Merge pull request #3012 from cschuhen/feature/fdcan_no_generics

Remove generic argument for STM32 FDCAN.
This commit is contained in:
Dario Nieuwenhuis 2024-05-30 10:42:53 +00:00 committed by GitHub
commit e9cb9badf7
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GPG Key ID: B5690EEEBB952194
4 changed files with 258 additions and 176 deletions

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@ -3,6 +3,7 @@ use core::future::poll_fn;
use core::marker::PhantomData; use core::marker::PhantomData;
use core::task::Poll; use core::task::Poll;
use embassy_hal_internal::interrupt::InterruptExt;
use embassy_hal_internal::{into_ref, PeripheralRef}; use embassy_hal_internal::{into_ref, PeripheralRef};
use embassy_sync::blocking_mutex::raw::CriticalSectionRawMutex; use embassy_sync::blocking_mutex::raw::CriticalSectionRawMutex;
use embassy_sync::channel::{Channel, DynamicReceiver, DynamicSender}; use embassy_sync::channel::{Channel, DynamicReceiver, DynamicSender};
@ -40,7 +41,7 @@ pub struct IT0InterruptHandler<T: Instance> {
// We use IT0 for everything currently // We use IT0 for everything currently
impl<T: Instance> interrupt::typelevel::Handler<T::IT0Interrupt> for IT0InterruptHandler<T> { impl<T: Instance> interrupt::typelevel::Handler<T::IT0Interrupt> for IT0InterruptHandler<T> {
unsafe fn on_interrupt() { unsafe fn on_interrupt() {
let regs = T::regs(); let regs = T::registers().regs;
let ir = regs.ir().read(); let ir = regs.ir().read();
@ -140,22 +141,13 @@ pub enum OperatingMode {
//TestMode, //TestMode,
} }
/// FDCAN Configuration instance instance
/// Create instance of this first
pub struct CanConfigurator<'d, T: Instance> {
config: crate::can::fd::config::FdCanConfig,
/// Reference to internals.
instance: FdcanInstance<'d, T>,
properties: Properties<T>,
}
fn calc_ns_per_timer_tick<T: Instance>(mode: crate::can::fd::config::FrameTransmissionConfig) -> u64 { fn calc_ns_per_timer_tick<T: Instance>(mode: crate::can::fd::config::FrameTransmissionConfig) -> u64 {
match mode { match mode {
// Use timestamp from Rx FIFO to adjust timestamp reported to user // Use timestamp from Rx FIFO to adjust timestamp reported to user
crate::can::fd::config::FrameTransmissionConfig::ClassicCanOnly => { crate::can::fd::config::FrameTransmissionConfig::ClassicCanOnly => {
let freq = T::frequency(); let freq = T::frequency();
let prescale: u64 = let prescale: u64 = ({ T::registers().regs.nbtp().read().nbrp() } + 1) as u64
({ T::regs().nbtp().read().nbrp() } + 1) as u64 * ({ T::regs().tscc().read().tcp() } + 1) as u64; * ({ T::registers().regs.tscc().read().tcp() } + 1) as u64;
1_000_000_000 as u64 / (freq.0 as u64 * prescale) 1_000_000_000 as u64 / (freq.0 as u64 * prescale)
} }
// For VBR this is too hard because the FDCAN timer switches clock rate you need to configure to use // For VBR this is too hard because the FDCAN timer switches clock rate you need to configure to use
@ -164,6 +156,18 @@ fn calc_ns_per_timer_tick<T: Instance>(mode: crate::can::fd::config::FrameTransm
} }
} }
/// FDCAN Configuration instance instance
/// Create instance of this first
pub struct CanConfigurator<'d, T: Instance> {
config: crate::can::fd::config::FdCanConfig,
info: &'static Info,
state: &'static State,
/// Reference to internals.
_instance: FdcanInstance<'d, T>,
properties: Properties,
periph_clock: crate::time::Hertz,
}
impl<'d, T: Instance> CanConfigurator<'d, T> { impl<'d, T: Instance> CanConfigurator<'d, T> {
/// Creates a new Fdcan instance, keeping the peripheral in sleep mode. /// Creates a new Fdcan instance, keeping the peripheral in sleep mode.
/// You must call [Fdcan::enable_non_blocking] to use the peripheral. /// You must call [Fdcan::enable_non_blocking] to use the peripheral.
@ -196,16 +200,18 @@ impl<'d, T: Instance> CanConfigurator<'d, T> {
T::IT1Interrupt::unpend(); // Not unsafe T::IT1Interrupt::unpend(); // Not unsafe
T::IT1Interrupt::enable(); T::IT1Interrupt::enable();
} }
Self { Self {
config, config,
instance: FdcanInstance(peri), info: T::info(),
properties: Properties::new(), state: T::state(),
_instance: FdcanInstance(peri),
properties: Properties::new(T::info()),
periph_clock: T::frequency(),
} }
} }
/// Get driver properties /// Get driver properties
pub fn properties(&self) -> &Properties<T> { pub fn properties(&self) -> &Properties {
&self.properties &self.properties
} }
@ -221,7 +227,7 @@ impl<'d, T: Instance> CanConfigurator<'d, T> {
/// Configures the bit timings calculated from supplied bitrate. /// Configures the bit timings calculated from supplied bitrate.
pub fn set_bitrate(&mut self, bitrate: u32) { pub fn set_bitrate(&mut self, bitrate: u32) {
let bit_timing = util::calc_can_timings(T::frequency(), bitrate).unwrap(); let bit_timing = util::calc_can_timings(self.periph_clock, bitrate).unwrap();
let nbtr = crate::can::fd::config::NominalBitTiming { let nbtr = crate::can::fd::config::NominalBitTiming {
sync_jump_width: bit_timing.sync_jump_width, sync_jump_width: bit_timing.sync_jump_width,
@ -234,7 +240,7 @@ impl<'d, T: Instance> CanConfigurator<'d, T> {
/// Configures the bit timings for VBR data calculated from supplied bitrate. This also sets confit to allow can FD and VBR /// Configures the bit timings for VBR data calculated from supplied bitrate. This also sets confit to allow can FD and VBR
pub fn set_fd_data_bitrate(&mut self, bitrate: u32, transceiver_delay_compensation: bool) { pub fn set_fd_data_bitrate(&mut self, bitrate: u32, transceiver_delay_compensation: bool) {
let bit_timing = util::calc_can_timings(T::frequency(), bitrate).unwrap(); let bit_timing = util::calc_can_timings(self.periph_clock, bitrate).unwrap();
// Note, used existing calcluation for normal(non-VBR) bitrate, appears to work for 250k/1M // Note, used existing calcluation for normal(non-VBR) bitrate, appears to work for 250k/1M
let nbtr = crate::can::fd::config::DataBitTiming { let nbtr = crate::can::fd::config::DataBitTiming {
transceiver_delay_compensation, transceiver_delay_compensation,
@ -248,62 +254,68 @@ impl<'d, T: Instance> CanConfigurator<'d, T> {
} }
/// Start in mode. /// Start in mode.
