_val,
}
}
pub fn [<new_ $ty>]() -> Self {
Self {
seq_count: Cell::new(0),
@ -57,12 +58,6 @@ macro_rules! impl_for_primitives {
}
}
impl Default for SeqCountProviderSimple<$ty> {
fn default() -> Self {
Self::[<new_ $ty>]()
}
}
impl SequenceCountProviderCore<$ty> for SeqCountProviderSimple<$ty> {
fn get(&self) -> $ty {
self.seq_count.get()
@ -91,16 +86,21 @@ macro_rules! impl_for_primitives {
impl_for_primitives!(u8, u16, u32, u64,);
/// This is a sequence count provider which wraps around at [MAX_SEQ_COUNT].
#[derive(Clone)]
pub struct CcsdsSimpleSeqCountProvider {
provider: SeqCountProviderSimple<u16>,
}
impl CcsdsSimpleSeqCountProvider {
pub fn new() -> Self {
Self {
provider: SeqCountProviderSimple::new_u16_max_val(MAX_SEQ_COUNT),
}
}
}
impl Default for CcsdsSimpleSeqCountProvider {
fn default() -> Self {
Self {
provider: SeqCountProviderSimple::new_custom_max_val_u16(MAX_SEQ_COUNT),
}
Self::new()
}
}
@ -187,7 +187,7 @@ mod tests {
#[test]
fn test_u8_counter() {
let u8_counter = SeqCountProviderSimple::<u8>::default();
let u8_counter = SeqCountProviderSimple::new_u8();
assert_eq!(u8_counter.get(), 0);
assert_eq!(u8_counter.get_and_increment(), 0);
assert_eq!(u8_counter.get_and_increment(), 1);

View File

@ -0,0 +1,367 @@
//! CCSDS packet routing components.
//!
//! The routing components consist of two core components:
//! 1. [CcsdsDistributor] component which dispatches received packets to a user-provided handler
//! 2. [CcsdsPacketHandler] trait which should be implemented by the user-provided packet handler.
//!
//! The [CcsdsDistributor] implements the [ReceivesCcsdsTc] and [ReceivesTcCore] trait which allows to
//! pass raw or CCSDS packets to it. Upon receiving a packet, it performs the following steps:
//!
//! 1. It tries to identify the target Application Process Identifier (APID) based on the
//! respective CCSDS space packet header field. If that process fails, a [ByteConversionError] is
//! returned to the user
//! 2. If a valid APID is found and matches one of the APIDs provided by
//! [CcsdsPacketHandler::valid_apids], it will pass the packet to the user provided
//! [CcsdsPacketHandler::handle_known_apid] function. If no valid APID is found, the packet
//! will be passed to the [CcsdsPacketHandler::handle_unknown_apid] function.
//!
//! # Example
//!
//! ```rust
//! use satrs_core::tmtc::ccsds_distrib::{CcsdsPacketHandler, CcsdsDistributor};
//! use satrs_core::tmtc::{ReceivesTc, ReceivesTcCore};
//! use spacepackets::{CcsdsPacket, SpHeader};
//! use spacepackets::ecss::WritablePusPacket;
//! use spacepackets::ecss::tc::{PusTc, PusTcCreator};
//!
//! #[derive (Default)]
//! struct ConcreteApidHandler {
//! known_call_count: u32,
//! unknown_call_count: u32
//! }
//!
//! impl ConcreteApidHandler {
//! fn mutable_foo(&mut self) {}
//! }
//!
//! impl CcsdsPacketHandler for ConcreteApidHandler {
//! type Error = ();
//! fn valid_apids(&self) -> &'static [u16] { &[0x002] }
//! fn handle_known_apid(&mut self, sp_header: &SpHeader, tc_raw: &[u8]) -> Result<(), Self::Error> {
//! assert_eq!(sp_header.apid(), 0x002);
//! assert_eq!(tc_raw.len(), 13);
//! self.known_call_count += 1;
//! Ok(())
//! }
//! fn handle_unknown_apid(&mut self, sp_header: &SpHeader, tc_raw: &[u8]) -> Result<(), Self::Error> {
//! assert_eq!(sp_header.apid(), 0x003);
//! assert_eq!(tc_raw.len(), 13);
//! self.unknown_call_count += 1;
//! Ok(())
//! }
//! }
//!
//! let apid_handler = ConcreteApidHandler::default();
//! let mut ccsds_distributor = CcsdsDistributor::new(Box::new(apid_handler));
//!
