Merge pull request #1512 from embassy-rs/cyw43

Merge cyw43 into main repo
This commit is contained in:
Dario Nieuwenhuis 2023-05-30 21:54:32 +00:00 committed by GitHub
commit 3f90620343
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24 changed files with 4487 additions and 0 deletions

11
ci.sh
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@ -5,6 +5,10 @@ set -euo pipefail
export RUSTFLAGS=-Dwarnings
export DEFMT_LOG=trace
# needed by wifi examples
export WIFI_NETWORK=x
export WIFI_PASSWORD=x
TARGET=$(rustc -vV | sed -n 's|host: ||p')
BUILD_EXTRA=""
@ -82,6 +86,13 @@ cargo batch \
--- build --release --manifest-path embassy-stm32/Cargo.toml --target thumbv7m-none-eabi --features nightly,stm32f100c4,defmt,exti,time-driver-any,unstable-traits \
--- build --release --manifest-path embassy-stm32/Cargo.toml --target thumbv7m-none-eabi --features nightly,stm32h503rb,defmt,exti,time-driver-any,unstable-traits \
--- build --release --manifest-path embassy-stm32/Cargo.toml --target thumbv7m-none-eabi --features nightly,stm32h562ag,defmt,exti,time-driver-any,unstable-traits \
--- build --release --manifest-path cyw43/Cargo.toml --target thumbv6m-none-eabi --features ''\
--- build --release --manifest-path cyw43/Cargo.toml --target thumbv6m-none-eabi --features 'log' \
--- build --release --manifest-path cyw43/Cargo.toml --target thumbv6m-none-eabi --features 'defmt' \
--- build --release --manifest-path cyw43/Cargo.toml --target thumbv6m-none-eabi --features 'log,firmware-logs' \
--- build --release --manifest-path cyw43/Cargo.toml --target thumbv6m-none-eabi --features 'defmt,firmware-logs' \
--- build --release --manifest-path cyw43-pio/Cargo.toml --target thumbv6m-none-eabi --features '' \
--- build --release --manifest-path cyw43-pio/Cargo.toml --target thumbv6m-none-eabi --features 'overclock' \
--- build --release --manifest-path embassy-boot/nrf/Cargo.toml --target thumbv7em-none-eabi --features embassy-nrf/nrf52840,nightly \
--- build --release --manifest-path embassy-boot/nrf/Cargo.toml --target thumbv8m.main-none-eabihf --features embassy-nrf/nrf9160-ns,nightly \
--- build --release --manifest-path embassy-boot/rp/Cargo.toml --target thumbv6m-none-eabi --features nightly \

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cyw43-firmware/43439A0.bin Executable file

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cyw43-firmware/43439A0_clm.bin Executable file

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@ -0,0 +1,49 @@
Permissive Binary License
Version 1.0, July 2019
Redistribution. Redistribution and use in binary form, without
modification, are permitted provided that the following conditions are
met:
1) Redistributions must reproduce the above copyright notice and the
following disclaimer in the documentation and/or other materials
provided with the distribution.
2) Unless to the extent explicitly permitted by law, no reverse
engineering, decompilation, or disassembly of this software is
permitted.
3) Redistribution as part of a software development kit must include the
accompanying file named <20>DEPENDENCIES<45> and any dependencies listed in
that file.
4) Neither the name of the copyright holder nor the names of its
contributors may be used to endorse or promote products derived from
this software without specific prior written permission.
Limited patent license. The copyright holders (and contributors) grant a
worldwide, non-exclusive, no-charge, royalty-free patent license to
make, have made, use, offer to sell, sell, import, and otherwise
transfer this software, where such license applies only to those patent
claims licensable by the copyright holders (and contributors) that are
necessarily infringed by this software. This patent license shall not
apply to any combinations that include this software. No hardware is
licensed hereunder.
If you institute patent litigation against any entity (including a
cross-claim or counterclaim in a lawsuit) alleging that the software
itself infringes your patent(s), then your rights granted under this
license shall terminate as of the date such litigation is filed.
DISCLAIMER. THIS SOFTWARE IS PROVIDED BY THE COPYRIGHT HOLDERS AND
CONTRIBUTORS "AS IS." ANY EXPRESS OR IMPLIED WARRANTIES, INCLUDING, BUT
NOT LIMITED TO, THE IMPLIED WARRANTIES OF MERCHANTABILITY AND FITNESS
FOR A PARTICULAR PURPOSE ARE DISCLAIMED. IN NO EVENT SHALL THE COPYRIGHT
HOLDERS OR CONTRIBUTORS BE LIABLE FOR ANY DIRECT, INDIRECT, INCIDENTAL,
SPECIAL, EXEMPLARY, OR CONSEQUENTIAL DAMAGES (INCLUDING, BUT NOT LIMITED
TO, PROCUREMENT OF SUBSTITUTE GOODS OR SERVICES; LOSS OF USE, DATA, OR
PROFITS; OR BUSINESS INTERRUPTION) HOWEVER CAUSED AND ON ANY THEORY OF
LIABILITY, WHETHER IN CONTRACT, STRICT LIABILITY, OR TORT (INCLUDING
NEGLIGENCE OR OTHERWISE) ARISING IN ANY WAY OUT OF THE USE OF THIS
SOFTWARE, EVEN IF ADVISED OF THE POSSIBILITY OF SUCH DAMAGE.

5
cyw43-firmware/README.md Normal file
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@ -0,0 +1,5 @@
# WiFi firmware
Firmware obtained from https://github.com/Infineon/wifi-host-driver/tree/master/WiFi_Host_Driver/resources/firmware/COMPONENT_43439
Licensed under the [Infineon Permissive Binary License](./LICENSE-permissive-binary-license-1.0.txt)

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cyw43-pio/Cargo.toml Normal file
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@ -0,0 +1,17 @@
[package]
name = "cyw43-pio"
version = "0.1.0"
edition = "2021"
[features]
# If disabled, SPI runs at 31.25MHz
# If enabled, SPI runs at 62.5MHz, which is 25% higher than 50Mhz which is the maximum according to the CYW43439 datasheet.
overclock = []
[dependencies]
cyw43 = { version = "0.1.0", path = "../cyw43" }
embassy-rp = { version = "0.1.0", path = "../embassy-rp" }
pio-proc = "0.2"
pio = "0.2.1"
fixed = "1.23.1"
defmt = { version = "0.3", optional = true }

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cyw43-pio/src/lib.rs Normal file
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@ -0,0 +1,229 @@
#![no_std]
#![allow(incomplete_features)]
#![feature(async_fn_in_trait)]
use core::slice;
use cyw43::SpiBusCyw43;
use embassy_rp::dma::Channel;
use embassy_rp::gpio::{Drive, Level, Output, Pin, Pull, SlewRate};
use embassy_rp::pio::{Common, Config, Direction, Instance, Irq, PioPin, ShiftDirection, StateMachine};
use embassy_rp::relocate::RelocatedProgram;
use embassy_rp::{pio_instr_util, Peripheral, PeripheralRef};
use fixed::FixedU32;
use pio_proc::pio_asm;
pub struct PioSpi<'d, CS: Pin, PIO: Instance, const SM: usize, DMA> {
cs: Output<'d, CS>,
sm: StateMachine<'d, PIO, SM>,
irq: Irq<'d, PIO, 0>,
dma: PeripheralRef<'d, DMA>,
wrap_target: u8,
}
impl<'d, CS, PIO, const SM: usize, DMA> PioSpi<'d, CS, PIO, SM, DMA>
where
DMA: Channel,
CS: Pin,
PIO: Instance,
{
pub fn new<DIO, CLK>(
common: &mut Common<'d, PIO>,
mut sm: StateMachine<'d, PIO, SM>,
irq: Irq<'d, PIO, 0>,
cs: Output<'d, CS>,
dio: DIO,
clk: CLK,
dma: impl Peripheral<P = DMA> + 'd,
) -> Self
where
DIO: PioPin,
CLK: PioPin,
{
#[cfg(feature = "overclock")]
let program = pio_asm!(
".side_set 1"
".wrap_target"
// write out x-1 bits
"lp:"
"out pins, 1 side 0"
"jmp x-- lp side 1"
// switch directions
"set pindirs, 0 side 0"
"nop side 1" // necessary for clkdiv=1.