pub fn start(self, mode: OperatingMode) -> Can<'d, T> { pub fn start(self, mode: OperatingMode) -> Can<'d> {
let ns_per_timer_tick = calc_ns_per_timer_tick::<T>(self.config.frame_transmit); let ns_per_timer_tick = calc_ns_per_timer_tick::<T>(self.config.frame_transmit);
critical_section::with(|_| unsafe { critical_section::with(|_| {
T::mut_state().ns_per_timer_tick = ns_per_timer_tick; let state = self.state as *const State;
unsafe {
let mut_state = state as *mut State;
(*mut_state).ns_per_timer_tick = ns_per_timer_tick;
}
}); });
T::registers().into_mode(self.config, mode); T::registers().into_mode(self.config, mode);
let ret = Can { Can {
config: self.config, config: self.config,
instance: self.instance, info: self.info,
state: self.state,
instance: T::info().regs.regs,
_mode: mode, _mode: mode,
properties: self.properties, properties: Properties::new(T::info()),
}; }
ret
} }
/// Start, entering mode. Does same as start(mode) /// Start, entering mode. Does same as start(mode)
pub fn into_normal_mode(self) -> Can<'d, T> { pub fn into_normal_mode(self) -> Can<'d> {
self.start(OperatingMode::NormalOperationMode) self.start(OperatingMode::NormalOperationMode)
} }
/// Start, entering mode. Does same as start(mode) /// Start, entering mode. Does same as start(mode)
pub fn into_internal_loopback_mode(self) -> Can<'d, T> { pub fn into_internal_loopback_mode(self) -> Can<'d> {
self.start(OperatingMode::InternalLoopbackMode) self.start(OperatingMode::InternalLoopbackMode)
} }
/// Start, entering mode. Does same as start(mode) /// Start, entering mode. Does same as start(mode)
pub fn into_external_loopback_mode(self) -> Can<'d, T> { pub fn into_external_loopback_mode(self) -> Can<'d> {
self.start(OperatingMode::ExternalLoopbackMode) self.start(OperatingMode::ExternalLoopbackMode)
} }
} }
/// FDCAN Instance /// FDCAN Instance
pub struct Can<'d, T: Instance> { pub struct Can<'d> {
config: crate::can::fd::config::FdCanConfig, config: crate::can::fd::config::FdCanConfig,
/// Reference to internals. info: &'static Info,
instance: FdcanInstance<'d, T>, state: &'static State,
instance: &'d crate::pac::can::Fdcan,
_mode: OperatingMode, _mode: OperatingMode,
properties: Properties<T>, properties: Properties,
} }
impl<'d, T: Instance> Can<'d, T> { impl<'d> Can<'d> {
/// Get driver properties /// Get driver properties
pub fn properties(&self) -> &Properties<T> { pub fn properties(&self) -> &Properties {
&self.properties &self.properties
} }
/// Flush one of the TX mailboxes. /// Flush one of the TX mailboxes.
pub async fn flush(&self, idx: usize) { pub async fn flush(&self, idx: usize) {
poll_fn(|cx| { poll_fn(|cx| {
T::state().tx_mode.register(cx.waker()); self.state.tx_mode.register(cx.waker());
if idx > 3 { if idx > 3 {
panic!("Bad mailbox"); panic!("Bad mailbox");
} }
let idx = 1 << idx; let idx = 1 << idx;
if !T::regs().txbrp().read().trp(idx) { if !self.info.regs.regs.txbrp().read().trp(idx) {
return Poll::Ready(()); return Poll::Ready(());
} }
@ -317,12 +329,12 @@ impl<'d, T: Instance> Can<'d, T> {
/// can be replaced, this call asynchronously waits for a frame to be successfully /// can be replaced, this call asynchronously waits for a frame to be successfully
/// transmitted, then tries again. /// transmitted, then tries again.
pub async fn write(&mut self, frame: &Frame) -> Option<Frame> { pub async fn write(&mut self, frame: &Frame) -> Option<Frame> {
T::state().tx_mode.write::<T>(frame).await self.state.tx_mode.write(self.info, frame).await
} }
/// Returns the next received message frame /// Returns the next received message frame
pub async fn read(&mut self) -> Result<Envelope, BusError> { pub async fn read(&mut self) -> Result<Envelope, BusError> {
T::state().rx_mode.read_classic::<T>().await self.state.rx_mode.read_classic(self.info, self.state).await
} }
/// Queues the message to be sent but exerts backpressure. If a lower-priority /// Queues the message to be sent but exerts backpressure. If a lower-priority
@ -330,58 +342,61 @@ impl<'d, T: Instance> Can<'d, T> {
/// can be replaced, this call asynchronously waits for a frame to be successfully /// can be replaced, this call asynchronously waits for a frame to be successfully
/// transmitted, then tries again. /// transmitted, then tries again.
