This commit is contained in:
Robin Müller 2024-11-21 18:35:16 +01:00
parent c5fa1955d7
commit 9db7acf355
Signed by: muellerr
GPG Key ID: A649FB78196E3849
4 changed files with 423 additions and 52 deletions

View File

@ -36,15 +36,16 @@ pub mod pus;
pub mod queue;
pub mod request;
pub mod res_code;
pub mod time;
pub mod tmtc;
#[cfg(feature = "alloc")]
pub mod scheduling;
pub mod time;
pub mod tmtc;
pub mod action;
pub mod hk;
pub mod mode;
pub mod params;
pub mod subsystem;
pub use spacepackets;

View File

@ -15,23 +15,168 @@ pub enum TableEntryType {
Sequence,
}
pub struct ModeTableEntry {
/// Common fields required for both target and sequence table entries.
///
/// The most important parameters here are the target ID which this entry belongs to, and the mode
/// and submode the entry either will be commanded to for sequence table entries or which will be
/// monitored for target table entries.
#[derive(Debug, Copy, Clone)]
pub struct ModeTableEntryCommon {
/// Name of respective table entry.
pub name: &'static str,
/// Target channel ID.
pub channel_id: ComponentId,
/// Target component ID.
pub target_id: ComponentId,
/// Has a different meaning depending on whether this is a sequence table or a target table.
///
/// - For sequence tables, this denotes the mode which will be commanded
/// - For target tables, this is the mode which the target children should have and which
/// might be monitored depending on configuration.
pub mode_submode: ModeAndSubmode,
/// This mask allows to specify multiple allowed submodes for a given mode.
pub allowed_submode_mask: Option<Submode>,
}
impl ModeTableEntryCommon {
pub fn set_allowed_submode_mask(&mut self, mask: Submode) {
self.allowed_submode_mask = Some(mask);
}
pub fn allowed_submode_mask(&self) -> Option<Submode> {
self.allowed_submode_mask
}
}
/// An entry for the target tables.
#[derive(Debug)]
pub struct TargetTableEntry {
pub common: ModeTableEntryCommon,
pub monitor_state: bool,
}
impl TargetTableEntry {
pub fn new(
name: &'static str,
target_id: ComponentId,
mode_submode: ModeAndSubmode,
monitor_state: bool,
) -> Self {
Self {
common: ModeTableEntryCommon {
name,
target_id,
mode_submode,
allowed_submode_mask: None,
},
monitor_state,
}
}
delegate::delegate! {
to self.common {
pub fn set_allowed_submode_mask(&mut self, mask: Submode);
pub fn allowed_submode_mask(&self) -> Option<Submode>;
}
}
}
#[derive(Debug)]
pub struct TargetTableMapValue {
/// Name for a given mode table entry.
pub name: &'static str,
/// These are the rows of the a target table.
pub entries: Vec<TargetTableEntry>,
}
impl TargetTableMapValue {
pub fn new(name: &'static str) -> Self {
Self {
name,
entries: Default::default(),
}
}
pub fn add_entry(&mut self, entry: TargetTableEntry) {
self.entries.push(entry);
}
}
/// An entry for the sequence tables.
///
/// The `check_success` field instructs the mode sequence executor to verify that the
/// target mode was actually reached before executing the next sequence.
pub struct SequenceTableEntry {
pub common: ModeTableEntryCommon,
pub check_success: bool,
}
pub struct ModeTableMapValue {
/// Name for a given mode table entry.
pub name: &'static str,
pub entries: Vec<ModeTableEntry>,
impl SequenceTableEntry {
pub fn new(
name: &'static str,
target_id: ComponentId,
mode_submode: ModeAndSubmode,
check_success: bool,
) -> Self {
Self {
common: ModeTableEntryCommon {
name,
target_id,
mode_submode,
allowed_submode_mask: None,
},
check_success,
}
}
pub type ModeTable = HashMap<Mode, ModeTableMapValue>;
delegate::delegate! {
to self.common {
pub fn set_allowed_submode_mask(&mut self, mask: Submode);
pub fn allowed_submode_mask(&self) -> Option<Submode>;
}
}
}
pub struct SequenceTableMapTable {
/// Name for a given mode sequence.
pub name: &'static str,
/// These are the rows of the a sequence table.
pub entries: Vec<SequenceTableEntry>,
}
impl SequenceTableMapTable {
pub fn new(name: &'static str) -> Self {
Self {
name,
entries: Default::default(),
}
}
pub fn add_entry(&mut self, entry: SequenceTableEntry) {
self.entries.push(entry);
}
}
pub struct SequenceTableMapValue {
/// Name for a given mode sequence.
pub name: &'static str,
/// Each sequence can consists of multiple sequences that are executed consecutively.
pub entries: Vec<SequenceTableMapTable>,
}
impl SequenceTableMapValue {
pub fn new(name: &'static str) -> Self {
Self {
name,
entries: Default::default(),
}
}
pub fn add_sequence_table(&mut self, entry: SequenceTableMapTable) {
self.entries.push(entry);
}
}
pub struct TargetModeTable(pub HashMap<Mode, TargetTableMapValue>);
pub struct SequenceModeTable(pub HashMap<Mode, SequenceTableMapValue>);
#[cfg(test)]
mod tests {}