"nop side 0"
// read in y-1 bits
"lp2:"
"in pins, 1 side 1"
"jmp y-- lp2 side 0"
// wait for event and irq host
"wait 1 pin 0 side 0"
"irq 0 side 0"
".wrap"
);
#[cfg(not(feature = "overclock"))]
let program = pio_asm!(
".side_set 1"
".wrap_target"
// write out x-1 bits
"lp:"
"out pins, 1 side 0"
"jmp x-- lp side 1"
// switch directions
"set pindirs, 0 side 0"
"nop side 0"
// read in y-1 bits
"lp2:"
"in pins, 1 side 1"
"jmp y-- lp2 side 0"
// wait for event and irq host
"wait 1 pin 0 side 0"
"irq 0 side 0"
".wrap"
);
let relocated = RelocatedProgram::new(&program.program);
let mut pin_io: embassy_rp::pio::Pin<PIO> = common.make_pio_pin(dio);
pin_io.set_pull(Pull::None);
pin_io.set_schmitt(true);
pin_io.set_input_sync_bypass(true);
pin_io.set_drive_strength(Drive::_12mA);
pin_io.set_slew_rate(SlewRate::Fast);
let mut pin_clk = common.make_pio_pin(clk);
pin_clk.set_drive_strength(Drive::_12mA);
pin_clk.set_slew_rate(SlewRate::Fast);
let mut cfg = Config::default();
cfg.use_program(&common.load_program(&relocated), &[&pin_clk]);
cfg.set_out_pins(&[&pin_io]);
cfg.set_in_pins(&[&pin_io]);
cfg.set_set_pins(&[&pin_io]);
cfg.shift_out.direction = ShiftDirection::Left;
cfg.shift_out.auto_fill = true;
//cfg.shift_out.threshold = 32;
cfg.shift_in.direction = ShiftDirection::Left;
cfg.shift_in.auto_fill = true;
//cfg.shift_in.threshold = 32;
#[cfg(feature = "overclock")]
{
// 125mhz Pio => 62.5Mhz SPI Freq. 25% higher than theoretical maximum according to
// data sheet, but seems to work fine.
cfg.clock_divider = FixedU32::from_bits(0x0100);
}
#[cfg(not(feature = "overclock"))]
{
// same speed as pico-sdk, 62.5Mhz
// This is actually the fastest we can go without overclocking.
// According to data sheet, the theoretical maximum is 100Mhz Pio => 50Mhz SPI Freq.
// However, the PIO uses a fractional divider, which works by introducing jitter when
// the divider is not an integer. It does some clocks at 125mhz and others at 62.5mhz
// so that it averages out to the desired frequency of 100mhz. The 125mhz clock cycles
// violate the maximum from the data sheet.
cfg.clock_divider = FixedU32::from_bits(0x0200);
}
sm.set_config(&cfg);
sm.set_pin_dirs(Direction::Out, &[&pin_clk, &pin_io]);
sm.set_pins(Level::Low, &[&pin_clk, &pin_io]);
Self {
cs,
sm,
irq,
dma: dma.into_ref(),
wrap_target: relocated.wrap().target,
}
}
pub async fn write(&mut self, write: &[u32]) -> u32 {
self.sm.set_enable(false);
let write_bits = write.len() * 32 - 1;
let read_bits = 31;
#[cfg(feature = "defmt")]
defmt::trace!("write={} read={}", write_bits, read_bits);
unsafe {
pio_instr_util::set_x(&mut self.sm, write_bits as u32);
pio_instr_util::set_y(&mut self.sm, read_bits as u32);
pio_instr_util::set_pindir(&mut self.sm, 0b1);
pio_instr_util::exec_jmp(&mut self.sm, self.wrap_target);
}
self.sm.set_enable(true);
self.sm.tx().dma_push(self.dma.reborrow(), write).await;
let mut status = 0;
self.sm
.rx()
.dma_pull(self.dma.reborrow(), slice::from_mut(&mut status))
.await;
status
}
pub async fn cmd_read(&mut self, cmd: u32, read: &mut [u32]) -> u32 {
self.sm.set_enable(false);
let write_bits = 31;
let read_bits = read.len() * 32 + 32 - 1;
#[cfg(feature = "defmt")]
defmt::trace!("write={} read={}", write_bits, read_bits);
unsafe {
pio_instr_util::set_y(&mut self.sm, read_bits as u32);
pio_instr_util::set_x(&mut self.sm, write_bits as u32);
pio_instr_util::set_pindir(&mut self.sm, 0b1);
pio_instr_util::exec_jmp(&mut self.sm, self.wrap_target);
}
// self.cs.set_low();
self.sm.set_enable(true);
self.sm.tx().dma_push(self.dma.reborrow(), slice::from_ref(&cmd)).await;
self.sm.rx().dma_pull(self.dma.reborrow(), read).await;
let mut status = 0;
self.sm
.rx()
.dma_pull(self.dma.reborrow(), slice::from_mut(&mut status))
.await;
status
}
}
impl<'d, CS, PIO, const SM: usize, DMA> SpiBusCyw43 for PioSpi<'d, CS, PIO, SM, DMA>
where
CS: Pin,
PIO: Instance,
DMA: Channel,
{
async fn cmd_write(&mut self, write: &[u32]) -> u32 {
self.cs.set_low();
let status = self.write(write).await;
self.cs.set_high();
status
}
async fn cmd_read(&mut self, write: u32, read: &mut [u32]) -> u32 {
self.cs.set_low();
let status = self.cmd_read(write, read).await;
self.cs.set_high();
status
}
async fn wait_for_event(&mut self) {
self.irq.wait().await;
}
}

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cyw43/Cargo.toml Normal file
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@ -0,0 +1,28 @@
[package]
name = "cyw43"
version = "0.1.0"
edition = "2021"
[features]
defmt = ["dep:defmt"]
log = ["dep:log"]
# Fetch console logs from the WiFi firmware and forward them to `log` or `defmt`.
firmware-logs = []
[dependencies]
embassy-time = { version = "0.1.0", path = "../embassy-time"}
embassy-sync = { version = "0.2.0", path = "../embassy-sync"}
embassy-futures = { version = "0.1.0", path = "../embassy-futures"}
embassy-net-driver-channel = { version = "0.1.0", path = "../embassy-net-driver-channel"}
atomic-polyfill = "0.1.5"
defmt = { version = "0.3", optional = true }
log = { version = "0.4.17", optional = true }
cortex-m = "0.7.6"
cortex-m-rt = "0.7.0"
futures = { version = "0.3.17", default-features = false, features = ["async-await", "cfg-target-has-atomic", "unstable"] }
embedded-hal-1 = { package = "embedded-hal", version = "1.0.0-alpha.10" }
num_enum = { version = "0.5.7", default-features = false }

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cyw43/README.md Normal file
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# cyw43
WIP driver for the CYW43439 wifi chip, used in the Raspberry Pi Pico W. Implementation based on [Infineon/wifi-host-driver](https://github.com/Infineon/wifi-host-driver).
## Current status
Working:
- Station mode (joining an AP).
- AP mode (creating an AP)
- Scanning
- Sending and receiving Ethernet frames.
- Using the default MAC address.
- [`embassy-net`](https://embassy.dev) integration.
- RP2040 PIO driver for the nonstandard half-duplex SPI used in the Pico W.
- Using IRQ for device events
- GPIO support (for LED on the Pico W)
TODO:
- Setting a custom MAC address.
- Bus sleep (unclear what the benefit is. Is it needed for IRQs? or is it just power consumption optimization?)