pub async fn write_fd(&mut self, frame: &FdFrame) -> Option<FdFrame> { pub async fn write_fd(&mut self, frame: &FdFrame) -> Option<FdFrame> {
T::state().tx_mode.write_fd::<T>(frame).await self.state.tx_mode.write_fd(self.info, frame).await
} }
/// Returns the next received message frame /// Returns the next received message frame
pub async fn read_fd(&mut self) -> Result<FdEnvelope, BusError> { pub async fn read_fd(&mut self) -> Result<FdEnvelope, BusError> {
T::state().rx_mode.read_fd::<T>().await self.state.rx_mode.read_fd(self.info, self.state).await
} }
/// Split instance into separate portions: Tx(write), Rx(read), common properties /// Split instance into separate portions: Tx(write), Rx(read), common properties
pub fn split(self) -> (CanTx<'d, T>, CanRx<'d, T>, Properties<T>) { pub fn split(self) -> (CanTx<'d>, CanRx<'d>, Properties) {
( (
CanTx { CanTx {
info: self.info,
state: self.state,
config: self.config, config: self.config,
_instance: self.instance, _instance: self.instance,
_mode: self._mode, _mode: self._mode,
}, },
CanRx { CanRx {
_instance1: PhantomData::<T>, info: self.info,
_instance2: T::regs(), state: self.state,
_instance: self.instance,
_mode: self._mode, _mode: self._mode,
}, },
self.properties, self.properties,
) )
} }
/// Join split rx and tx portions back together /// Join split rx and tx portions back together
pub fn join(tx: CanTx<'d, T>, rx: CanRx<'d, T>) -> Self { pub fn join(tx: CanTx<'d>, rx: CanRx<'d>) -> Self {
Can { Can {
config: tx.config, config: tx.config,
//_instance2: T::regs(), info: tx.info,
state: tx.state,
instance: tx._instance, instance: tx._instance,
_mode: rx._mode, _mode: rx._mode,
properties: Properties::new(), properties: Properties::new(tx.info),
} }
} }
/// Return a buffered instance of driver without CAN FD support. User must supply Buffers /// Return a buffered instance of driver without CAN FD support. User must supply Buffers
pub fn buffered<const TX_BUF_SIZE: usize, const RX_BUF_SIZE: usize>( pub fn buffered<const TX_BUF_SIZE: usize, const RX_BUF_SIZE: usize>(
&self, self,
tx_buf: &'static mut TxBuf<TX_BUF_SIZE>, tx_buf: &'static mut TxBuf<TX_BUF_SIZE>,
rxb: &'static mut RxBuf<RX_BUF_SIZE>, rxb: &'static mut RxBuf<RX_BUF_SIZE>,
) -> BufferedCan<'d, T, TX_BUF_SIZE, RX_BUF_SIZE> { ) -> BufferedCan<'d, TX_BUF_SIZE, RX_BUF_SIZE> {
BufferedCan::new(PhantomData::<T>, T::regs(), self._mode, tx_buf, rxb) BufferedCan::new(self.info, self.state, self.info.regs.regs, self._mode, tx_buf, rxb)
} }
/// Return a buffered instance of driver with CAN FD support. User must supply Buffers /// Return a buffered instance of driver with CAN FD support. User must supply Buffers
pub fn buffered_fd<const TX_BUF_SIZE: usize, const RX_BUF_SIZE: usize>( pub fn buffered_fd<const TX_BUF_SIZE: usize, const RX_BUF_SIZE: usize>(
&self, self,
tx_buf: &'static mut TxFdBuf<TX_BUF_SIZE>, tx_buf: &'static mut TxFdBuf<TX_BUF_SIZE>,
rxb: &'static mut RxFdBuf<RX_BUF_SIZE>, rxb: &'static mut RxFdBuf<RX_BUF_SIZE>,
) -> BufferedCanFd<'d, T, TX_BUF_SIZE, RX_BUF_SIZE> { ) -> BufferedCanFd<'d, TX_BUF_SIZE, RX_BUF_SIZE> {
BufferedCanFd::new(PhantomData::<T>, T::regs(), self._mode, tx_buf, rxb) BufferedCanFd::new(self.info, self.state, self.info.regs.regs, self._mode, tx_buf, rxb)
} }
} }
@ -392,52 +407,57 @@ pub type RxBuf<const BUF_SIZE: usize> = Channel<CriticalSectionRawMutex, Result<
pub type TxBuf<const BUF_SIZE: usize> = Channel<CriticalSectionRawMutex, Frame, BUF_SIZE>; pub type TxBuf<const BUF_SIZE: usize> = Channel<CriticalSectionRawMutex, Frame, BUF_SIZE>;
/// Buffered FDCAN Instance /// Buffered FDCAN Instance
pub struct BufferedCan<'d, T: Instance, const TX_BUF_SIZE: usize, const RX_BUF_SIZE: usize> { pub struct BufferedCan<'d, const TX_BUF_SIZE: usize, const RX_BUF_SIZE: usize> {
_instance1: PhantomData<T>, info: &'static Info,
_instance2: &'d crate::pac::can::Fdcan, state: &'static State,
_instance: &'d crate::pac::can::Fdcan,
_mode: OperatingMode, _mode: OperatingMode,
tx_buf: &'static TxBuf<TX_BUF_SIZE>, tx_buf: &'static TxBuf<TX_BUF_SIZE>,
rx_buf: &'static RxBuf<RX_BUF_SIZE>, rx_buf: &'static RxBuf<RX_BUF_SIZE>,
properties: Properties<T>, properties: Properties,
} }
impl<'c, 'd, T: Instance, const TX_BUF_SIZE: usize, const RX_BUF_SIZE: usize> impl<'c, 'd, const TX_BUF_SIZE: usize, const RX_BUF_SIZE: usize> BufferedCan<'d, TX_BUF_SIZE, RX_BUF_SIZE> {
BufferedCan<'d, T, TX_BUF_SIZE, RX_BUF_SIZE>
{
fn new( fn new(
_instance1: PhantomData<T>, info: &'static Info,
_instance2: &'d crate::pac::can::Fdcan, state: &'static State,
_instance: &'d crate::pac::can::Fdcan,
_mode: OperatingMode, _mode: OperatingMode,
tx_buf: &'static TxBuf<TX_BUF_SIZE>, tx_buf: &'static TxBuf<TX_BUF_SIZE>,
rx_buf: &'static RxBuf<RX_BUF_SIZE>, rx_buf: &'static RxBuf<RX_BUF_SIZE>,
) -> Self { ) -> Self {
BufferedCan { BufferedCan {
_instance1, info,
_instance2, state,
_instance,
_mode, _mode,
tx_buf, tx_buf,
rx_buf, rx_buf,
properties: Properties::new(), properties: Properties::new(info),
} }
.setup() .setup()
} }
/// Get driver properties /// Get driver properties
pub fn properties(&self) -> &Properties<T> { pub fn properties(&self) -> &Properties {
&self.properties &self.properties
} }
fn setup(self) -> Self { fn setup(self) -> Self {
// We don't want interrupts being processed while we change modes. // We don't want interrupts being processed while we change modes.
critical_section::with(|_| unsafe { critical_section::with(|_| {
let rx_inner = super::common::ClassicBufferedRxInner { let rx_inner = super::common::ClassicBufferedRxInner {
rx_sender: self.rx_buf.sender().into(), rx_sender: self.rx_buf.sender().into(),
}; };
let tx_inner = super::common::ClassicBufferedTxInner { let tx_inner = super::common::ClassicBufferedTxInner {
tx_receiver: self.tx_buf.receiver().into(), tx_receiver: self.tx_buf.receiver().into(),
}; };
T::mut_state().rx_mode = RxMode::ClassicBuffered(rx_inner); let state = self.state as *const State;
T::mut_state().tx_mode = TxMode::ClassicBuffered(tx_inner); unsafe {
let mut_state = state as *mut State;
(*mut_state).rx_mode = RxMode::ClassicBuffered(rx_inner);
(*mut_state).tx_mode = TxMode::ClassicBuffered(tx_inner);
}
}); });
self self
} }
@ -445,7 +465,8 @@ impl<'c, 'd, T: Instance, const TX_BUF_SIZE: usize, const RX_BUF_SIZE: usize>
/// Async write frame to TX buffer. /// Async write frame to TX buffer.
pub async fn write(&mut self, frame: Frame) { pub async fn write(&mut self, frame: Frame) {
self.tx_buf.send(frame).await; self.tx_buf.send(frame).await;
T::IT0Interrupt::pend(); // Wake for Tx self.info.interrupt0.pend(); // Wake for Tx
//T::IT0Interrupt::pend(); // Wake for Tx
} }
/// Async read frame from RX buffer. /// Async read frame from RX buffer.