//! // Create and pass PUS telecommand with a valid APID
//! let mut space_packet_header = SpHeader::tc_unseg(0x002, 0x34, 0).unwrap();
//! let mut pus_tc = PusTcCreator::new_simple(&mut space_packet_header, 17, 1, None, true);
//! let mut test_buf: [u8; 32] = [0; 32];
//! let mut size = pus_tc
//! .write_to_bytes(test_buf.as_mut_slice())
//! .expect("Error writing TC to buffer");
//! let tc_slice = &test_buf[0..size];
//! ccsds_distributor.pass_tc(&tc_slice).expect("Passing TC slice failed");
//!
//! // Now pass a packet with an unknown APID to the distributor
//! pus_tc.set_apid(0x003);
//! size = pus_tc
//! .write_to_bytes(test_buf.as_mut_slice())
//! .expect("Error writing TC to buffer");
//! let tc_slice = &test_buf[0..size];
//! ccsds_distributor.pass_tc(&tc_slice).expect("Passing TC slice failed");
//!
//! // User helper function to retrieve concrete class
//! let concrete_handler_ref: &ConcreteApidHandler = ccsds_distributor
//! .apid_handler_ref()
//! .expect("Casting back to concrete type failed");
//! assert_eq!(concrete_handler_ref.known_call_count, 1);
//! assert_eq!(concrete_handler_ref.unknown_call_count, 1);
//!
//! // It's also possible to retrieve a mutable reference
//! let mutable_ref: &mut ConcreteApidHandler = ccsds_distributor
//! .apid_handler_mut()
//! .expect("Casting back to concrete type failed");
//! mutable_ref.mutable_foo();
//! ```
use crate::tmtc::{ReceivesCcsdsTc, ReceivesTcCore};
use alloc::boxed::Box;
use core::fmt::{Display, Formatter};
use downcast_rs::Downcast;
use spacepackets::{ByteConversionError, CcsdsPacket, SpHeader};
#[cfg(feature = "std")]
use std::error::Error;
/// Generic trait for a handler or dispatcher object handling CCSDS packets.
///
/// Users should implement this trait on their custom CCSDS packet handler and then pass a boxed
/// instance of this handler to the [CcsdsDistributor]. The distributor will use the trait
/// interface to dispatch received packets to the user based on the Application Process Identifier
/// (APID) field of the CCSDS packet.
///
/// This trait automatically implements the [downcast_rs::Downcast] to allow a more convenient API
/// to cast trait objects back to their concrete type after the handler was passed to the
/// distributor.
pub trait CcsdsPacketHandler: Downcast {
type Error;
fn valid_apids(&self) -> &'static [u16];
fn handle_known_apid(&mut self, sp_header: &SpHeader, tc_raw: &[u8])
-> Result<(), Self::Error>;
fn handle_unknown_apid(
&mut self,
sp_header: &SpHeader,
tc_raw: &[u8],
) -> Result<(), Self::Error>;
}
downcast_rs::impl_downcast!(CcsdsPacketHandler assoc Error);
pub trait SendableCcsdsPacketHandler: CcsdsPacketHandler + Send {}
impl<T: CcsdsPacketHandler + Send> SendableCcsdsPacketHandler for T {}
downcast_rs::impl_downcast!(SendableCcsdsPacketHandler assoc Error);
/// The CCSDS distributor dispatches received CCSDS packets to a user provided packet handler.
///
/// The passed APID handler is required to be [Send]able to allow more ergonomic usage with
/// threads.
pub struct CcsdsDistributor<E> {
/// User provided APID handler stored as a generic trait object.
/// It can be cast back to the original concrete type using the [Self::apid_handler_ref] or
/// the [Self::apid_handler_mut] method.