## Running the examples
- `cargo install probe-rs-cli`
- `cd examples/rpi-pico-w`
### Example 1: Scan the wifi stations
- `cargo run --release --bin wifi_scan`
### Example 2: Create an access point (IP and credentials in the code)
- `cargo run --release --bin tcp_server_ap`
### Example 3: Connect to an existing network and create a server
- `WIFI_NETWORK=MyWifiNetwork WIFI_PASSWORD=MyWifiPassword cargo run --release`
After a few seconds, you should see that DHCP picks up an IP address like this
```
11.944489 DEBUG Acquired IP configuration:
11.944517 DEBUG IP address: 192.168.0.250/24
11.944620 DEBUG Default gateway: 192.168.0.33
11.944722 DEBUG DNS server 0: 192.168.0.33
```
This example implements a TCP echo server on port 1234. You can try connecting to it with:
```
nc 192.168.0.250 1234
```
Send it some data, you should see it echoed back and printed in the firmware's logs.
## License
This work is licensed under either of
- Apache License, Version 2.0 ([LICENSE-APACHE](LICENSE-APACHE) or
<http://www.apache.org/licenses/LICENSE-2.0>)
- MIT license ([LICENSE-MIT](LICENSE-MIT) or <http://opensource.org/licenses/MIT>)
at your option.

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cyw43/src/bus.rs Normal file
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use embassy_futures::yield_now;
use embassy_time::{Duration, Timer};
use embedded_hal_1::digital::OutputPin;
use futures::FutureExt;
use crate::consts::*;
use crate::slice8_mut;
/// Custom Spi Trait that _only_ supports the bus operation of the cyw43
/// Implementors are expected to hold the CS pin low during an operation.
pub trait SpiBusCyw43 {
/// Issues a write command on the bus
/// First 32 bits of `word` are expected to be a cmd word
async fn cmd_write(&mut self, write: &[u32]) -> u32;
/// Issues a read command on the bus
/// `write` is expected to be a 32 bit cmd word
/// `read` will contain the response of the device
/// Backplane reads have a response delay that produces one extra unspecified word at the beginning of `read`.
/// Callers that want to read `n` word from the backplane, have to provide a slice that is `n+1` words long.
async fn cmd_read(&mut self, write: u32, read: &mut [u32]) -> u32;
/// Wait for events from the Device. A typical implementation would wait for the IRQ pin to be high.
/// The default implementation always reports ready, resulting in active polling of the device.
async fn wait_for_event(&mut self) {
yield_now().await;
}
}
pub(crate) struct Bus<PWR, SPI> {
backplane_window: u32,
pwr: PWR,
spi: SPI,
status: u32,
}
impl<PWR, SPI> Bus<PWR, SPI>
where
PWR: OutputPin,
SPI: SpiBusCyw43,
{
pub(crate) fn new(pwr: PWR, spi: SPI) -> Self {
Self {
backplane_window: 0xAAAA_AAAA,
pwr,
spi,
status: 0,
}
}
pub async fn init(&mut self) {
// Reset
self.pwr.set_low().unwrap();
Timer::after(Duration::from_millis(20)).await;
self.pwr.set_high().unwrap();
Timer::after(Duration::from_millis(250)).await;
while self
.read32_swapped(REG_BUS_TEST_RO)
.inspect(|v| trace!("{:#x}", v))
.await
!= FEEDBEAD
{}
self.write32_swapped(REG_BUS_TEST_RW, TEST_PATTERN).await;
let val = self.read32_swapped(REG_BUS_TEST_RW).await;
trace!("{:#x}", val);
assert_eq!(val, TEST_PATTERN);
let val = self.read32_swapped(REG_BUS_CTRL).await;
trace!("{:#010b}", (val & 0xff));
// 32-bit word length, little endian (which is the default endianess).
self.write32_swapped(
REG_BUS_CTRL,
WORD_LENGTH_32 | HIGH_SPEED | INTERRUPT_HIGH | WAKE_UP | STATUS_ENABLE | INTERRUPT_WITH_STATUS,
)
.await;
let val = self.read8(FUNC_BUS, REG_BUS_CTRL).await;
trace!("{:#b}", val);
let val = self.read32(FUNC_BUS, REG_BUS_TEST_RO).await;
trace!("{:#x}", val);
assert_eq!(val, FEEDBEAD);
let val = self.read32(FUNC_BUS, REG_BUS_TEST_RW).await;
trace!("{:#x}", val);
assert_eq!(val, TEST_PATTERN);
}
pub async fn wlan_read(&mut self, buf: &mut [u32], len_in_u8: u32) {
let cmd = cmd_word(READ, INC_ADDR, FUNC_WLAN, 0, len_in_u8);
let len_in_u32 = (len_in_u8 as usize + 3) / 4;
self.status = self.spi.cmd_read(cmd, &mut buf[..len_in_u32]).await;
}
pub async fn wlan_write(&mut self, buf: &[u32]) {
let cmd = cmd_word(WRITE, INC_ADDR, FUNC_WLAN, 0, buf.len() as u32 * 4);
//TODO try to remove copy?
let mut cmd_buf = [0_u32; 513];
cmd_buf[0] = cmd;
cmd_buf[1..][..buf.len()].copy_from_slice(buf);
self.status = self.spi.cmd_write(&cmd_buf).await;
}
#[allow(unused)]
pub async fn bp_read(&mut self, mut addr: u32, mut data: &mut [u8]) {
// It seems the HW force-aligns the addr
// to 2 if data.len() >= 2
// to 4 if data.len() >= 4
// To simplify, enforce 4-align for now.
assert!(addr % 4 == 0);
// Backplane read buffer has one extra word for the response delay.
let mut buf = [0u32; BACKPLANE_MAX_TRANSFER_SIZE / 4 + 1];
while !data.is_empty() {
// Ensure transfer doesn't cross a window boundary.
let window_offs = addr & BACKPLANE_ADDRESS_MASK;
let window_remaining = BACKPLANE_WINDOW_SIZE - window_offs as usize;
let len = data.len().min(BACKPLANE_MAX_TRANSFER_SIZE).min(window_remaining);
self.backplane_set_window(addr).await;
let cmd = cmd_word(READ, INC_ADDR, FUNC_BACKPLANE, window_offs, len as u32);
// round `buf` to word boundary, add one extra word for the response delay
self.status = self.spi.cmd_read(cmd, &mut buf[..(len + 3) / 4 + 1]).await;
// when writing out the data, we skip the response-delay byte
data[..len].copy_from_slice(&slice8_mut(&mut buf[1..])[..len]);
// Advance ptr.
addr += len as u32;
data = &mut data[len..];
}
}
pub async fn bp_write(&mut self, mut addr: u32, mut data: &[u8]) {
// It seems the HW force-aligns the addr
// to 2 if data.len() >= 2
// to 4 if data.len() >= 4
// To simplify, enforce 4-align for now.
assert!(addr % 4 == 0);
let mut buf = [0u32; BACKPLANE_MAX_TRANSFER_SIZE / 4 + 1];
while !data.is_empty() {
// Ensure transfer doesn't cross a window boundary.
let window_offs = addr & BACKPLANE_ADDRESS_MASK;
let window_remaining = BACKPLANE_WINDOW_SIZE - window_offs as usize;
let len = data.len().min(BACKPLANE_MAX_TRANSFER_SIZE).min(window_remaining);
slice8_mut(&mut buf[1..])[..len].copy_from_slice(&data[..len]);
self.backplane_set_window(addr).await;
let cmd = cmd_word(WRITE, INC_ADDR, FUNC_BACKPLANE, window_offs, len as u32);
buf[0] = cmd;
self.status = self.spi.cmd_write(&buf[..(len + 3) / 4 + 1]).await;
// Advance ptr.