@ -457,7 +478,7 @@ impl<'c, 'd, T: Instance, const TX_BUF_SIZE: usize, const RX_BUF_SIZE: usize>
pub fn writer(&self) -> BufferedCanSender { pub fn writer(&self) -> BufferedCanSender {
BufferedCanSender { BufferedCanSender {
tx_buf: self.tx_buf.sender().into(), tx_buf: self.tx_buf.sender().into(),
waker: T::IT0Interrupt::pend, waker: self.info.tx_waker,
} }
} }
@ -467,13 +488,15 @@ impl<'c, 'd, T: Instance, const TX_BUF_SIZE: usize, const RX_BUF_SIZE: usize>
} }
} }
impl<'c, 'd, T: Instance, const TX_BUF_SIZE: usize, const RX_BUF_SIZE: usize> Drop impl<'c, 'd, const TX_BUF_SIZE: usize, const RX_BUF_SIZE: usize> Drop for BufferedCan<'d, TX_BUF_SIZE, RX_BUF_SIZE> {
for BufferedCan<'d, T, TX_BUF_SIZE, RX_BUF_SIZE>
{
fn drop(&mut self) { fn drop(&mut self) {
critical_section::with(|_| unsafe { critical_section::with(|_| {
T::mut_state().rx_mode = RxMode::NonBuffered(embassy_sync::waitqueue::AtomicWaker::new()); let state = self.state as *const State;
T::mut_state().tx_mode = TxMode::NonBuffered(embassy_sync::waitqueue::AtomicWaker::new()); unsafe {
let mut_state = state as *mut State;
(*mut_state).rx_mode = RxMode::NonBuffered(embassy_sync::waitqueue::AtomicWaker::new());
(*mut_state).tx_mode = TxMode::NonBuffered(embassy_sync::waitqueue::AtomicWaker::new());
}
}); });
} }
} }
@ -484,16 +507,6 @@ pub type RxFdBuf<const BUF_SIZE: usize> = Channel<CriticalSectionRawMutex, Resul
/// User supplied buffer for TX buffering /// User supplied buffer for TX buffering
pub type TxFdBuf<const BUF_SIZE: usize> = Channel<CriticalSectionRawMutex, FdFrame, BUF_SIZE>; pub type TxFdBuf<const BUF_SIZE: usize> = Channel<CriticalSectionRawMutex, FdFrame, BUF_SIZE>;
/// Buffered FDCAN Instance
pub struct BufferedCanFd<'d, T: Instance, const TX_BUF_SIZE: usize, const RX_BUF_SIZE: usize> {
_instance1: PhantomData<T>,
_instance2: &'d crate::pac::can::Fdcan,
_mode: OperatingMode,
tx_buf: &'static TxFdBuf<TX_BUF_SIZE>,
rx_buf: &'static RxFdBuf<RX_BUF_SIZE>,
properties: Properties<T>,
}
/// Sender that can be used for sending CAN frames. /// Sender that can be used for sending CAN frames.
#[derive(Copy, Clone)] #[derive(Copy, Clone)]
pub struct BufferedFdCanSender { pub struct BufferedFdCanSender {
@ -524,43 +537,58 @@ impl BufferedFdCanSender {
/// Receiver that can be used for receiving CAN frames. Note, each CAN frame will only be received by one receiver. /// Receiver that can be used for receiving CAN frames. Note, each CAN frame will only be received by one receiver.
pub type BufferedFdCanReceiver = DynamicReceiver<'static, Result<FdEnvelope, BusError>>; pub type BufferedFdCanReceiver = DynamicReceiver<'static, Result<FdEnvelope, BusError>>;
impl<'c, 'd, T: Instance, const TX_BUF_SIZE: usize, const RX_BUF_SIZE: usize> /// Buffered FDCAN Instance
BufferedCanFd<'d, T, TX_BUF_SIZE, RX_BUF_SIZE> pub struct BufferedCanFd<'d, const TX_BUF_SIZE: usize, const RX_BUF_SIZE: usize> {
{ info: &'static Info,
state: &'static State,
_instance: &'d crate::pac::can::Fdcan,
_mode: OperatingMode,
tx_buf: &'static TxFdBuf<TX_BUF_SIZE>,
rx_buf: &'static RxFdBuf<RX_BUF_SIZE>,
properties: Properties,
}
impl<'c, 'd, const TX_BUF_SIZE: usize, const RX_BUF_SIZE: usize> BufferedCanFd<'d, TX_BUF_SIZE, RX_BUF_SIZE> {
fn new( fn new(
_instance1: PhantomData<T>, info: &'static Info,
_instance2: &'d crate::pac::can::Fdcan, state: &'static State,
_instance: &'d crate::pac::can::Fdcan,
_mode: OperatingMode, _mode: OperatingMode,
tx_buf: &'static TxFdBuf<TX_BUF_SIZE>, tx_buf: &'static TxFdBuf<TX_BUF_SIZE>,
rx_buf: &'static RxFdBuf<RX_BUF_SIZE>, rx_buf: &'static RxFdBuf<RX_BUF_SIZE>,
) -> Self { ) -> Self {
BufferedCanFd { BufferedCanFd {
_instance1, info,
_instance2, state,
_instance,
_mode, _mode,
tx_buf, tx_buf,
rx_buf, rx_buf,
properties: Properties::new(), properties: Properties::new(info),
} }
.setup() .setup()
} }
/// Get driver properties /// Get driver properties
pub fn properties(&self) -> &Properties<T> { pub fn properties(&self) -> &Properties {
&self.properties &self.properties
} }
fn setup(self) -> Self { fn setup(self) -> Self {
// We don't want interrupts being processed while we change modes. // We don't want interrupts being processed while we change modes.