pub apid_handler: Box<dyn SendableCcsdsPacketHandler<Error = E>>,
}
#[derive(Debug, Copy, Clone, PartialEq, Eq)]
pub enum CcsdsError<E> {
CustomError(E),
ByteConversionError(ByteConversionError),
}
impl<E: Display> Display for CcsdsError<E> {
fn fmt(&self, f: &mut Formatter<'_>) -> core::fmt::Result {
match self {
Self::CustomError(e) => write!(f, "{e}"),
Self::ByteConversionError(e) => write!(f, "{e}"),
}
}
}
#[cfg(feature = "std")]
impl<E: Error> Error for CcsdsError<E> {
fn source(&self) -> Option<&(dyn Error + 'static)> {
match self {
Self::CustomError(e) => e.source(),
Self::ByteConversionError(e) => e.source(),
}
}
}
impl<E: 'static> ReceivesCcsdsTc for CcsdsDistributor<E> {
type Error = CcsdsError<E>;
fn pass_ccsds(&mut self, header: &SpHeader, tc_raw: &[u8]) -> Result<(), Self::Error> {
self.dispatch_ccsds(header, tc_raw)
}
}
impl<E: 'static> ReceivesTcCore for CcsdsDistributor<E> {
type Error = CcsdsError<E>;
fn pass_tc(&mut self, tc_raw: &[u8]) -> Result<(), Self::Error> {
if tc_raw.len() < 7 {
return Err(CcsdsError::ByteConversionError(
ByteConversionError::FromSliceTooSmall {
found: tc_raw.len(),
expected: 7,
},
));
}
let (sp_header, _) =
SpHeader::from_be_bytes(tc_raw).map_err(|e| CcsdsError::ByteConversionError(e))?;
self.dispatch_ccsds(&sp_header, tc_raw)
}
}
impl<E: 'static> CcsdsDistributor<E> {
pub fn new(apid_handler: Box<dyn SendableCcsdsPacketHandler<Error = E>>) -> Self {
CcsdsDistributor { apid_handler }
}
/// This function can be used to retrieve a reference to the concrete instance of the APID
/// handler after it was passed to the distributor. See the
/// [module documentation][crate::tmtc::ccsds_distrib] for an fsrc-example.
pub fn apid_handler_ref<T: SendableCcsdsPacketHandler<Error = E>>(&self) -> Option<&T> {
self.apid_handler.downcast_ref::<T>()
}
/// This function can be used to retrieve a mutable reference to the concrete instance of the
/// APID handler after it was passed to the distributor.
pub fn apid_handler_mut<T: SendableCcsdsPacketHandler<Error = E>>(&mut self) -> Option<&mut T> {
self.apid_handler.downcast_mut::<T>()
}
fn dispatch_ccsds(&mut self, sp_header: &SpHeader, tc_raw: &[u8]) -> Result<(), CcsdsError<E>> {
let apid = sp_header.apid();
let valid_apids = self.apid_handler.valid_apids();
for &valid_apid in valid_apids {
if valid_apid == apid {
return self
.apid_handler
.handle_known_apid(sp_header, tc_raw)
.map_err(|e| CcsdsError::CustomError(e));
}
}
self.apid_handler
.handle_unknown_apid(sp_header, tc_raw)
.map_err(|e| CcsdsError::CustomError(e))
}
}
#[cfg(test)]
pub(crate) mod tests {
use super::*;
use crate::tmtc::ccsds_distrib::{CcsdsDistributor, CcsdsPacketHandler};
use spacepackets::ecss::tc::PusTcCreator;
use spacepackets::ecss::WritablePusPacket;
use spacepackets::CcsdsPacket;
use std::collections::VecDeque;
use std::sync::{Arc, Mutex};
use std::vec::Vec;
fn is_send<T: Send>(_: &T) {}
pub fn generate_ping_tc(buf: &mut [u8]) -> &[u8] {
let mut sph = SpHeader::tc_unseg(0x002, 0x34, 0).unwrap();
let pus_tc = PusTcCreator::new_simple(&mut sph, 17, 1, None, true);
let size = pus_tc
.write_to_bytes(buf)
.expect("Error writing TC to buffer");
assert_eq!(size, 13);
&buf[0..size]
}
type SharedPacketQueue = Arc<Mutex<VecDeque<(u16, Vec<u8>)>>>;
pub struct BasicApidHandlerSharedQueue {
pub known_packet_queue: SharedPacketQueue,
pub unknown_packet_queue: SharedPacketQueue,
}
#[derive(Default)]
pub struct BasicApidHandlerOwnedQueue {
pub known_packet_queue: VecDeque<(u16, Vec<u8>)>,
pub unknown_packet_queue: VecDeque<(u16, Vec<u8>)>,
}
impl CcsdsPacketHandler for BasicApidHandlerSharedQueue {
type Error = ();
fn valid_apids(&self) -> &'static [u16] {
&[0x000, 0x002]
}
fn handle_known_apid(
&mut self,
sp_header: &SpHeader,
tc_raw: &[u8],
) -> Result<(), Self::Error> {
let mut vec = Vec::new();
vec.extend_from_slice(tc_raw);
self.known_packet_queue