addr += len as u32;
data = &data[len..];
}
}
pub async fn bp_read8(&mut self, addr: u32) -> u8 {
self.backplane_readn(addr, 1).await as u8
}
pub async fn bp_write8(&mut self, addr: u32, val: u8) {
self.backplane_writen(addr, val as u32, 1).await
}
pub async fn bp_read16(&mut self, addr: u32) -> u16 {
self.backplane_readn(addr, 2).await as u16
}
#[allow(unused)]
pub async fn bp_write16(&mut self, addr: u32, val: u16) {
self.backplane_writen(addr, val as u32, 2).await
}
#[allow(unused)]
pub async fn bp_read32(&mut self, addr: u32) -> u32 {
self.backplane_readn(addr, 4).await
}
pub async fn bp_write32(&mut self, addr: u32, val: u32) {
self.backplane_writen(addr, val, 4).await
}
async fn backplane_readn(&mut self, addr: u32, len: u32) -> u32 {
self.backplane_set_window(addr).await;
let mut bus_addr = addr & BACKPLANE_ADDRESS_MASK;
if len == 4 {
bus_addr |= BACKPLANE_ADDRESS_32BIT_FLAG
}
self.readn(FUNC_BACKPLANE, bus_addr, len).await
}
async fn backplane_writen(&mut self, addr: u32, val: u32, len: u32) {
self.backplane_set_window(addr).await;
let mut bus_addr = addr & BACKPLANE_ADDRESS_MASK;
if len == 4 {
bus_addr |= BACKPLANE_ADDRESS_32BIT_FLAG
}
self.writen(FUNC_BACKPLANE, bus_addr, val, len).await
}
async fn backplane_set_window(&mut self, addr: u32) {
let new_window = addr & !BACKPLANE_ADDRESS_MASK;
if (new_window >> 24) as u8 != (self.backplane_window >> 24) as u8 {
self.write8(
FUNC_BACKPLANE,
REG_BACKPLANE_BACKPLANE_ADDRESS_HIGH,
(new_window >> 24) as u8,
)
.await;
}
if (new_window >> 16) as u8 != (self.backplane_window >> 16) as u8 {
self.write8(
FUNC_BACKPLANE,
REG_BACKPLANE_BACKPLANE_ADDRESS_MID,
(new_window >> 16) as u8,
)
.await;
}
if (new_window >> 8) as u8 != (self.backplane_window >> 8) as u8 {
self.write8(
FUNC_BACKPLANE,
REG_BACKPLANE_BACKPLANE_ADDRESS_LOW,
(new_window >> 8) as u8,
)
.await;
}
self.backplane_window = new_window;
}
pub async fn read8(&mut self, func: u32, addr: u32) -> u8 {
self.readn(func, addr, 1).await as u8
}
pub async fn write8(&mut self, func: u32, addr: u32, val: u8) {
self.writen(func, addr, val as u32, 1).await
}
pub async fn read16(&mut self, func: u32, addr: u32) -> u16 {
self.readn(func, addr, 2).await as u16
}
#[allow(unused)]
pub async fn write16(&mut self, func: u32, addr: u32, val: u16) {
self.writen(func, addr, val as u32, 2).await
}
pub async fn read32(&mut self, func: u32, addr: u32) -> u32 {
self.readn(func, addr, 4).await
}
#[allow(unused)]
pub async fn write32(&mut self, func: u32, addr: u32, val: u32) {
self.writen(func, addr, val, 4).await
}
async fn readn(&mut self, func: u32, addr: u32, len: u32) -> u32 {
let cmd = cmd_word(READ, INC_ADDR, func, addr, len);
let mut buf = [0; 2];
// if we are reading from the backplane, we need an extra word for the response delay
let len = if func == FUNC_BACKPLANE { 2 } else { 1 };
self.status = self.spi.cmd_read(cmd, &mut buf[..len]).await;
// if we read from the backplane, the result is in the second word, after the response delay
if func == FUNC_BACKPLANE {
buf[1]
} else {
buf[0]
}
}
async fn writen(&mut self, func: u32, addr: u32, val: u32, len: u32) {
let cmd = cmd_word(WRITE, INC_ADDR, func, addr, len);
self.status = self.spi.cmd_write(&[cmd, val]).await;
}
async fn read32_swapped(&mut self, addr: u32) -> u32 {
let cmd = cmd_word(READ, INC_ADDR, FUNC_BUS, addr, 4);
let cmd = swap16(cmd);
let mut buf = [0; 1];
self.status = self.spi.cmd_read(cmd, &mut buf).await;
swap16(buf[0])
}
async fn write32_swapped(&mut self, addr: u32, val: u32) {
let cmd = cmd_word(WRITE, INC_ADDR, FUNC_BUS, addr, 4);
let buf = [swap16(cmd), swap16(val)];
self.status = self.spi.cmd_write(&buf).await;
}
pub async fn wait_for_event(&mut self) {
self.spi.wait_for_event().await;
}
pub fn status(&self) -> u32 {
self.status
}
}
fn swap16(x: u32) -> u32 {
x.rotate_left(16)
}
fn cmd_word(write: bool, incr: bool, func: u32, addr: u32, len: u32) -> u32 {
(write as u32) << 31 | (incr as u32) << 30 | (func & 0b11) << 28 | (addr & 0x1FFFF) << 11 | (len & 0x7FF)
}

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#![allow(unused)]
pub(crate) const FUNC_BUS: u32 = 0;
pub(crate) const FUNC_BACKPLANE: u32 = 1;
pub(crate) const FUNC_WLAN: u32 = 2;
pub(crate) const FUNC_BT: u32 = 3;
pub(crate) const REG_BUS_CTRL: u32 = 0x0;
pub(crate) const REG_BUS_INTERRUPT: u32 = 0x04; // 16 bits - Interrupt status
pub(crate) const REG_BUS_INTERRUPT_ENABLE: u32 = 0x06; // 16 bits - Interrupt mask
pub(crate) const REG_BUS_STATUS: u32 = 0x8;
pub(crate) const REG_BUS_TEST_RO: u32 = 0x14;
pub(crate) const REG_BUS_TEST_RW: u32 = 0x18;
pub(crate) const REG_BUS_RESP_DELAY: u32 = 0x1c;
pub(crate) const WORD_LENGTH_32: u32 = 0x1;
pub(crate) const HIGH_SPEED: u32 = 0x10;
pub(crate) const INTERRUPT_HIGH: u32 = 1 << 5;
pub(crate) const WAKE_UP: u32 = 1 << 7;
pub(crate) const STATUS_ENABLE: u32 = 1 << 16;
pub(crate) const INTERRUPT_WITH_STATUS: u32 = 1 << 17;
// SPI_STATUS_REGISTER bits
pub(crate) const STATUS_DATA_NOT_AVAILABLE: u32 = 0x00000001;
pub(crate) const STATUS_UNDERFLOW: u32 = 0x00000002;
pub(crate) const STATUS_OVERFLOW: u32 = 0x00000004;
pub(crate) const STATUS_F2_INTR: u32 = 0x00000008;
pub(crate) const STATUS_F3_INTR: u32 = 0x00000010;
pub(crate) const STATUS_F2_RX_READY: u32 = 0x00000020;
pub(crate) const STATUS_F3_RX_READY: u32 = 0x00000040;
pub(crate) const STATUS_HOST_CMD_DATA_ERR: u32 = 0x00000080;