critical_section::with(|_| unsafe { critical_section::with(|_| {
let rx_inner = super::common::FdBufferedRxInner { let rx_inner = super::common::FdBufferedRxInner {
rx_sender: self.rx_buf.sender().into(), rx_sender: self.rx_buf.sender().into(),
}; };
let tx_inner = super::common::FdBufferedTxInner { let tx_inner = super::common::FdBufferedTxInner {
tx_receiver: self.tx_buf.receiver().into(), tx_receiver: self.tx_buf.receiver().into(),
}; };
T::mut_state().rx_mode = RxMode::FdBuffered(rx_inner); let state = self.state as *const State;
T::mut_state().tx_mode = TxMode::FdBuffered(tx_inner); unsafe {
let mut_state = state as *mut State;
(*mut_state).rx_mode = RxMode::FdBuffered(rx_inner);
(*mut_state).tx_mode = TxMode::FdBuffered(tx_inner);
}
}); });
self self
} }
@ -568,7 +596,8 @@ impl<'c, 'd, T: Instance, const TX_BUF_SIZE: usize, const RX_BUF_SIZE: usize>
/// Async write frame to TX buffer. /// Async write frame to TX buffer.
pub async fn write(&mut self, frame: FdFrame) { pub async fn write(&mut self, frame: FdFrame) {
self.tx_buf.send(frame).await; self.tx_buf.send(frame).await;
T::IT0Interrupt::pend(); // Wake for Tx self.info.interrupt0.pend(); // Wake for Tx
//T::IT0Interrupt::pend(); // Wake for Tx
} }
/// Async read frame from RX buffer. /// Async read frame from RX buffer.
@ -580,7 +609,7 @@ impl<'c, 'd, T: Instance, const TX_BUF_SIZE: usize, const RX_BUF_SIZE: usize>
pub fn writer(&self) -> BufferedFdCanSender { pub fn writer(&self) -> BufferedFdCanSender {
BufferedFdCanSender { BufferedFdCanSender {
tx_buf: self.tx_buf.sender().into(), tx_buf: self.tx_buf.sender().into(),
waker: T::IT0Interrupt::pend, waker: self.info.tx_waker,
} }
} }
@ -590,38 +619,55 @@ impl<'c, 'd, T: Instance, const TX_BUF_SIZE: usize, const RX_BUF_SIZE: usize>
} }
} }
impl<'c, 'd, T: Instance, const TX_BUF_SIZE: usize, const RX_BUF_SIZE: usize> Drop impl<'c, 'd, const TX_BUF_SIZE: usize, const RX_BUF_SIZE: usize> Drop for BufferedCanFd<'d, TX_BUF_SIZE, RX_BUF_SIZE> {
for BufferedCanFd<'d, T, TX_BUF_SIZE, RX_BUF_SIZE>
{
fn drop(&mut self) { fn drop(&mut self) {
critical_section::with(|_| unsafe { critical_section::with(|_| {
T::mut_state().rx_mode = RxMode::NonBuffered(embassy_sync::waitqueue::AtomicWaker::new()); let state = self.state as *const State;
T::mut_state().tx_mode = TxMode::NonBuffered(embassy_sync::waitqueue::AtomicWaker::new()); unsafe {
let mut_state = state as *mut State;
(*mut_state).rx_mode = RxMode::NonBuffered(embassy_sync::waitqueue::AtomicWaker::new());
(*mut_state).tx_mode = TxMode::NonBuffered(embassy_sync::waitqueue::AtomicWaker::new());
}
}); });
} }
} }
/// FDCAN Rx only Instance /// FDCAN Rx only Instance
pub struct CanRx<'d, T: Instance> { pub struct CanRx<'d> {
_instance1: PhantomData<T>, info: &'static Info,
_instance2: &'d crate::pac::can::Fdcan, state: &'static State,
_instance: &'d crate::pac::can::Fdcan,
_mode: OperatingMode, _mode: OperatingMode,
} }
impl<'d> CanRx<'d> {
/// Returns the next received message frame
pub async fn read(&mut self) -> Result<Envelope, BusError> {
self.state.rx_mode.read_classic(&self.info, &self.state).await
}
/// Returns the next received message frame
pub async fn read_fd(&mut self) -> Result<FdEnvelope, BusError> {
self.state.rx_mode.read_fd(&self.info, &self.state).await
}
}
/// FDCAN Tx only Instance /// FDCAN Tx only Instance
pub struct CanTx<'d, T: Instance> { pub struct CanTx<'d> {
info: &'static Info,
state: &'static State,
config: crate::can::fd::config::FdCanConfig, config: crate::can::fd::config::FdCanConfig,
_instance: FdcanInstance<'d, T>, //(PeripheralRef<'a, T>); _instance: &'d crate::pac::can::Fdcan,
_mode: OperatingMode, _mode: OperatingMode,
} }
impl<'c, 'd, T: Instance> CanTx<'d, T> { impl<'c, 'd> CanTx<'d> {
/// Queues the message to be sent but exerts backpressure. If a lower-priority /// Queues the message to be sent but exerts backpressure. If a lower-priority
/// frame is dropped from the mailbox, it is returned. If no lower-priority frames /// frame is dropped from the mailbox, it is returned. If no lower-priority frames
/// can be replaced, this call asynchronously waits for a frame to be successfully /// can be replaced, this call asynchronously waits for a frame to be successfully
/// transmitted, then tries again. /// transmitted, then tries again.
pub async fn write(&mut self, frame: &Frame) -> Option<Frame> { pub async fn write(&mut self, frame: &Frame) -> Option<Frame> {
T::state().tx_mode.write::<T>(frame).await self.state.tx_mode.write(self.info, frame).await
} }
/// Queues the message to be sent but exerts backpressure. If a lower-priority /// Queues the message to be sent but exerts backpressure. If a lower-priority
@ -629,19 +675,7 @@ impl<'c, 'd, T: Instance> CanTx<'d, T> {
/// can be replaced, this call asynchronously waits for a frame to be successfully /// can be replaced, this call asynchronously waits for a frame to be successfully
/// transmitted, then tries again. /// transmitted, then tries again.
