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Finish PUS service optimizations

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- Better naming for pool abstractions
- Added last unittests for PUS helper services
- Introduce new abstraction for PUS schedulers
- `StoreAddr` is now a generic u64
- `spacepackets` points to 0.7.0 release
This commit is contained in:
Robin Müller
2024-02-03 13:41:51 +01:00
parent 6152c834d4
commit a891b947c7
22 changed files with 1669 additions and 874 deletions

420
satrs-core/src/pool.rs

@ -1,23 +1,13 @@
//! # Pool implementation providing pre-allocated sub-pools with fixed size memory blocks
//! # Pool implementation providing memory pools for packet storage.
//!
//! 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][LocalPool] are done using a special [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.
//!
//! # Example
//! # Example for the [StaticMemoryPool]
//!
//! ```
//! use satrs_core::pool::{LocalPool, PoolCfg, PoolProvider};
//! use satrs_core::pool::{PoolProviderMemInPlace, StaticMemoryPool, StaticPoolConfig};
//!
//! // 4 buckets of 4 bytes, 2 of 8 bytes and 1 of 16 bytes
//! let pool_cfg = PoolCfg::new(vec![(4, 4), (2, 8), (1, 16)]);
//! let mut local_pool = LocalPool::new(pool_cfg);
//! let pool_cfg = StaticPoolConfig::new(vec![(4, 4), (2, 8), (1, 16)]);
//! let mut local_pool = StaticMemoryPool::new(pool_cfg);
//! let mut addr;
//! {
//! // Add new data to the pool
@ -77,22 +67,24 @@
#[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};
#[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 StoreAddr {
pub struct StaticPoolAddr {
pub(crate) pool_idx: u16,
pub(crate) packet_idx: NumBlocks,
}
impl StoreAddr {
impl StaticPoolAddr {
pub const INVALID_ADDR: u32 = 0xFFFFFFFF;
pub fn raw(&self) -> u32 {
@ -100,7 +92,22 @@ impl StoreAddr {
}
}
impl Display for StoreAddr {
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,
@ -180,39 +187,158 @@ impl Error for StoreError {
}
}
/// 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 PoolProviderMemInPlace {
/// 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 and
/// then return a mutable reference to it. Yields a [StoreAddr] which can be used to access
/// the data stored in the pool
fn free_element(&mut self, len: usize) -> Result<(StoreAddr, &mut [u8]), StoreError>;
/// Modify data added previously using a given [StoreAddr] by yielding a mutable reference
/// to it
fn modify(&mut self, addr: &StoreAddr) -> Result<&mut [u8], StoreError>;
/// Read data by yielding a read-only reference given a [StoreAddr]
fn read(&self, addr: &StoreAddr) -> Result<&[u8], 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> {
if !self.has_element_at(addr)? {
return Err(StoreError::DataDoesNotExist(*addr));
}
Ok(self.read(addr)?.len())
}
}
pub trait PoolProviderMemInPlaceWithGuards: PoolProviderMemInPlace {
/// This function behaves like [PoolProviderMemInPlace::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 [PoolProviderMemInPlace::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: PoolProviderMemInPlace + ?Sized> {
pool: &'a mut MemProvider,
pub addr: StoreAddr,
no_deletion: bool,
deletion_failed_error: Option<StoreError>,
}
/// This helper object
impl<'a, MemProvider: PoolProviderMemInPlace> 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) -> Result<&[u8], StoreError> {
self.pool.read(&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: PoolProviderMemInPlace + ?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: PoolProviderMemInPlace + ?Sized> {
guard: PoolGuard<'a, MemProvider>,
}
impl<'a, MemProvider: PoolProviderMemInPlace> PoolRwGuard<'a, MemProvider> {
pub fn new(pool: &'a mut MemProvider, addr: StoreAddr) -> Self {
Self {
guard: PoolGuard::new(pool, addr),
}
}
pub fn modify(&mut self) -> Result<&mut [u8], StoreError> {
self.guard.pool.modify(&self.guard.addr)
}
delegate!(
to self.guard {
pub fn read(&self) -> Result<&[u8], 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, PoolProviderMemInPlace, PoolProviderMemInPlaceWithGuards, PoolRwGuard,
StaticPoolAddr,
};