.lock()
.unwrap()
.push_back((sp_header.apid(), vec));
Ok(())
}
fn handle_unknown_apid(
&mut self,
sp_header: &SpHeader,
tc_raw: &[u8],
) -> Result<(), Self::Error> {
let mut vec = Vec::new();
vec.extend_from_slice(tc_raw);
self.unknown_packet_queue
.lock()
.unwrap()
.push_back((sp_header.apid(), vec));
Ok(())
}
}
impl CcsdsPacketHandler for BasicApidHandlerOwnedQueue {
type Error = ();
fn valid_apids(&self) -> &'static [u16] {
&[0x000, 0x002]
}
fn handle_known_apid(
&mut self,
sp_header: &SpHeader,
tc_raw: &[u8],
) -> Result<(), Self::Error> {
let mut vec = Vec::new();
vec.extend_from_slice(tc_raw);
Ok(self.known_packet_queue.push_back((sp_header.apid(), vec)))
}
fn handle_unknown_apid(
&mut self,
sp_header: &SpHeader,
tc_raw: &[u8],
) -> Result<(), Self::Error> {
let mut vec = Vec::new();
vec.extend_from_slice(tc_raw);
Ok(self.unknown_packet_queue.push_back((sp_header.apid(), vec)))
}
}
#[test]
fn test_distribs_known_apid() {
let known_packet_queue = Arc::new(Mutex::default());
let unknown_packet_queue = Arc::new(Mutex::default());
let apid_handler = BasicApidHandlerSharedQueue {
known_packet_queue: known_packet_queue.clone(),
unknown_packet_queue: unknown_packet_queue.clone(),
};
let mut ccsds_distrib = CcsdsDistributor::new(Box::new(apid_handler));
is_send(&ccsds_distrib);
let mut test_buf: [u8; 32] = [0; 32];
let tc_slice = generate_ping_tc(test_buf.as_mut_slice());
ccsds_distrib.pass_tc(tc_slice).expect("Passing TC failed");
let recvd = known_packet_queue.lock().unwrap().pop_front();
assert!(unknown_packet_queue.lock().unwrap().is_empty());
assert!(recvd.is_some());
let (apid, packet) = recvd.unwrap();
assert_eq!(apid, 0x002);
assert_eq!(packet, tc_slice);
}
#[test]
fn test_distribs_unknown_apid() {
let known_packet_queue = Arc::new(Mutex::default());
let unknown_packet_queue = Arc::new(Mutex::default());
let apid_handler = BasicApidHandlerSharedQueue {
known_packet_queue: known_packet_queue.clone(),
unknown_packet_queue: unknown_packet_queue.clone(),
};
let mut ccsds_distrib = CcsdsDistributor::new(Box::new(apid_handler));
let mut sph = SpHeader::tc_unseg(0x004, 0x34, 0).unwrap();
let pus_tc = PusTcCreator::new_simple(&mut sph, 17, 1, None, true);
let mut test_buf: [u8; 32] = [0; 32];
pus_tc
.write_to_bytes(test_buf.as_mut_slice())
.expect("Error writing TC to buffer");
ccsds_distrib.pass_tc(&test_buf).expect("Passing TC failed");
let recvd = unknown_packet_queue.lock().unwrap().pop_front();
assert!(known_packet_queue.lock().unwrap().is_empty());
assert!(recvd.is_some());
let (apid, packet) = recvd.unwrap();
assert_eq!(apid, 0x004);
assert_eq!(packet.as_slice(), test_buf);
}
}

117
satrs-core/src/tmtc/mod.rs Normal file
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@ -0,0 +1,117 @@
//! Telemetry and Telecommanding (TMTC) module. Contains packet routing components with special
//! support for CCSDS and ECSS packets.
//!
//! The distributor modules provided by this module use trait objects provided by the user to
//! directly dispatch received packets to packet listeners based on packet fields like the CCSDS
//! Application Process ID (APID) or the ECSS PUS service type. This allows for fast packet
//! routing without the overhead and complication of using message queues. However, it also requires
#[cfg(feature = "alloc")]
use downcast_rs::{impl_downcast, Downcast};
use spacepackets::SpHeader;
#[cfg(feature = "alloc")]
pub mod ccsds_distrib;
#[cfg(feature = "alloc")]
pub mod pus_distrib;
pub mod tm_helper;
#[cfg(feature = "alloc")]
pub use ccsds_distrib::{CcsdsDistributor, CcsdsError, CcsdsPacketHandler};
#[cfg(feature = "alloc")]
pub use pus_distrib::{PusDistributor, PusServiceProvider};
pub type TargetId = u32;
/// Generic trait for object which can receive any telecommands in form of a raw bytestream, with
/// no assumptions about the received protocol.