pub async fn write_fd(&mut self, frame: &FdFrame) -> Option<FdFrame> { pub async fn write_fd(&mut self, frame: &FdFrame) -> Option<FdFrame> {
T::state().tx_mode.write_fd::<T>(frame).await self.state.tx_mode.write_fd(self.info, frame).await
}
}
impl<'c, 'd, T: Instance> CanRx<'d, T> {
/// Returns the next received message frame
pub async fn read(&mut self) -> Result<Envelope, BusError> {
T::state().rx_mode.read_classic::<T>().await
}
/// Returns the next received message frame
pub async fn read_fd(&mut self) -> Result<FdEnvelope, BusError> {
T::state().rx_mode.read_fd::<T>().await
} }
} }
@ -662,7 +696,7 @@ impl RxMode {
} }
fn on_interrupt<T: Instance>(&self, fifonr: usize) { fn on_interrupt<T: Instance>(&self, fifonr: usize) {
T::regs().ir().write(|w| w.set_rfn(fifonr, true)); T::registers().regs.ir().write(|w| w.set_rfn(fifonr, true));
match self { match self {
RxMode::NonBuffered(waker) => { RxMode::NonBuffered(waker) => {
waker.wake(); waker.wake();
@ -696,7 +730,6 @@ impl RxMode {
} }
} }
//async fn read_classic<T: Instance>(&self) -> Result<Envelope, BusError> {
fn try_read_fd<T: Instance>(&self) -> Option<Result<FdEnvelope, BusError>> { fn try_read_fd<T: Instance>(&self) -> Option<Result<FdEnvelope, BusError>> {
if let Some((frame, ts)) = T::registers().read(0) { if let Some((frame, ts)) = T::registers().read(0) {
let ts = T::calc_timestamp(T::state().ns_per_timer_tick, ts); let ts = T::calc_timestamp(T::state().ns_per_timer_tick, ts);
@ -712,14 +745,18 @@ impl RxMode {
} }
} }
fn read<T: Instance, F: CanHeader>(&self) -> Option<Result<(F, Timestamp), BusError>> { fn read<F: CanHeader>(
if let Some((msg, ts)) = T::registers().read(0) { &self,
let ts = T::calc_timestamp(T::state().ns_per_timer_tick, ts); info: &'static Info,
state: &'static State,
) -> Option<Result<(F, Timestamp), BusError>> {
if let Some((msg, ts)) = info.regs.read(0) {
let ts = info.calc_timestamp(state.ns_per_timer_tick, ts);
Some(Ok((msg, ts))) Some(Ok((msg, ts)))
} else if let Some((msg, ts)) = T::registers().read(1) { } else if let Some((msg, ts)) = info.regs.read(1) {
let ts = T::calc_timestamp(T::state().ns_per_timer_tick, ts); let ts = info.calc_timestamp(state.ns_per_timer_tick, ts);
Some(Ok((msg, ts))) Some(Ok((msg, ts)))
} else if let Some(err) = T::registers().curr_error() { } else if let Some(err) = info.regs.curr_error() {
// TODO: this is probably wrong // TODO: this is probably wrong
Some(Err(err)) Some(Err(err))
} else { } else {
@ -727,11 +764,16 @@ impl RxMode {
} }
} }
async fn read_async<T: Instance, F: CanHeader>(&self) -> Result<(F, Timestamp), BusError> { async fn read_async<F: CanHeader>(
poll_fn(|cx| { &self,
T::state().err_waker.register(cx.waker()); info: &'static Info,
state: &'static State,
) -> Result<(F, Timestamp), BusError> {
//let _ = self.read::<F>(info, state);
poll_fn(move |cx| {
state.err_waker.register(cx.waker());
self.register(cx.waker()); self.register(cx.waker());
match self.read::<T, _>() { match self.read::<_>(info, state) {
Some(result) => Poll::Ready(result), Some(result) => Poll::Ready(result),
None => Poll::Pending, None => Poll::Pending,
} }
@ -739,15 +781,15 @@ impl RxMode {
.await .await
} }
async fn read_classic<T: Instance>(&self) -> Result<Envelope, BusError> { async fn read_classic(&self, info: &'static Info, state: &'static State) -> Result<Envelope, BusError> {
match self.read_async::<T, _>().await { match self.read_async::<_>(info, state).await {
Ok((frame, ts)) => Ok(Envelope { ts, frame }), Ok((frame, ts)) => Ok(Envelope { ts, frame }),
Err(e) => Err(e), Err(e) => Err(e),
} }
} }
async fn read_fd<T: Instance>(&self) -> Result<FdEnvelope, BusError> { async fn read_fd(&self, info: &'static Info, state: &'static State) -> Result<FdEnvelope, BusError> {
match self.read_async::<T, _>().await { match self.read_async::<_>(info, state).await {
Ok((frame, ts)) => Ok(FdEnvelope { ts, frame }), Ok((frame, ts)) => Ok(FdEnvelope { ts, frame }),
Err(e) => Err(e), Err(e) => Err(e),
} }
@ -776,11 +818,11 @@ impl TxMode {
/// frame is dropped from the mailbox, it is returned. If no lower-priority frames /// frame is dropped from the mailbox, it is returned. If no lower-priority frames
/// can be replaced, this call asynchronously waits for a frame to be successfully /// can be replaced, this call asynchronously waits for a frame to be successfully
/// transmitted, then tries again. /// transmitted, then tries again.
async fn write_generic<T: Instance, F: embedded_can::Frame + CanHeader>(&self, frame: &F) -> Option<F> { async fn write_generic<F: embedded_can::Frame + CanHeader>(&self, info: &'static Info, frame: &F) -> Option<F> {
poll_fn(|cx| { poll_fn(|cx| {
self.register(cx.waker()); self.register(cx.waker());
if let Ok(dropped) = T::registers().write(frame) { if let Ok(dropped) = info.regs.write(frame) {
return Poll::Ready(dropped); return Poll::Ready(dropped);
} }
@ -795,68 +837,70 @@ impl TxMode {
/// frame is dropped from the mailbox, it is returned. If no lower-priority frames /// frame is dropped from the mailbox, it is returned. If no lower-priority frames
/// can be replaced, this call asynchronously waits for a frame to be successfully /// can be replaced, this call asynchronously waits for a frame to be successfully
/// transmitted, then tries again. /// transmitted, then tries again.
async fn write<T: Instance>(&self, frame: &Frame) -> Option<Frame> { async fn write(&self, info: &'static Info, frame: &Frame) -> Option<Frame> {
self.write_generic::<T, _>(frame).await self.write_generic::<_>(info, frame).await
} }
/// Queues the message to be sent but exerts backpressure. If a lower-priority /// Queues the message to be sent but exerts backpressure. If a lower-priority
/// frame is dropped from the mailbox, it is returned. If no lower-priority frames /// frame is dropped from the mailbox, it is returned. If no lower-priority frames
/// can be replaced, this call asynchronously waits for a frame to be successfully /// can be replaced, this call asynchronously waits for a frame to be successfully
/// transmitted, then tries again. /// transmitted, then tries again.