use crate::pool::{NumBlocks, StoreAddr, StoreError, StoreIdError};
use alloc::boxed::Box;
use alloc::vec;
use alloc::vec::Vec;
use delegate::delegate;
#[cfg(feature = "std")]
use std::sync::{Arc, RwLock};
#[cfg(feature = "std")]
pub type ShareablePoolProvider = Box<dyn PoolProvider + Send + Sync>;
#[cfg(feature = "std")]
pub type SharedPool = Arc<RwLock<ShareablePoolProvider>>;
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 [local pool][LocalPool]
/// 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 PoolCfg {
pub struct StaticPoolConfig {
cfg: Vec<(NumBlocks, usize)>,
}
impl PoolCfg {
impl StaticPoolConfig {
pub fn new(cfg: Vec<(NumBlocks, usize)>) -> Self {
PoolCfg { cfg }
StaticPoolConfig { cfg }
}
pub fn cfg(&self) -> &Vec<(NumBlocks, usize)> {
@ -228,135 +354,30 @@ mod alloc_mod {
}
}
pub struct PoolGuard<'a> {
pool: &'a mut LocalPool,
pub addr: StoreAddr,
no_deletion: bool,
deletion_failed_error: Option<StoreError>,
}
/// This helper object
impl<'a> PoolGuard<'a> {
pub fn new(pool: &'a mut LocalPool, addr: StoreAddr) -> Self {
Self {
pool,
addr,
no_deletion: false,
deletion_failed_error: None,
}
}
pub fn read(&self) -> Result<&[u8], StoreError> {
self.pool.read(&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 Drop for PoolGuard<'_> {
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> {
guard: PoolGuard<'a>,
}
impl<'a> PoolRwGuard<'a> {
pub fn new(pool: &'a mut LocalPool, addr: StoreAddr) -> Self {
Self {
guard: PoolGuard::new(pool, addr),
}
}
pub fn modify(&mut self) -> Result<&mut [u8], StoreError> {
self.guard.pool.modify(&self.guard.addr)
}
delegate!(
to self.guard {
pub fn read(&self) -> Result<&[u8], StoreError>;
/// Releasing the pool guard will disable the automatic deletion of the data when the guard
/// is dropped.
pub fn release(&mut self);
}
);
}
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 and
/// then return a mutable reference to it. Yields a [StoreAddr] which can be used to access
/// the data stored in the pool
fn free_element(&mut self, len: usize) -> Result<(StoreAddr, &mut [u8]), StoreError>;
/// Modify data added previously using a given [StoreAddr] by yielding a mutable reference
/// to it
fn modify(&mut self, addr: &StoreAddr) -> Result<&mut [u8], StoreError>;
/// This function behaves like [Self::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;
/// Read data by yielding a read-only reference given a [StoreAddr]
fn read(&self, addr: &StoreAddr) -> Result<&[u8], StoreError>;
/// This function behaves like [Self::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;
/// 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> {
if !self.has_element_at(addr)? {
return Err(StoreError::DataDoesNotExist(*addr));
}
Ok(self.read(addr)?.len())
}
}
/// Pool implementation providing sub-pools with fixed size memory blocks. More details in
/// the [module documentation][crate::pool]
pub struct LocalPool {
pool_cfg: PoolCfg,
/// 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 LocalPool {
/// Create a new local pool from the [given configuration][PoolCfg]. This function will sanitize
/// the given configuration as well.
pub fn new(mut cfg: PoolCfg) -> LocalPool {
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 = LocalPool {
let mut local_pool = StaticMemoryPool {
pool_cfg: cfg,
pool: Vec::with_capacity(subpools_num),
sizes_lists: Vec::with_capacity(subpools_num),
@ -372,39 +393,39 @@ mod alloc_mod {
local_pool
}
fn addr_check(&self, addr: &StoreAddr) -> Result<usize, StoreError> {
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(*addr));
return Err(StoreError::DataDoesNotExist(StoreAddr::from(*addr)));
}
Ok(curr_size)
}
fn validate_addr(&self, addr: &StoreAddr) -> Result<(), StoreError> {
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(*addr),
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(*addr),
Some(StoreAddr::from(*addr)),
));
}
Ok(())
}
fn reserve(&mut self, data_len: usize) -> Result<StoreAddr, StoreError> {
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(StoreAddr {
Ok(StaticPoolAddr {
pool_idx: subpool_idx,