///
/// This trait is implemented by both the [crate::tmtc::pus_distrib::PusDistributor] and the
/// [crate::tmtc::ccsds_distrib::CcsdsDistributor] which allows to pass the respective packets in
/// raw byte format into them.
pub trait ReceivesTcCore {
type Error;
fn pass_tc(&mut self, tc_raw: &[u8]) -> Result<(), Self::Error>;
}
/// Extension trait of [ReceivesTcCore] which allows downcasting by implementing [Downcast] and
/// is also sendable.
#[cfg(feature = "alloc")]
pub trait ReceivesTc: ReceivesTcCore + Downcast + Send {
// Remove this once trait upcasting coercion has been implemented.
// Tracking issue: https://github.com/rust-lang/rust/issues/65991
fn upcast(&self) -> &dyn ReceivesTcCore<Error = Self::Error>;
// Remove this once trait upcasting coercion has been implemented.
// Tracking issue: https://github.com/rust-lang/rust/issues/65991
fn upcast_mut(&mut self) -> &mut dyn ReceivesTcCore<Error = Self::Error>;
}
/// Blanket implementation to automatically implement [ReceivesTc] when the [alloc] feature
/// is enabled.
#[cfg(feature = "alloc")]
impl<T> ReceivesTc for T
where
T: ReceivesTcCore + Send + 'static,
{
// Remove this once trait upcasting coercion has been implemented.
// Tracking issue: https://github.com/rust-lang/rust/issues/65991
fn upcast(&self) -> &dyn ReceivesTcCore<Error = Self::Error> {
self
}
// Remove this once trait upcasting coercion has been implemented.
// Tracking issue: https://github.com/rust-lang/rust/issues/65991
fn upcast_mut(&mut self) -> &mut dyn ReceivesTcCore<Error = Self::Error> {
self
}
}
#[cfg(feature = "alloc")]
impl_downcast!(ReceivesTc assoc Error);
/// Generic trait for object which can receive CCSDS space packets, for example ECSS PUS packets
/// for CCSDS File Delivery Protocol (CFDP) packets.
///
/// This trait is implemented by both the [crate::tmtc::pus_distrib::PusDistributor] and the
/// [crate::tmtc::ccsds_distrib::CcsdsDistributor] which allows
/// to pass the respective packets in raw byte format or in CCSDS format into them.
pub trait ReceivesCcsdsTc {
type Error;
fn pass_ccsds(&mut self, header: &SpHeader, tc_raw: &[u8]) -> Result<(), Self::Error>;
}
/// Generic trait for a TM packet source, with no restrictions on the type of TM.
/// Implementors write the telemetry into the provided buffer and return the size of the telemetry.
pub trait TmPacketSourceCore {
type Error;
fn retrieve_packet(&mut self, buffer: &mut [u8]) -> Result<usize, Self::Error>;
}
/// Extension trait of [TmPacketSourceCore] which allows downcasting by implementing [Downcast] and
/// is also sendable.
#[cfg(feature = "alloc")]
pub trait TmPacketSource: TmPacketSourceCore + Downcast + Send {
// Remove this once trait upcasting coercion has been implemented.
// Tracking issue: https://github.com/rust-lang/rust/issues/65991
fn upcast(&self) -> &dyn TmPacketSourceCore<Error = Self::Error>;
// Remove this once trait upcasting coercion has been implemented.
// Tracking issue: https://github.com/rust-lang/rust/issues/65991
fn upcast_mut(&mut self) -> &mut dyn TmPacketSourceCore<Error = Self::Error>;
}
/// Blanket implementation to automatically implement [ReceivesTc] when the [alloc] feature
/// is enabled.
#[cfg(feature = "alloc")]
impl<T> TmPacketSource for T
where
T: TmPacketSourceCore + Send + 'static,
{
// Remove this once trait upcasting coercion has been implemented.
// Tracking issue: https://github.com/rust-lang/rust/issues/65991
fn upcast(&self) -> &dyn TmPacketSourceCore<Error = Self::Error> {
self
}
// Remove this once trait upcasting coercion has been implemented.
// Tracking issue: https://github.com/rust-lang/rust/issues/65991
fn upcast_mut(&mut self) -> &mut dyn TmPacketSourceCore<Error = Self::Error> {
self
}
}

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@ -0,0 +1,369 @@
//! ECSS PUS packet routing components.
//!
//! The routing components consist of two core components:
//! 1. [PusDistributor] component which dispatches received packets to a user-provided handler.