134
satrs/src/subsystem.rs Normal file
View File

@ -0,0 +1,134 @@
use crate::{
mode::{Mode, ModeAndSubmode, ModeRequest, ModeRequestSender},
mode_tree::{SequenceModeTable, SequenceTableMapTable, SequenceTableMapValue},
queue::GenericTargetedMessagingError,
request::RequestId,
ComponentId,
};
#[derive(Debug, PartialEq, Eq)]
pub enum SequenceExecutionHelperStates {
Idle,
AwaitingCheckSuccess,
Done,
}
#[derive(Debug)]
pub struct SequenceExecutionHelper {
target_mode: Mode,
state: SequenceExecutionHelperStates,
request_id: RequestId,
current_sequence_index: Option<usize>,
}
pub trait CheckSuccessProvider {
fn mode_request_requires_success_check(
&mut self,
target_id: ComponentId,
target_mode: ModeAndSubmode,
);
}
#[derive(Debug)]
pub enum SequenceHandlerResult {
SequenceDone,
SequenceStepDone,
AwaitingSuccessCheck,
}
impl SequenceExecutionHelper {
pub fn new(
mode: Mode,
request_id: RequestId,
sequence_table: &SequenceModeTable,
) -> Option<Self> {
if !sequence_table.0.contains_key(&mode) {
return None;
}
Some(Self {
target_mode: mode,
state: SequenceExecutionHelperStates::Idle,
request_id,
current_sequence_index: None,
})
}
pub fn confirm_sequence_done(&mut self) {
if let SequenceExecutionHelperStates::AwaitingCheckSuccess = self.state {
self.state = SequenceExecutionHelperStates::Idle;
}
}
pub fn run(
&mut self,
table: &SequenceModeTable,
sender: &impl ModeRequestSender,
) -> Result<SequenceHandlerResult, GenericTargetedMessagingError> {
if self.state == SequenceExecutionHelperStates::AwaitingCheckSuccess {
return Ok(SequenceHandlerResult::AwaitingSuccessCheck);
}
match self.current_sequence_index {
Some(idx) => {
// Execute the sequence.
let seq_table_value = table.0.get(&self.target_mode).unwrap();
self.execute_sequence_and_map_to_result(seq_table_value, idx, sender)
}
None => {
// Find the first sequence
let seq_table_value = table.0.get(&self.target_mode).unwrap();
if seq_table_value.entries.is_empty() {
Ok(SequenceHandlerResult::SequenceDone)
} else {
self.current_sequence_index = Some(0);
self.execute_sequence_and_map_to_result(seq_table_value, 0, sender)
}
}
}
}
pub fn execute_sequence_and_map_to_result(
&mut self,
seq_table_value: &SequenceTableMapValue,
sequence_idx: usize,
sender: &impl ModeRequestSender,
) -> Result<SequenceHandlerResult, GenericTargetedMessagingError> {
if Self::execute_sequence(
self.request_id,
&seq_table_value.entries[sequence_idx],
sender,
)? {
self.state = SequenceExecutionHelperStates::AwaitingCheckSuccess;
Ok(SequenceHandlerResult::AwaitingSuccessCheck)
} else if seq_table_value.entries.len() - 1 == sequence_idx {
return Ok(SequenceHandlerResult::SequenceDone);
} else {
self.current_sequence_index = Some(sequence_idx + 1);
return Ok(SequenceHandlerResult::SequenceStepDone);
}
}
pub fn execute_sequence(
request_id: RequestId,
map_table: &SequenceTableMapTable,
//sequence_idx: usize,
sender: &impl ModeRequestSender,
) -> Result<bool, GenericTargetedMessagingError> {
let mut some_succes_check_required = false;
for entry in &map_table.entries {
sender.send_mode_request(
request_id,
entry.common.target_id,
ModeRequest::SetMode(entry.common.mode_submode),
)?;
if entry.check_success {
some_succes_check_required = true;
}
}
Ok(some_succes_check_required)
}
}
#[cfg(test)]
mod tests {
pub struct SatSystem {}
}