pub(crate) const STATUS_F2_PKT_AVAILABLE: u32 = 0x00000100;
pub(crate) const STATUS_F2_PKT_LEN_MASK: u32 = 0x000FFE00;
pub(crate) const STATUS_F2_PKT_LEN_SHIFT: u32 = 9;
pub(crate) const STATUS_F3_PKT_AVAILABLE: u32 = 0x00100000;
pub(crate) const STATUS_F3_PKT_LEN_MASK: u32 = 0xFFE00000;
pub(crate) const STATUS_F3_PKT_LEN_SHIFT: u32 = 21;
pub(crate) const REG_BACKPLANE_GPIO_SELECT: u32 = 0x10005;
pub(crate) const REG_BACKPLANE_GPIO_OUTPUT: u32 = 0x10006;
pub(crate) const REG_BACKPLANE_GPIO_ENABLE: u32 = 0x10007;
pub(crate) const REG_BACKPLANE_FUNCTION2_WATERMARK: u32 = 0x10008;
pub(crate) const REG_BACKPLANE_DEVICE_CONTROL: u32 = 0x10009;
pub(crate) const REG_BACKPLANE_BACKPLANE_ADDRESS_LOW: u32 = 0x1000A;
pub(crate) const REG_BACKPLANE_BACKPLANE_ADDRESS_MID: u32 = 0x1000B;
pub(crate) const REG_BACKPLANE_BACKPLANE_ADDRESS_HIGH: u32 = 0x1000C;
pub(crate) const REG_BACKPLANE_FRAME_CONTROL: u32 = 0x1000D;
pub(crate) const REG_BACKPLANE_CHIP_CLOCK_CSR: u32 = 0x1000E;
pub(crate) const REG_BACKPLANE_PULL_UP: u32 = 0x1000F;
pub(crate) const REG_BACKPLANE_READ_FRAME_BC_LOW: u32 = 0x1001B;
pub(crate) const REG_BACKPLANE_READ_FRAME_BC_HIGH: u32 = 0x1001C;
pub(crate) const REG_BACKPLANE_WAKEUP_CTRL: u32 = 0x1001E;
pub(crate) const REG_BACKPLANE_SLEEP_CSR: u32 = 0x1001F;
pub(crate) const BACKPLANE_WINDOW_SIZE: usize = 0x8000;
pub(crate) const BACKPLANE_ADDRESS_MASK: u32 = 0x7FFF;
pub(crate) const BACKPLANE_ADDRESS_32BIT_FLAG: u32 = 0x08000;
pub(crate) const BACKPLANE_MAX_TRANSFER_SIZE: usize = 64;
// Active Low Power (ALP) clock constants
pub(crate) const BACKPLANE_ALP_AVAIL_REQ: u8 = 0x08;
pub(crate) const BACKPLANE_ALP_AVAIL: u8 = 0x40;
// Broadcom AMBA (Advanced Microcontroller Bus Architecture) Interconnect
// (AI) pub (crate) constants
pub(crate) const AI_IOCTRL_OFFSET: u32 = 0x408;
pub(crate) const AI_IOCTRL_BIT_FGC: u8 = 0x0002;
pub(crate) const AI_IOCTRL_BIT_CLOCK_EN: u8 = 0x0001;
pub(crate) const AI_IOCTRL_BIT_CPUHALT: u8 = 0x0020;
pub(crate) const AI_RESETCTRL_OFFSET: u32 = 0x800;
pub(crate) const AI_RESETCTRL_BIT_RESET: u8 = 1;
pub(crate) const AI_RESETSTATUS_OFFSET: u32 = 0x804;
pub(crate) const TEST_PATTERN: u32 = 0x12345678;
pub(crate) const FEEDBEAD: u32 = 0xFEEDBEAD;
// SPI_INTERRUPT_REGISTER and SPI_INTERRUPT_ENABLE_REGISTER Bits
pub(crate) const IRQ_DATA_UNAVAILABLE: u16 = 0x0001; // Requested data not available; Clear by writing a "1"
pub(crate) const IRQ_F2_F3_FIFO_RD_UNDERFLOW: u16 = 0x0002;
pub(crate) const IRQ_F2_F3_FIFO_WR_OVERFLOW: u16 = 0x0004;
pub(crate) const IRQ_COMMAND_ERROR: u16 = 0x0008; // Cleared by writing 1
pub(crate) const IRQ_DATA_ERROR: u16 = 0x0010; // Cleared by writing 1
pub(crate) const IRQ_F2_PACKET_AVAILABLE: u16 = 0x0020;
pub(crate) const IRQ_F3_PACKET_AVAILABLE: u16 = 0x0040;
pub(crate) const IRQ_F1_OVERFLOW: u16 = 0x0080; // Due to last write. Bkplane has pending write requests
pub(crate) const IRQ_MISC_INTR0: u16 = 0x0100;
pub(crate) const IRQ_MISC_INTR1: u16 = 0x0200;
pub(crate) const IRQ_MISC_INTR2: u16 = 0x0400;
pub(crate) const IRQ_MISC_INTR3: u16 = 0x0800;
pub(crate) const IRQ_MISC_INTR4: u16 = 0x1000;
pub(crate) const IRQ_F1_INTR: u16 = 0x2000;
pub(crate) const IRQ_F2_INTR: u16 = 0x4000;
pub(crate) const IRQ_F3_INTR: u16 = 0x8000;
pub(crate) const IOCTL_CMD_UP: u32 = 2;
pub(crate) const IOCTL_CMD_DOWN: u32 = 3;
pub(crate) const IOCTL_CMD_SET_SSID: u32 = 26;
pub(crate) const IOCTL_CMD_SET_CHANNEL: u32 = 30;
pub(crate) const IOCTL_CMD_ANTDIV: u32 = 64;
pub(crate) const IOCTL_CMD_SET_AP: u32 = 118;
pub(crate) const IOCTL_CMD_SET_VAR: u32 = 263;
pub(crate) const IOCTL_CMD_GET_VAR: u32 = 262;
pub(crate) const IOCTL_CMD_SET_PASSPHRASE: u32 = 268;
pub(crate) const CHANNEL_TYPE_CONTROL: u8 = 0;
pub(crate) const CHANNEL_TYPE_EVENT: u8 = 1;
pub(crate) const CHANNEL_TYPE_DATA: u8 = 2;
// CYW_SPID command structure constants.
pub(crate) const WRITE: bool = true;
pub(crate) const READ: bool = false;
pub(crate) const INC_ADDR: bool = true;
pub(crate) const FIXED_ADDR: bool = false;
pub(crate) const AES_ENABLED: u32 = 0x0004;
pub(crate) const WPA2_SECURITY: u32 = 0x00400000;
pub(crate) const MIN_PSK_LEN: usize = 8;
pub(crate) const MAX_PSK_LEN: usize = 64;
// Security type (authentication and encryption types are combined using bit mask)
#[allow(non_camel_case_types)]
#[derive(Copy, Clone, PartialEq)]
#[repr(u32)]
pub(crate) enum Security {
OPEN = 0,
WPA2_AES_PSK = WPA2_SECURITY | AES_ENABLED,
}
#[allow(non_camel_case_types)]
#[derive(Copy, Clone)]
#[repr(u8)]
pub enum EStatus {
/// operation was successful
SUCCESS = 0,
/// operation failed
FAIL = 1,
/// operation timed out
TIMEOUT = 2,
/// failed due to no matching network found
NO_NETWORKS = 3,
/// operation was aborted
ABORT = 4,
/// protocol failure: packet not ack'd
NO_ACK = 5,
/// AUTH or ASSOC packet was unsolicited
UNSOLICITED = 6,
/// attempt to assoc to an auto auth configuration
ATTEMPT = 7,
/// scan results are incomplete
PARTIAL = 8,
/// scan aborted by another scan
NEWSCAN = 9,
/// scan aborted due to assoc in progress
NEWASSOC = 10,
/// 802.11h quiet period started
_11HQUIET = 11,
/// user disabled scanning (WLC_SET_SCANSUPPRESS)
SUPPRESS = 12,
/// no allowable channels to scan
NOCHANS = 13,
/// scan aborted due to CCX fast roam
CCXFASTRM = 14,
/// abort channel select
CS_ABORT = 15,
}
impl PartialEq<EStatus> for u32 {