//! 2. [PusServiceProvider] trait which should be implemented by the user-provided PUS packet
//! handler.
//!
//! The [PusDistributor] implements the [ReceivesEcssPusTc], [ReceivesCcsdsTc] and the
//! [ReceivesTcCore] trait which allows to pass raw packets, CCSDS packets and PUS TC packets into
//! it. Upon receiving a packet, it performs the following steps:
//!
//! 1. It tries to extract the [SpHeader] and [spacepackets::ecss::tc::PusTcReader] objects from
//! the raw bytestream. If this process fails, a [PusDistribError::PusError] is returned to the
//! user.
//! 2. If it was possible to extract both components, the packet will be passed to the
//! [PusServiceProvider::handle_pus_tc_packet] method provided by the user.
//!
//! # Example
//!
//! ```rust
//! use spacepackets::ecss::WritablePusPacket;
//! use satrs_core::tmtc::pus_distrib::{PusDistributor, PusServiceProvider};
//! use satrs_core::tmtc::{ReceivesTc, ReceivesTcCore};
//! use spacepackets::SpHeader;
//! use spacepackets::ecss::tc::{PusTcCreator, PusTcReader};
//! struct ConcretePusHandler {
//! handler_call_count: u32
//! }
//!
//! // This is a very simple possible service provider. It increments an internal call count field,
//! // which is used to verify the handler was called
//! impl PusServiceProvider for ConcretePusHandler {
//! type Error = ();
//! fn handle_pus_tc_packet(&mut self, service: u8, header: &SpHeader, pus_tc: &PusTcReader) -> Result<(), Self::Error> {
//! assert_eq!(service, 17);
//! assert_eq!(pus_tc.len_packed(), 13);
//! self.handler_call_count += 1;
//! Ok(())
//! }
//! }
//!
//! let service_handler = ConcretePusHandler {
//! handler_call_count: 0
//! };
//! let mut pus_distributor = PusDistributor::new(Box::new(service_handler));
//!
//! // Create and pass PUS ping telecommand with a valid APID
//! let mut space_packet_header = SpHeader::tc_unseg(0x002, 0x34, 0).unwrap();
//! let mut pus_tc = PusTcCreator::new_simple(&mut space_packet_header, 17, 1, None, true);
//! let mut test_buf: [u8; 32] = [0; 32];
//! let mut size = pus_tc
//! .write_to_bytes(test_buf.as_mut_slice())
//! .expect("Error writing TC to buffer");
//! let tc_slice = &test_buf[0..size];
//!
//! pus_distributor.pass_tc(tc_slice).expect("Passing PUS telecommand failed");
//!
//! // User helper function to retrieve concrete class. We check the call count here to verify
//! // that the PUS ping telecommand was routed successfully.
//! let concrete_handler_ref: &ConcretePusHandler = pus_distributor
//! .service_provider_ref()
//! .expect("Casting back to concrete type failed");
//! assert_eq!(concrete_handler_ref.handler_call_count, 1);
//! ```
use crate::pus::ReceivesEcssPusTc;
use crate::tmtc::{ReceivesCcsdsTc, ReceivesTcCore};
use alloc::boxed::Box;
use core::fmt::{Display, Formatter};
use downcast_rs::Downcast;
use spacepackets::ecss::tc::PusTcReader;
use spacepackets::ecss::{PusError, PusPacket};
use spacepackets::SpHeader;
#[cfg(feature = "std")]
use std::error::Error;
pub trait PusServiceProvider: Downcast {
type Error;
fn handle_pus_tc_packet(
&mut self,
service: u8,
header: &SpHeader,
pus_tc: &PusTcReader,
) -> Result<(), Self::Error>;
}
downcast_rs::impl_downcast!(PusServiceProvider assoc Error);
pub trait SendablePusServiceProvider: PusServiceProvider + Send {}
impl<T: Send + PusServiceProvider> SendablePusServiceProvider for T {}
downcast_rs::impl_downcast!(SendablePusServiceProvider assoc Error);
/// Generic distributor object which dispatches received packets to a user provided handler.