View File

@ -19,7 +19,8 @@ pub enum TestComponentId {
Device1 = 1,
Device2 = 2,
Assembly = 3,
PusModeService = 4,
Subsystem = 4,
PusModeService = 5,
}
struct PusModeService {
@ -41,78 +42,86 @@ impl PusModeService {
}
}
struct TestDevice {
struct TestSubsystem {
pub name: String,
pub mode_node: ModeRequestHandlerMpscBounded,
pub mode_node: ModeRequestorAndHandlerMpscBounded,
pub mode_requestor_info: Option<MessageMetadata>,
pub mode_and_submode: ModeAndSubmode,
pub target_mode_and_submode: Option<ModeAndSubmode>,
}
impl TestDevice {
pub fn run(&mut self) {
self.check_mode_requests().expect("mode messaging error");
}
pub fn check_mode_requests(&mut self) -> Result<(), ModeError> {
if let Some(request) = self.mode_node.try_recv_mode_request()? {
self.handle_mode_request(request)?
}
Ok(())
}
}
impl ModeProvider for TestDevice {
impl ModeProvider for TestSubsystem {
fn mode_and_submode(&self) -> ModeAndSubmode {
self.mode_and_submode
}
}
impl ModeRequestHandler for TestDevice {
impl ModeRequestHandler for TestSubsystem {
type Error = ModeError;
fn start_transition(
&mut self,
requestor: MessageMetadata,
mode_and_submode: ModeAndSubmode,
) -> Result<(), ModeError> {
self.mode_and_submode = mode_and_submode;
self.handle_mode_reached(Some(requestor))?;
) -> Result<(), Self::Error> {
self.mode_requestor_info = Some(requestor);
self.target_mode_and_submode = Some(mode_and_submode);
// Execute mode map by executing the transition table(s).
Ok(())
}
fn announce_mode(&self, _requestor_info: Option<MessageMetadata>, _recursive: bool) {
fn announce_mode(&self, requestor_info: Option<MessageMetadata>, recursive: bool) {
println!(
"{}: announcing mode: {:?}",
self.name, self.mode_and_submode
"TestAssembly: Announcing mode (recursively: {}): {:?}",
recursive, self.mode_and_submode
);
// self.mode_requestor_info = Some((request_id, sender_id));
let mut mode_request = ModeRequest::AnnounceMode;
if recursive {
mode_request = ModeRequest::AnnounceModeRecursive;
}
let request_id = requestor_info.map_or(0, |info| info.request_id());
self.mode_node
.request_sender_map
.0
.iter()
.for_each(|(_, sender)| {
sender
.send(GenericMessage::new(
MessageMetadata::new(request_id, self.mode_node.local_channel_id_generic()),
mode_request,
))
.expect("sending mode request failed");
});
}
fn handle_mode_reached(&mut self, requestor: Option<MessageMetadata>) -> Result<(), ModeError> {
if let Some(requestor) = requestor {
fn handle_mode_reached(
&mut self,
requestor_info: Option<MessageMetadata>,
) -> Result<(), Self::Error> {
if let Some(requestor) = requestor_info {
self.send_mode_reply(requestor, ModeReply::ModeReply(self.mode_and_submode))?;
}
Ok(())
}
fn send_mode_reply(
&self,
requestor_info: MessageMetadata,
reply: ModeReply,
) -> Result<(), ModeError> {
self.mode_node.send_mode_reply(requestor_info, reply)?;
Ok(())
}
fn handle_mode_info(
&mut self,
requestor_info: MessageMetadata,
info: ModeAndSubmode,
) -> Result<(), ModeError> {
// A device is a leaf in the tree.. so this really should not happen
println!(