packet_idx: slot,
})
@ -422,7 +443,7 @@ mod alloc_mod {
Err(StoreError::DataTooLarge(req_size))
}
fn write(&mut self, addr: &StoreAddr, data: &[u8]) -> Result<(), StoreError> {
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
@ -449,13 +470,13 @@ mod alloc_mod {
Err(StoreError::StoreFull(subpool))
}
fn raw_pos(&self, addr: &StoreAddr) -> Option<usize> {
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 LocalPool {
impl PoolProviderMemInPlace for StaticMemoryPool {
fn add(&mut self, data: &[u8]) -> Result<StoreAddr, StoreError> {
let data_len = data.len();
if data_len > POOL_MAX_SIZE {
@ -463,7 +484,7 @@ mod alloc_mod {
}
let addr = self.reserve(data_len)?;
self.write(&addr, data)?;
Ok(addr)
Ok(addr.into())
}
fn free_element(&mut self, len: usize) -> Result<(StoreAddr, &mut [u8]), StoreError> {
@ -474,34 +495,29 @@ mod alloc_mod {
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];
Ok((addr, block))
Ok((addr.into(), block))
}
fn modify(&mut self, addr: &StoreAddr) -> Result<&mut [u8], StoreError> {
let curr_size = self.addr_check(addr)?;
let raw_pos = self.raw_pos(addr).unwrap();
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];
Ok(block)
}
fn modify_with_guard(&mut self, addr: StoreAddr) -> PoolRwGuard {
PoolRwGuard::new(self, addr)
}
fn read(&self, addr: &StoreAddr) -> Result<&[u8], StoreError> {
let curr_size = self.addr_check(addr)?;
let raw_pos = self.raw_pos(addr).unwrap();
let addr = StaticPoolAddr::from(*addr);
let curr_size = self.addr_check(&addr)?;
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];
Ok(block)
}
fn read_with_guard(&mut self, addr: StoreAddr) -> PoolGuard {
PoolGuard::new(self, addr)
}
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();
@ -514,7 +530,8 @@ mod alloc_mod {
}
fn has_element_at(&self, addr: &StoreAddr) -> Result<bool, StoreError> {
self.validate_addr(addr)?;
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];
@ -524,34 +541,45 @@ mod alloc_mod {
Ok(true)
}
}
impl PoolProviderMemInPlaceWithGuards 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::{
LocalPool, PoolCfg, PoolGuard, PoolProvider, PoolRwGuard, StoreAddr, StoreError,
StoreIdError, POOL_MAX_SIZE,
PoolGuard, PoolProviderMemInPlace, PoolProviderMemInPlaceWithGuards, PoolRwGuard,
StaticMemoryPool, StaticPoolAddr, StaticPoolConfig, StoreError, StoreIdError,
POOL_MAX_SIZE,
};
use std::vec;
fn basic_small_pool() -> LocalPool {
fn basic_small_pool() -> StaticMemoryPool {
// 4 buckets of 4 bytes, 2 of 8 bytes and 1 of 16 bytes
let pool_cfg = PoolCfg::new(vec![(4, 4), (2, 8), (1, 16)]);
LocalPool::new(pool_cfg)
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 = PoolCfg::new(vec![(0, 0), (1, 0), (2, POOL_MAX_SIZE)]);
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 = PoolCfg::new(vec![(16, 6), (32, 3), (8, 12)]);
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 = PoolCfg::new(vec![(12, 12), (14, 16), (10, 12)]);
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)]
@ -600,10 +628,10 @@ mod tests {
let (addr, buf_ref) = res.unwrap();
assert_eq!(
addr,
StoreAddr {
u64::from(StaticPoolAddr {
pool_idx: 2,
packet_idx: 0
}
})
);
assert_eq!(buf_ref.len(), 12);
}
@ -655,10 +683,13 @@ mod tests {
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(&StoreAddr {
packet_idx: 0,
pool_idx: 0,
});
let res = local_pool.read(
&StaticPoolAddr {
packet_idx: 0,
pool_idx: 0,
}
.into(),
);
assert!(res.is_err());
assert!(matches!(
res.unwrap_err(),
@ -684,10 +715,11 @@ mod tests {
#[test]
fn test_invalid_pool_idx() {
let local_pool = basic_small_pool();
let addr = StoreAddr {
let addr = StaticPoolAddr {
pool_idx: 3,
packet_idx: 0,
};
}
.into();
let res = local_pool.read(&addr);
assert!(res.is_err());
let err = res.unwrap_err();
@ -700,12 +732,12 @@ mod tests {
#[test]
fn test_invalid_packet_idx() {
let local_pool = basic_small_pool();
let addr = StoreAddr {
let addr = StaticPoolAddr {
pool_idx: 2,
packet_idx: 1,
};
assert_eq!(addr.raw(), 0x00020001);
let res = local_pool.read(&addr);
let res = local_pool.read(&addr.into());
assert!(res.is_err());
let err = res.unwrap_err();
assert!(matches!(