///
/// This distributor expects the passed trait object to be [Send]able to allow more ergonomic
/// usage with threads.
pub struct PusDistributor<E> {
pub service_provider: Box<dyn SendablePusServiceProvider<Error = E>>,
}
impl<E> PusDistributor<E> {
pub fn new(service_provider: Box<dyn SendablePusServiceProvider<Error = E>>) -> Self {
PusDistributor { service_provider }
}
}
#[derive(Debug, Copy, Clone, PartialEq, Eq)]
pub enum PusDistribError<E> {
CustomError(E),
PusError(PusError),
}
impl<E: Display> Display for PusDistribError<E> {
fn fmt(&self, f: &mut Formatter<'_>) -> core::fmt::Result {
match self {
PusDistribError::CustomError(e) => write!(f, "{e}"),
PusDistribError::PusError(e) => write!(f, "{e}"),
}
}
}
#[cfg(feature = "std")]
impl<E: Error> Error for PusDistribError<E> {
fn source(&self) -> Option<&(dyn Error + 'static)> {
match self {
Self::CustomError(e) => e.source(),
Self::PusError(e) => e.source(),
}
}
}
impl<E: 'static> ReceivesTcCore for PusDistributor<E> {
type Error = PusDistribError<E>;
fn pass_tc(&mut self, tm_raw: &[u8]) -> Result<(), Self::Error> {
// Convert to ccsds and call pass_ccsds
let (sp_header, _) = SpHeader::from_be_bytes(tm_raw)
.map_err(|e| PusDistribError::PusError(PusError::ByteConversion(e)))?;
self.pass_ccsds(&sp_header, tm_raw)
}
}
impl<E: 'static> ReceivesCcsdsTc for PusDistributor<E> {
type Error = PusDistribError<E>;
fn pass_ccsds(&mut self, header: &SpHeader, tm_raw: &[u8]) -> Result<(), Self::Error> {
let (tc, _) = PusTcReader::new(tm_raw).map_err(|e| PusDistribError::PusError(e))?;
self.pass_pus_tc(header, &tc)
}
}
impl<E: 'static> ReceivesEcssPusTc for PusDistributor<E> {
type Error = PusDistribError<E>;
fn pass_pus_tc(&mut self, header: &SpHeader, pus_tc: &PusTcReader) -> Result<(), Self::Error> {
self.service_provider
.handle_pus_tc_packet(pus_tc.service(), header, pus_tc)
.map_err(|e| PusDistribError::CustomError(e))
}
}
impl<E: 'static> PusDistributor<E> {
pub fn service_provider_ref<T: SendablePusServiceProvider<Error = E>>(&self) -> Option<&T> {
self.service_provider.downcast_ref::<T>()
}
pub fn service_provider_mut<T: SendablePusServiceProvider<Error = E>>(
&mut self,
) -> Option<&mut T> {
self.service_provider.downcast_mut::<T>()
}
}
#[cfg(test)]
mod tests {
use super::*;
use crate::tmtc::ccsds_distrib::tests::{
generate_ping_tc, BasicApidHandlerOwnedQueue, BasicApidHandlerSharedQueue,
};
use crate::tmtc::ccsds_distrib::{CcsdsDistributor, CcsdsPacketHandler};
use alloc::vec::Vec;
use spacepackets::ecss::PusError;
use spacepackets::CcsdsPacket;
#[cfg(feature = "std")]
use std::collections::VecDeque;
#[cfg(feature = "std")]
use std::sync::{Arc, Mutex};
fn is_send<T: Send>(_: &T) {}
struct PusHandlerSharedQueue {
pub pus_queue: Arc<Mutex<VecDeque<(u8, u16, Vec<u8>)>>>,
}
#[derive(Default)]
struct PusHandlerOwnedQueue {
pub pus_queue: VecDeque<(u8, u16, Vec<u8>)>,
}
impl PusServiceProvider for PusHandlerSharedQueue {
type Error = PusError;
fn handle_pus_tc_packet(
&mut self,
service: u8,
sp_header: &SpHeader,
pus_tc: &PusTcReader,
) -> Result<(), Self::Error> {
let mut vec: Vec<u8> = Vec::new();
vec.extend_from_slice(pus_tc.raw_data());
Ok(self
.pus_queue
.lock()
.expect("Mutex lock failed")
.push_back((service, sp_header.apid(), vec)))
}
}
impl PusServiceProvider for PusHandlerOwnedQueue {
type Error = PusError;
fn handle_pus_tc_packet(
&mut self,
service: u8,
sp_header: &SpHeader,
pus_tc: &PusTcReader,
) -> Result<(), Self::Error> {
let mut vec: Vec<u8> = Vec::new();
vec.extend_from_slice(pus_tc.raw_data());
Ok(self.pus_queue.push_back((service, sp_header.apid(), vec)))
}
}
struct ApidHandlerShared {