fn eq(&self, other: &EStatus) -> bool {
*self == *other as Self
}
}
#[allow(dead_code)]
pub(crate) struct FormatStatus(pub u32);
#[cfg(feature = "defmt")]
impl defmt::Format for FormatStatus {
fn format(&self, fmt: defmt::Formatter) {
macro_rules! implm {
($($name:ident),*) => {
$(
if self.0 & $name > 0 {
defmt::write!(fmt, " | {}", &stringify!($name)[7..]);
}
)*
};
}
implm!(
STATUS_DATA_NOT_AVAILABLE,
STATUS_UNDERFLOW,
STATUS_OVERFLOW,
STATUS_F2_INTR,
STATUS_F3_INTR,
STATUS_F2_RX_READY,
STATUS_F3_RX_READY,
STATUS_HOST_CMD_DATA_ERR,
STATUS_F2_PKT_AVAILABLE,
STATUS_F3_PKT_AVAILABLE
);
}
}
#[cfg(feature = "log")]
impl core::fmt::Debug for FormatStatus {
fn fmt(&self, fmt: &mut core::fmt::Formatter) -> core::fmt::Result {
macro_rules! implm {
($($name:ident),*) => {
$(
if self.0 & $name > 0 {
core::write!(fmt, " | {}", &stringify!($name)[7..])?;
}
)*
};
}
implm!(
STATUS_DATA_NOT_AVAILABLE,
STATUS_UNDERFLOW,
STATUS_OVERFLOW,
STATUS_F2_INTR,
STATUS_F3_INTR,
STATUS_F2_RX_READY,
STATUS_F3_RX_READY,
STATUS_HOST_CMD_DATA_ERR,
STATUS_F2_PKT_AVAILABLE,
STATUS_F3_PKT_AVAILABLE
);
Ok(())
}
}
#[cfg(feature = "log")]
impl core::fmt::Display for FormatStatus {
fn fmt(&self, f: &mut core::fmt::Formatter<'_>) -> core::fmt::Result {
core::fmt::Debug::fmt(self, f)
}
}
#[allow(dead_code)]
pub(crate) struct FormatInterrupt(pub u16);
#[cfg(feature = "defmt")]
impl defmt::Format for FormatInterrupt {
fn format(&self, fmt: defmt::Formatter) {
macro_rules! implm {
($($name:ident),*) => {
$(
if self.0 & $name > 0 {
defmt::write!(fmt, " | {}", &stringify!($name)[4..]);
}
)*
};
}
implm!(
IRQ_DATA_UNAVAILABLE,
IRQ_F2_F3_FIFO_RD_UNDERFLOW,
IRQ_F2_F3_FIFO_WR_OVERFLOW,
IRQ_COMMAND_ERROR,
IRQ_DATA_ERROR,
IRQ_F2_PACKET_AVAILABLE,
IRQ_F3_PACKET_AVAILABLE,
IRQ_F1_OVERFLOW,
IRQ_MISC_INTR0,
IRQ_MISC_INTR1,
IRQ_MISC_INTR2,
IRQ_MISC_INTR3,
IRQ_MISC_INTR4,
IRQ_F1_INTR,
IRQ_F2_INTR,
IRQ_F3_INTR
);
}
}
#[cfg(feature = "log")]
impl core::fmt::Debug for FormatInterrupt {
fn fmt(&self, fmt: &mut core::fmt::Formatter) -> core::fmt::Result {
macro_rules! implm {
($($name:ident),*) => {
$(
if self.0 & $name > 0 {
core::write!(fmt, " | {}", &stringify!($name)[7..])?;
}
)*
};
}
implm!(
IRQ_DATA_UNAVAILABLE,
IRQ_F2_F3_FIFO_RD_UNDERFLOW,
IRQ_F2_F3_FIFO_WR_OVERFLOW,
IRQ_COMMAND_ERROR,
IRQ_DATA_ERROR,
IRQ_F2_PACKET_AVAILABLE,
IRQ_F3_PACKET_AVAILABLE,
IRQ_F1_OVERFLOW,
IRQ_MISC_INTR0,
IRQ_MISC_INTR1,
IRQ_MISC_INTR2,
IRQ_MISC_INTR3,
IRQ_MISC_INTR4,
IRQ_F1_INTR,
IRQ_F2_INTR,
IRQ_F3_INTR
);
Ok(())
}
}
#[cfg(feature = "log")]
impl core::fmt::Display for FormatInterrupt {
fn fmt(&self, f: &mut core::fmt::Formatter<'_>) -> core::fmt::Result {
core::fmt::Debug::fmt(self, f)
}
}

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use core::cmp::{max, min};
use ch::driver::LinkState;
use embassy_net_driver_channel as ch;
use embassy_time::{Duration, Timer};
pub use crate::bus::SpiBusCyw43;
use crate::consts::*;
use crate::events::{Event, EventSubscriber, Events};
use crate::fmt::Bytes;
use crate::ioctl::{IoctlState, IoctlType};
use crate::structs::*;
use crate::{countries, events, PowerManagementMode};
#[derive(Debug)]
pub struct Error {
pub status: u32,
}
pub struct Control<'a> {
state_ch: ch::StateRunner<'a>,
events: &'a Events,
ioctl_state: &'a IoctlState,
}
impl<'a> Control<'a> {
pub(crate) fn new(state_ch: ch::StateRunner<'a>, event_sub: &'a Events, ioctl_state: &'a IoctlState) -> Self {
Self {
state_ch,
events: event_sub,
ioctl_state,
}
}
pub async fn init(&mut self, clm: &[u8]) {
const CHUNK_SIZE: usize = 1024;
debug!("Downloading CLM...");
let mut offs = 0;
for chunk in clm.chunks(CHUNK_SIZE) {
let mut flag = DOWNLOAD_FLAG_HANDLER_VER;
if offs == 0 {
flag |= DOWNLOAD_FLAG_BEGIN;
}
offs += chunk.len();
if offs == clm.len() {
flag |= DOWNLOAD_FLAG_END;
}
let header = DownloadHeader {
flag,
dload_type: DOWNLOAD_TYPE_CLM,
len: chunk.len() as _,
crc: 0,
};
let mut buf = [0; 8 + 12 + CHUNK_SIZE];
buf[0..8].copy_from_slice(b"clmload\x00");
buf[8..20].copy_from_slice(&header.to_bytes());
buf[20..][..chunk.len()].copy_from_slice(&chunk);
self.ioctl(IoctlType::Set, IOCTL_CMD_SET_VAR, 0, &mut buf[..8 + 12 + chunk.len()])
.await;
}
// check clmload ok
assert_eq!(self.get_iovar_u32("clmload_status").await, 0);
debug!("Configuring misc stuff...");
// Disable tx gloming which transfers multiple packets in one request.
// 'glom' is short for "conglomerate" which means "gather together into
// a compact mass".
self.set_iovar_u32("bus:txglom", 0).await;
self.set_iovar_u32("apsta", 1).await;
// read MAC addr.
let mut mac_addr = [0; 6];
assert_eq!(self.get_iovar("cur_etheraddr", &mut mac_addr).await, 6);
debug!("mac addr: {:02x}", Bytes(&mac_addr));
let country = countries::WORLD_WIDE_XX;
let country_info = CountryInfo {
country_abbrev: [country.code[0], country.code[1], 0, 0],
country_code: [country.code[0], country.code[1], 0, 0],
rev: if country.rev == 0 { -1 } else { country.rev as _ },
};
self.set_iovar("country", &country_info.to_bytes()).await;
// set country takes some time, next ioctls fail if we don't wait.
Timer::after(Duration::from_millis(100)).await;
// Set antenna to chip antenna
self.ioctl_set_u32(IOCTL_CMD_ANTDIV, 0, 0).await;
self.set_iovar_u32("bus:txglom", 0).await;
Timer::after(Duration::from_millis(100)).await;
//self.set_iovar_u32("apsta", 1).await; // this crashes, also we already did it before...??