async fn write_fd<T: Instance>(&self, frame: &FdFrame) -> Option<FdFrame> { async fn write_fd(&self, info: &'static Info, frame: &FdFrame) -> Option<FdFrame> {
self.write_generic::<T, _>(frame).await self.write_generic::<_>(info, frame).await
} }
} }
/// Common driver properties, including filters and error counters /// Common driver properties, including filters and error counters
pub struct Properties<T> { pub struct Properties {
info: &'static Info,
// phantom pointer to ensure !Sync // phantom pointer to ensure !Sync
instance: PhantomData<*const T>, //instance: PhantomData<*const T>,
} }
impl<T: Instance> Properties<T> { impl Properties {
fn new() -> Self { fn new(info: &'static Info) -> Self {
Self { Self {
instance: Default::default(), info,
//instance: Default::default(),
} }
} }
/// Set a standard address CAN filter in the specified slot in FDCAN memory. /// Set a standard address CAN filter in the specified slot in FDCAN memory.
#[inline] #[inline]
pub fn set_standard_filter(&self, slot: StandardFilterSlot, filter: StandardFilter) { pub fn set_standard_filter(&self, slot: StandardFilterSlot, filter: StandardFilter) {
T::registers().msg_ram_mut().filters.flssa[slot as usize].activate(filter); self.info.regs.msg_ram_mut().filters.flssa[slot as usize].activate(filter);
} }
/// Set the full array of standard address CAN filters in FDCAN memory. /// Set the full array of standard address CAN filters in FDCAN memory.
/// Overwrites all standard address filters in memory. /// Overwrites all standard address filters in memory.
pub fn set_standard_filters(&self, filters: &[StandardFilter; STANDARD_FILTER_MAX as usize]) { pub fn set_standard_filters(&self, filters: &[StandardFilter; STANDARD_FILTER_MAX as usize]) {
for (i, f) in filters.iter().enumerate() { for (i, f) in filters.iter().enumerate() {
T::registers().msg_ram_mut().filters.flssa[i].activate(*f); self.info.regs.msg_ram_mut().filters.flssa[i].activate(*f);
} }
} }
/// Set an extended address CAN filter in the specified slot in FDCAN memory. /// Set an extended address CAN filter in the specified slot in FDCAN memory.
#[inline] #[inline]
pub fn set_extended_filter(&self, slot: ExtendedFilterSlot, filter: ExtendedFilter) { pub fn set_extended_filter(&self, slot: ExtendedFilterSlot, filter: ExtendedFilter) {
T::registers().msg_ram_mut().filters.flesa[slot as usize].activate(filter); self.info.regs.msg_ram_mut().filters.flesa[slot as usize].activate(filter);
} }
/// Set the full array of extended address CAN filters in FDCAN memory. /// Set the full array of extended address CAN filters in FDCAN memory.
/// Overwrites all extended address filters in memory. /// Overwrites all extended address filters in memory.
pub fn set_extended_filters(&self, filters: &[ExtendedFilter; EXTENDED_FILTER_MAX as usize]) { pub fn set_extended_filters(&self, filters: &[ExtendedFilter; EXTENDED_FILTER_MAX as usize]) {
for (i, f) in filters.iter().enumerate() { for (i, f) in filters.iter().enumerate() {
T::registers().msg_ram_mut().filters.flesa[i].activate(*f); self.info.regs.msg_ram_mut().filters.flesa[i].activate(*f);
} }
} }
/// Get the CAN RX error counter /// Get the CAN RX error counter
pub fn rx_error_count(&self) -> u8 { pub fn rx_error_count(&self) -> u8 {
T::regs().ecr().read().rec() self.info.regs.regs.ecr().read().rec()
} }
/// Get the CAN TX error counter /// Get the CAN TX error counter
pub fn tx_error_count(&self) -> u8 { pub fn tx_error_count(&self) -> u8 {
T::regs().ecr().read().tec() self.info.regs.regs.ecr().read().tec()
} }
/// Get the current bus error mode /// Get the current bus error mode
@ -864,7 +908,7 @@ impl<T: Instance> Properties<T> {
// This read will clear LEC and DLEC. This is not ideal, but protocol // This read will clear LEC and DLEC. This is not ideal, but protocol
// error reporting in this driver should have a big ol' FIXME on it // error reporting in this driver should have a big ol' FIXME on it
// anyway! // anyway!
let psr = T::regs().psr().read(); let psr = self.info.regs.regs.psr().read();
match (psr.bo(), psr.ep()) { match (psr.bo(), psr.ep()) {
(false, false) => BusErrorMode::ErrorActive, (false, false) => BusErrorMode::ErrorActive,
(false, true) => BusErrorMode::ErrorPassive, (false, true) => BusErrorMode::ErrorPassive,
@ -892,10 +936,37 @@ impl State {
} }
} }
struct Info {
regs: Registers,
interrupt0: crate::interrupt::Interrupt,
_interrupt1: crate::interrupt::Interrupt,
tx_waker: fn(),
}
impl Info {
#[cfg(feature = "time")]
fn calc_timestamp(&self, ns_per_timer_tick: u64, ts_val: u16) -> Timestamp {
let now_embassy = embassy_time::Instant::now();
if ns_per_timer_tick == 0 {
return now_embassy;
}
let cantime = { self.regs.regs.tscv().read().tsc() };
let delta = cantime.overflowing_sub(ts_val).0 as u64;
let ns = ns_per_timer_tick * delta as u64;
now_embassy - embassy_time::Duration::from_nanos(ns)
}
#[cfg(not(feature = "time"))]
fn calc_timestamp(&self, _ns_per_timer_tick: u64, ts_val: u16) -> Timestamp {
ts_val
}
}
trait SealedInstance { trait SealedInstance {
const MSG_RAM_OFFSET: usize; const MSG_RAM_OFFSET: usize;
fn regs() -> &'static crate::pac::can::Fdcan; fn info() -> &'static Info;
//fn regs() -> &'static crate::pac::can::Fdcan;