pub pus_distrib: PusDistributor<PusError>,
pub handler_base: BasicApidHandlerSharedQueue,
}
struct ApidHandlerOwned {
pub pus_distrib: PusDistributor<PusError>,
handler_base: BasicApidHandlerOwnedQueue,
}
macro_rules! apid_handler_impl {
() => {
type Error = PusError;
fn valid_apids(&self) -> &'static [u16] {
&[0x000, 0x002]
}
fn handle_known_apid(
&mut self,
sp_header: &SpHeader,
tc_raw: &[u8],
) -> Result<(), Self::Error> {
self.handler_base
.handle_known_apid(&sp_header, tc_raw)
.ok()
.expect("Unexpected error");
match self.pus_distrib.pass_ccsds(&sp_header, tc_raw) {
Ok(_) => Ok(()),
Err(e) => match e {
PusDistribError::CustomError(_) => Ok(()),
PusDistribError::PusError(e) => Err(e),
},
}
}
fn handle_unknown_apid(
&mut self,
sp_header: &SpHeader,
tc_raw: &[u8],
) -> Result<(), Self::Error> {
self.handler_base
.handle_unknown_apid(&sp_header, tc_raw)
.ok()
.expect("Unexpected error");
Ok(())
}
};
}
impl CcsdsPacketHandler for ApidHandlerOwned {
apid_handler_impl!();
}
impl CcsdsPacketHandler for ApidHandlerShared {
apid_handler_impl!();
}
#[test]
#[cfg(feature = "std")]
fn test_pus_distribution() {
let known_packet_queue = Arc::new(Mutex::default());
let unknown_packet_queue = Arc::new(Mutex::default());
let pus_queue = Arc::new(Mutex::default());
let pus_handler = PusHandlerSharedQueue {
pus_queue: pus_queue.clone(),
};
let handler_base = BasicApidHandlerSharedQueue {
known_packet_queue: known_packet_queue.clone(),
unknown_packet_queue: unknown_packet_queue.clone(),
};
let pus_distrib = PusDistributor {
service_provider: Box::new(pus_handler),
};
is_send(&pus_distrib);
let apid_handler = ApidHandlerShared {
pus_distrib,
handler_base,
};
let mut ccsds_distrib = CcsdsDistributor::new(Box::new(apid_handler));
let mut test_buf: [u8; 32] = [0; 32];
let tc_slice = generate_ping_tc(test_buf.as_mut_slice());
// Pass packet to distributor
ccsds_distrib
.pass_tc(tc_slice)
.expect("Passing TC slice failed");
let recvd_ccsds = known_packet_queue.lock().unwrap().pop_front();
assert!(unknown_packet_queue.lock().unwrap().is_empty());
assert!(recvd_ccsds.is_some());
let (apid, packet) = recvd_ccsds.unwrap();
assert_eq!(apid, 0x002);
assert_eq!(packet.as_slice(), tc_slice);
let recvd_pus = pus_queue.lock().unwrap().pop_front();
assert!(recvd_pus.is_some());
let (service, apid, tc_raw) = recvd_pus.unwrap();
assert_eq!(service, 17);
assert_eq!(apid, 0x002);
assert_eq!(tc_raw, tc_slice);
}
#[test]
fn test_as_any_cast() {
let pus_handler = PusHandlerOwnedQueue::default();
let handler_base = BasicApidHandlerOwnedQueue::default();
let pus_distrib = PusDistributor {
service_provider: Box::new(pus_handler),
};
let apid_handler = ApidHandlerOwned {
pus_distrib,
handler_base,
};
let mut ccsds_distrib = CcsdsDistributor::new(Box::new(apid_handler));
let mut test_buf: [u8; 32] = [0; 32];
let tc_slice = generate_ping_tc(test_buf.as_mut_slice());
ccsds_distrib
.pass_tc(tc_slice)
.expect("Passing TC slice failed");
let apid_handler_casted_back: &mut ApidHandlerOwned = ccsds_distrib
.apid_handler_mut()
.expect("Cast to concrete type ApidHandler failed");
assert!(!apid_handler_casted_back
.handler_base
.known_packet_queue
.is_empty());
let handler_casted_back: &mut PusHandlerOwnedQueue = apid_handler_casted_back
.pus_distrib
.service_provider_mut()
.expect("Cast to concrete type PusHandlerOwnedQueue failed");
assert!(!handler_casted_back.pus_queue.is_empty());
let (service, apid, packet_raw) = handler_casted_back.pus_queue.pop_front().unwrap();
assert_eq!(service, 17);
assert_eq!(apid, 0x002);
assert_eq!(packet_raw.as_slice(), tc_slice);
}
}

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