//Timer::after(Duration::from_millis(100)).await;
self.set_iovar_u32("ampdu_ba_wsize", 8).await;
Timer::after(Duration::from_millis(100)).await;
self.set_iovar_u32("ampdu_mpdu", 4).await;
Timer::after(Duration::from_millis(100)).await;
//self.set_iovar_u32("ampdu_rx_factor", 0).await; // this crashes
//Timer::after(Duration::from_millis(100)).await;
// evts
let mut evts = EventMask {
iface: 0,
events: [0xFF; 24],
};
// Disable spammy uninteresting events.
evts.unset(Event::RADIO);
evts.unset(Event::IF);
evts.unset(Event::PROBREQ_MSG);
evts.unset(Event::PROBREQ_MSG_RX);
evts.unset(Event::PROBRESP_MSG);
evts.unset(Event::PROBRESP_MSG);
evts.unset(Event::ROAM);
self.set_iovar("bsscfg:event_msgs", &evts.to_bytes()).await;
Timer::after(Duration::from_millis(100)).await;
// set wifi up
self.ioctl(IoctlType::Set, IOCTL_CMD_UP, 0, &mut []).await;
Timer::after(Duration::from_millis(100)).await;
self.ioctl_set_u32(110, 0, 1).await; // SET_GMODE = auto
self.ioctl_set_u32(142, 0, 0).await; // SET_BAND = any
Timer::after(Duration::from_millis(100)).await;
self.state_ch.set_ethernet_address(mac_addr);
debug!("INIT DONE");
}
pub async fn set_power_management(&mut self, mode: PowerManagementMode) {
// power save mode
let mode_num = mode.mode();
if mode_num == 2 {
self.set_iovar_u32("pm2_sleep_ret", mode.sleep_ret_ms() as u32).await;
self.set_iovar_u32("bcn_li_bcn", mode.beacon_period() as u32).await;
self.set_iovar_u32("bcn_li_dtim", mode.dtim_period() as u32).await;
self.set_iovar_u32("assoc_listen", mode.assoc() as u32).await;
}
self.ioctl_set_u32(86, 0, mode_num).await;
}
pub async fn join_open(&mut self, ssid: &str) -> Result<(), Error> {
self.set_iovar_u32("ampdu_ba_wsize", 8).await;
self.ioctl_set_u32(134, 0, 0).await; // wsec = open
self.set_iovar_u32x2("bsscfg:sup_wpa", 0, 0).await;
self.ioctl_set_u32(20, 0, 1).await; // set_infra = 1
self.ioctl_set_u32(22, 0, 0).await; // set_auth = open (0)
let mut i = SsidInfo {
len: ssid.len() as _,
ssid: [0; 32],
};
i.ssid[..ssid.len()].copy_from_slice(ssid.as_bytes());
self.wait_for_join(i).await
}
pub async fn join_wpa2(&mut self, ssid: &str, passphrase: &str) -> Result<(), Error> {
self.set_iovar_u32("ampdu_ba_wsize", 8).await;
self.ioctl_set_u32(134, 0, 4).await; // wsec = wpa2
self.set_iovar_u32x2("bsscfg:sup_wpa", 0, 1).await;
self.set_iovar_u32x2("bsscfg:sup_wpa2_eapver", 0, 0xFFFF_FFFF).await;
self.set_iovar_u32x2("bsscfg:sup_wpa_tmo", 0, 2500).await;
Timer::after(Duration::from_millis(100)).await;
let mut pfi = PassphraseInfo {
len: passphrase.len() as _,
flags: 1,
passphrase: [0; 64],
};
pfi.passphrase[..passphrase.len()].copy_from_slice(passphrase.as_bytes());
self.ioctl(IoctlType::Set, IOCTL_CMD_SET_PASSPHRASE, 0, &mut pfi.to_bytes())
.await; // WLC_SET_WSEC_PMK
self.ioctl_set_u32(20, 0, 1).await; // set_infra = 1
self.ioctl_set_u32(22, 0, 0).await; // set_auth = 0 (open)
self.ioctl_set_u32(165, 0, 0x80).await; // set_wpa_auth
let mut i = SsidInfo {
len: ssid.len() as _,
ssid: [0; 32],
};
i.ssid[..ssid.len()].copy_from_slice(ssid.as_bytes());
self.wait_for_join(i).await
}
async fn wait_for_join(&mut self, i: SsidInfo) -> Result<(), Error> {
self.events.mask.enable(&[Event::SET_SSID, Event::AUTH]);
let mut subscriber = self.events.queue.subscriber().unwrap();
// the actual join operation starts here
// we make sure to enable events before so we don't miss any
// set_ssid
self.ioctl(IoctlType::Set, IOCTL_CMD_SET_SSID, 0, &mut i.to_bytes())
.await;
// to complete the join, we wait for a SET_SSID event
// we also save the AUTH status for the user, it may be interesting
let mut auth_status = 0;
let status = loop {
let msg = subscriber.next_message_pure().await;
if msg.header.event_type == Event::AUTH && msg.header.status != EStatus::SUCCESS {
auth_status = msg.header.status;
} else if msg.header.event_type == Event::SET_SSID {
// join operation ends with SET_SSID event
break msg.header.status;
}
};
self.events.mask.disable_all();
if status == EStatus::SUCCESS {
// successful join
self.state_ch.set_link_state(LinkState::Up);
debug!("JOINED");
Ok(())
} else {
warn!("JOIN failed with status={} auth={}", status, auth_status);
Err(Error { status })
}
}
pub async fn gpio_set(&mut self, gpio_n: u8, gpio_en: bool) {
assert!(gpio_n < 3);
self.set_iovar_u32x2("gpioout", 1 << gpio_n, if gpio_en { 1 << gpio_n } else { 0 })
.await
}
pub async fn start_ap_open(&mut self, ssid: &str, channel: u8) {
self.start_ap(ssid, "", Security::OPEN, channel).await;
}
pub async fn start_ap_wpa2(&mut self, ssid: &str, passphrase: &str, channel: u8) {
self.start_ap(ssid, passphrase, Security::WPA2_AES_PSK, channel).await;
}
async fn start_ap(&mut self, ssid: &str, passphrase: &str, security: Security, channel: u8) {
if security != Security::OPEN
&& (passphrase.as_bytes().len() < MIN_PSK_LEN || passphrase.as_bytes().len() > MAX_PSK_LEN)
{
panic!("Passphrase is too short or too long");
}
// Temporarily set wifi down
self.ioctl(IoctlType::Set, IOCTL_CMD_DOWN, 0, &mut []).await;
// Turn off APSTA mode
self.set_iovar_u32("apsta", 0).await;
// Set wifi up again
self.ioctl(IoctlType::Set, IOCTL_CMD_UP, 0, &mut []).await;
// Turn on AP mode
self.ioctl_set_u32(IOCTL_CMD_SET_AP, 0, 1).await;
// Set SSID
let mut i = SsidInfoWithIndex {
index: 0,
ssid_info: SsidInfo {
len: ssid.as_bytes().len() as _,
ssid: [0; 32],
},
};
i.ssid_info.ssid[..ssid.as_bytes().len()].copy_from_slice(ssid.as_bytes());
self.set_iovar("bsscfg:ssid", &i.to_bytes()).await;
// Set channel number
self.ioctl_set_u32(IOCTL_CMD_SET_CHANNEL, 0, channel as u32).await;
// Set security
self.set_iovar_u32x2("bsscfg:wsec", 0, (security as u32) & 0xFF).await;
if security != Security::OPEN {
self.set_iovar_u32x2("bsscfg:wpa_auth", 0, 0x0084).await; // wpa_auth = WPA2_AUTH_PSK | WPA_AUTH_PSK
Timer::after(Duration::from_millis(100)).await;
// Set passphrase
let mut pfi = PassphraseInfo {
len: passphrase.as_bytes().len() as _,
flags: 1, // WSEC_PASSPHRASE
passphrase: [0; 64],
};
pfi.passphrase[..passphrase.as_bytes().len()].copy_from_slice(passphrase.as_bytes());
self.ioctl(IoctlType::Set, IOCTL_CMD_SET_PASSPHRASE, 0, &mut pfi.to_bytes())
.await;
}
// Change mutlicast rate from 1 Mbps to 11 Mbps
self.set_iovar_u32("2g_mrate", 11000000 / 500000).await;
// Start AP
self.set_iovar_u32x2("bss", 0, 1).await; // bss = BSS_UP
}
async fn set_iovar_u32x2(&mut self, name: &str, val1: u32, val2: u32) {
let mut buf = [0; 8];
buf[0..4].copy_from_slice(&val1.to_le_bytes());
buf[4..8].copy_from_slice(&val2.to_le_bytes());
self.set_iovar(name, &buf).await
}
async fn set_iovar_u32(&mut self, name: &str, val: u32) {
self.set_iovar(name, &val.to_le_bytes()).await
}
async fn get_iovar_u32(&mut self, name: &str) -> u32 {
let mut buf = [0; 4];
let len = self.get_iovar(name, &mut buf).await;
assert_eq!(len, 4);
u32::from_le_bytes(buf)
}
async fn set_iovar(&mut self, name: &str, val: &[u8]) {
self.set_iovar_v::<64>(name, val).await
}
async fn set_iovar_v<const BUFSIZE: usize>(&mut self, name: &str, val: &[u8]) {
debug!("set {} = {:02x}", name, Bytes(val));
let mut buf = [0; BUFSIZE];
buf[..name.len()].copy_from_slice(name.as_bytes());
buf[name.len()] = 0;
buf[name.len() + 1..][..val.len()].copy_from_slice(val);
let total_len = name.len() + 1 + val.len();
self.ioctl(IoctlType::Set, IOCTL_CMD_SET_VAR, 0, &mut buf[..total_len])
.await;
}
// TODO this is not really working, it always returns all zeros.