fn registers() -> crate::can::fd::peripheral::Registers; fn registers() -> crate::can::fd::peripheral::Registers;
fn state() -> &'static State; fn state() -> &'static State;
unsafe fn mut_state() -> &'static mut State; unsafe fn mut_state() -> &'static mut State;
@ -915,12 +986,20 @@ pub trait Instance: SealedInstance + RccPeripheral + 'static {
pub struct FdcanInstance<'a, T>(PeripheralRef<'a, T>); pub struct FdcanInstance<'a, T>(PeripheralRef<'a, T>);
macro_rules! impl_fdcan { macro_rules! impl_fdcan {
($inst:ident, $msg_ram_inst:ident, $msg_ram_offset:literal) => { ($inst:ident,
//$irq0:ident, $irq1:ident,
$msg_ram_inst:ident, $msg_ram_offset:literal) => {
impl SealedInstance for peripherals::$inst { impl SealedInstance for peripherals::$inst {
const MSG_RAM_OFFSET: usize = $msg_ram_offset; const MSG_RAM_OFFSET: usize = $msg_ram_offset;
fn regs() -> &'static crate::pac::can::Fdcan { fn info() -> &'static Info {
&crate::pac::$inst static INFO: Info = Info {
regs: Registers{regs: &crate::pac::$inst, msgram: &crate::pac::$msg_ram_inst, msg_ram_offset: $msg_ram_offset},
interrupt0: crate::_generated::peripheral_interrupts::$inst::IT0::IRQ,
_interrupt1: crate::_generated::peripheral_interrupts::$inst::IT1::IRQ,
tx_waker: crate::_generated::peripheral_interrupts::$inst::IT0::pend,
};
&INFO
} }
fn registers() -> Registers { fn registers() -> Registers {
Registers{regs: &crate::pac::$inst, msgram: &crate::pac::$msg_ram_inst, msg_ram_offset: Self::MSG_RAM_OFFSET} Registers{regs: &crate::pac::$inst, msgram: &crate::pac::$msg_ram_inst, msg_ram_offset: Self::MSG_RAM_OFFSET}
@ -939,7 +1018,7 @@ macro_rules! impl_fdcan {
if ns_per_timer_tick == 0 { if ns_per_timer_tick == 0 {
return now_embassy; return now_embassy;
} }
let cantime = { Self::regs().tscv().read().tsc() }; let cantime = { Self::registers().regs.tscv().read().tsc() };
let delta = cantime.overflowing_sub(ts_val).0 as u64; let delta = cantime.overflowing_sub(ts_val).0 as u64;
let ns = ns_per_timer_tick * delta as u64; let ns = ns_per_timer_tick * delta as u64;
now_embassy - embassy_time::Duration::from_nanos(ns) now_embassy - embassy_time::Duration::from_nanos(ns)

View File

@ -9,9 +9,7 @@ use common::*;
use embassy_executor::Spawner; use embassy_executor::Spawner;
use embassy_stm32::bind_interrupts; use embassy_stm32::bind_interrupts;
use embassy_stm32::can::filter::Mask32; use embassy_stm32::can::filter::Mask32;
use embassy_stm32::can::{ use embassy_stm32::can::{Fifo, Rx0InterruptHandler, Rx1InterruptHandler, SceInterruptHandler, TxInterruptHandler};
Can, Fifo, Rx0InterruptHandler, Rx1InterruptHandler, SceInterruptHandler, TxInterruptHandler,
};
use embassy_stm32::gpio::{Input, Pull}; use embassy_stm32::gpio::{Input, Pull};
use embassy_stm32::peripherals::CAN1; use embassy_stm32::peripherals::CAN1;
use embassy_time::Duration; use embassy_time::Duration;
@ -20,6 +18,10 @@ use {defmt_rtt as _, panic_probe as _};
mod can_common; mod can_common;
use can_common::*; use can_common::*;
type Can<'d> = embassy_stm32::can::Can<'d, embassy_stm32::peripherals::CAN1>;
type CanTx<'d> = embassy_stm32::can::CanTx<'d, embassy_stm32::peripherals::CAN1>;
type CanRx<'d> = embassy_stm32::can::CanRx<'d, embassy_stm32::peripherals::CAN1>;
bind_interrupts!(struct Irqs { bind_interrupts!(struct Irqs {
CAN1_RX0 => Rx0InterruptHandler<CAN1>; CAN1_RX0 => Rx0InterruptHandler<CAN1>;
CAN1_RX1 => Rx1InterruptHandler<CAN1>; CAN1_RX1 => Rx1InterruptHandler<CAN1>;

View File

@ -8,7 +8,8 @@ pub struct TestOptions {
pub max_buffered: u8, pub max_buffered: u8,
} }
pub async fn run_can_tests<'d, T: can::Instance>(can: &mut can::Can<'d, T>, options: &TestOptions) { pub async fn run_can_tests<'d>(can: &mut crate::Can<'d>, options: &TestOptions) {
//pub async fn run_can_tests<'d, T: can::Instance>(can: &mut can::Can<'d, T>, options: &TestOptions) {
let mut i: u8 = 0; let mut i: u8 = 0;
loop { loop {
//let tx_frame = can::frame::Frame::new_standard(0x123, &[i, 0x12 as u8, 0x34 as u8, 0x56 as u8, 0x78 as u8, 0x9A as u8, 0xBC as u8 ]).unwrap(); //let tx_frame = can::frame::Frame::new_standard(0x123, &[i, 0x12 as u8, 0x34 as u8, 0x56 as u8, 0x78 as u8, 0x9A as u8, 0xBC as u8 ]).unwrap();
@ -79,11 +80,7 @@ pub async fn run_can_tests<'d, T: can::Instance>(can: &mut can::Can<'d, T>, opti
} }
} }
pub async fn run_split_can_tests<'d, T: can::Instance>( pub async fn run_split_can_tests<'d>(tx: &mut crate::CanTx<'d>, rx: &mut crate::CanRx<'d>, options: &TestOptions) {
tx: &mut can::CanTx<'d, T>,
rx: &mut can::CanRx<'d, T>,
options: &TestOptions,
) {
for i in 0..options.max_buffered { for i in 0..options.max_buffered {
// Try filling up the RX FIFO0 buffers // Try filling up the RX FIFO0 buffers
//let tx_frame = if 0 != (i & 0x01) { //let tx_frame = if 0 != (i & 0x01) {

View File

@ -15,6 +15,10 @@ use {defmt_rtt as _, panic_probe as _};
mod can_common; mod can_common;
use can_common::*; use can_common::*;
type Can<'d> = can::Can<'d>;
type CanTx<'d> = can::CanTx<'d>;
type CanRx<'d> = can::CanRx<'d>;
bind_interrupts!(struct Irqs2 { bind_interrupts!(struct Irqs2 {
FDCAN2_IT0 => can::IT0InterruptHandler<FDCAN2>; FDCAN2_IT0 => can::IT0InterruptHandler<FDCAN2>;
FDCAN2_IT1 => can::IT1InterruptHandler<FDCAN2>; FDCAN2_IT1 => can::IT1InterruptHandler<FDCAN2>;