"{}: unexpected mode info from {:?} with mode: {:?}",
self.name,
requestor_info.sender_id(),
info
);
) -> Result<(), Self::Error> {
// TODO: Need to check whether mode table execution is finished.
// This works by checking the children modes received through replies against the
// mode table after all transition tables were executed.
Ok(())
}
fn send_mode_reply(
&self,
requestor_info: MessageMetadata,
reply: ModeReply,
) -> Result<(), Self::Error> {
self.mode_node.send_mode_reply(requestor_info, reply)?;
Ok(())
}
}
@ -253,11 +262,88 @@ impl ModeRequestHandler for TestAssembly {
}
}
struct TestDevice {
pub name: String,
pub mode_node: ModeRequestHandlerMpscBounded,
pub mode_and_submode: ModeAndSubmode,
}
impl TestDevice {
pub fn run(&mut self) {
self.check_mode_requests().expect("mode messaging error");
}
pub fn check_mode_requests(&mut self) -> Result<(), ModeError> {
if let Some(request) = self.mode_node.try_recv_mode_request()? {
self.handle_mode_request(request)?
}
Ok(())
}
}
impl ModeProvider for TestDevice {
fn mode_and_submode(&self) -> ModeAndSubmode {
self.mode_and_submode
}
}
impl ModeRequestHandler for TestDevice {
type Error = ModeError;
fn start_transition(
&mut self,
requestor: MessageMetadata,
mode_and_submode: ModeAndSubmode,
) -> Result<(), ModeError> {
self.mode_and_submode = mode_and_submode;
self.handle_mode_reached(Some(requestor))?;
Ok(())
}
fn announce_mode(&self, _requestor_info: Option<MessageMetadata>, _recursive: bool) {
println!(
"{}: announcing mode: {:?}",
self.name, self.mode_and_submode
);
}
fn handle_mode_reached(&mut self, requestor: Option<MessageMetadata>) -> Result<(), ModeError> {
if let Some(requestor) = requestor {
self.send_mode_reply(requestor, ModeReply::ModeReply(self.mode_and_submode))?;
}
Ok(())
}
fn send_mode_reply(
&self,
requestor_info: MessageMetadata,
reply: ModeReply,
) -> Result<(), ModeError> {
self.mode_node.send_mode_reply(requestor_info, reply)?;
Ok(())
}
fn handle_mode_info(
&mut self,
requestor_info: MessageMetadata,
info: ModeAndSubmode,
) -> Result<(), ModeError> {
// A device is a leaf in the tree.. so this really should not happen
println!(
"{}: unexpected mode info from {:?} with mode: {:?}",
self.name,
requestor_info.sender_id(),
info
);
Ok(())
}
}
fn main() {
// All request channel handles.
let (request_sender_to_dev1, request_receiver_dev1) = mpsc::sync_channel(10);
let (request_sender_to_dev2, request_receiver_dev2) = mpsc::sync_channel(10);
let (request_sender_to_assy, request_receiver_assy) = mpsc::sync_channel(10);
let (request_sender_to_subsystem, request_receiver_subsystem) = mpsc::sync_channel(10);
// All reply channel handles.
let (reply_sender_to_assy, reply_receiver_assy) = mpsc::sync_channel(10);
@ -298,6 +384,11 @@ fn main() {
TestComponentId::Device2 as ComponentId,
request_sender_to_dev2.clone(),
);
mode_node_pus.add_message_target(
TestComponentId::Subsystem as ComponentId,
request_sender_to_subsystem.clone(),
);
mode_node_assy.add_request_target(
TestComponentId::Device1 as ComponentId,
request_sender_to_dev1,