async fn get_iovar(&mut self, name: &str, res: &mut [u8]) -> usize {
debug!("get {}", name);
let mut buf = [0; 64];
buf[..name.len()].copy_from_slice(name.as_bytes());
buf[name.len()] = 0;
let total_len = max(name.len() + 1, res.len());
let res_len = self
.ioctl(IoctlType::Get, IOCTL_CMD_GET_VAR, 0, &mut buf[..total_len])
.await;
let out_len = min(res.len(), res_len);
res[..out_len].copy_from_slice(&buf[..out_len]);
out_len
}
async fn ioctl_set_u32(&mut self, cmd: u32, iface: u32, val: u32) {
let mut buf = val.to_le_bytes();
self.ioctl(IoctlType::Set, cmd, iface, &mut buf).await;
}
async fn ioctl(&mut self, kind: IoctlType, cmd: u32, iface: u32, buf: &mut [u8]) -> usize {
struct CancelOnDrop<'a>(&'a IoctlState);
impl CancelOnDrop<'_> {
fn defuse(self) {
core::mem::forget(self);
}
}
impl Drop for CancelOnDrop<'_> {
fn drop(&mut self) {
self.0.cancel_ioctl();
}
}
let ioctl = CancelOnDrop(self.ioctl_state);
ioctl.0.do_ioctl(kind, cmd, iface, buf).await;
let resp_len = ioctl.0.wait_complete().await;
ioctl.defuse();
resp_len
}
/// Start a wifi scan
///
/// Returns a `Stream` of networks found by the device
///
/// # Note
/// Device events are currently implemented using a bounded queue.
/// To not miss any events, you should make sure to always await the stream.
pub async fn scan(&mut self) -> Scanner<'_> {
const SCANTYPE_PASSIVE: u8 = 1;
let scan_params = ScanParams {
version: 1,
action: 1,
sync_id: 1,
ssid_len: 0,
ssid: [0; 32],
bssid: [0xff; 6],
bss_type: 2,
scan_type: SCANTYPE_PASSIVE,
nprobes: !0,
active_time: !0,
passive_time: !0,
home_time: !0,
channel_num: 0,
channel_list: [0; 1],
};
self.events.mask.enable(&[Event::ESCAN_RESULT]);
let subscriber = self.events.queue.subscriber().unwrap();
self.set_iovar_v::<256>("escan", &scan_params.to_bytes()).await;
Scanner {
subscriber,
events: &self.events,
}
}
}
pub struct Scanner<'a> {
subscriber: EventSubscriber<'a>,
events: &'a Events,
}
impl Scanner<'_> {
/// wait for the next found network
pub async fn next(&mut self) -> Option<BssInfo> {
let event = self.subscriber.next_message_pure().await;
if event.header.status != EStatus::PARTIAL {
self.events.mask.disable_all();
return None;
}
if let events::Payload::BssInfo(bss) = event.payload {
Some(bss)
} else {
None
}
}
}
impl Drop for Scanner<'_> {
fn drop(&mut self) {
self.events.mask.disable_all();
}
}

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cyw43/src/countries.rs Normal file
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@ -0,0 +1,481 @@
#![allow(unused)]
pub struct Country {
pub code: [u8; 2],
pub rev: u16,
}
/// AF Afghanistan
pub const AFGHANISTAN: Country = Country { code: *b"AF", rev: 0 };
/// AL Albania
pub const ALBANIA: Country = Country { code: *b"AL", rev: 0 };
/// DZ Algeria
pub const ALGERIA: Country = Country { code: *b"DZ", rev: 0 };
/// AS American_Samoa
pub const AMERICAN_SAMOA: Country = Country { code: *b"AS", rev: 0 };
/// AO Angola
pub const ANGOLA: Country = Country { code: *b"AO", rev: 0 };
/// AI Anguilla
pub const ANGUILLA: Country = Country { code: *b"AI", rev: 0 };
/// AG Antigua_and_Barbuda
pub const ANTIGUA_AND_BARBUDA: Country = Country { code: *b"AG", rev: 0 };
/// AR Argentina
pub const ARGENTINA: Country = Country { code: *b"AR", rev: 0 };
/// AM Armenia
pub const ARMENIA: Country = Country { code: *b"AM", rev: 0 };
/// AW Aruba
pub const ARUBA: Country = Country { code: *b"AW", rev: 0 };
/// AU Australia
pub const AUSTRALIA: Country = Country { code: *b"AU", rev: 0 };
/// AT Austria
pub const AUSTRIA: Country = Country { code: *b"AT", rev: 0 };
/// AZ Azerbaijan
pub const AZERBAIJAN: Country = Country { code: *b"AZ", rev: 0 };
/// BS Bahamas
pub const BAHAMAS: Country = Country { code: *b"BS", rev: 0 };
/// BH Bahrain
pub const BAHRAIN: Country = Country { code: *b"BH", rev: 0 };
/// 0B Baker_Island
pub const BAKER_ISLAND: Country = Country { code: *b"0B", rev: 0 };
/// BD Bangladesh
pub const BANGLADESH: Country = Country { code: *b"BD", rev: 0 };
/// BB Barbados
pub const BARBADOS: Country = Country { code: *b"BB", rev: 0 };
/// BY Belarus
pub const BELARUS: Country = Country { code: *b"BY", rev: 0 };
/// BE Belgium
pub const BELGIUM: Country = Country { code: *b"BE", rev: 0 };
/// BZ Belize
pub const BELIZE: Country = Country { code: *b"BZ", rev: 0 };
/// BJ Benin
pub const BENIN: Country = Country { code: *b"BJ", rev: 0 };
/// BM Bermuda
pub const BERMUDA: Country = Country { code: *b"BM", rev: 0 };
/// BT Bhutan
pub const BHUTAN: Country = Country { code: *b"BT", rev: 0 };
/// BO Bolivia
pub const BOLIVIA: Country = Country { code: *b"BO", rev: 0 };
/// BA Bosnia_and_Herzegovina
pub const BOSNIA_AND_HERZEGOVINA: Country = Country { code: *b"BA", rev: 0 };
/// BW Botswana
pub const BOTSWANA: Country = Country { code: *b"BW", rev: 0 };
/// BR Brazil
pub const BRAZIL: Country = Country { code: *b"BR", rev: 0 };
/// IO British_Indian_Ocean_Territory
pub const BRITISH_INDIAN_OCEAN_TERRITORY: Country = Country { code: *b"IO", rev: 0 };
/// BN Brunei_Darussalam
pub const BRUNEI_DARUSSALAM: Country = Country { code: *b"BN", rev: 0 };
/// BG Bulgaria
pub const BULGARIA: Country = Country { code: *b"BG", rev: 0 };
/// BF Burkina_Faso
pub const BURKINA_FASO: Country = Country { code: *b"BF", rev: 0 };
/// BI Burundi
pub const BURUNDI: Country = Country { code: *b"BI", rev: 0 };
/// KH Cambodia
pub const CAMBODIA: Country = Country { code: *b"KH", rev: 0 };
/// CM Cameroon
pub const CAMEROON: Country = Country { code: *b"CM", rev: 0 };
/// CA Canada
pub const CANADA: Country = Country { code: *b"CA", rev: 0 };
/// CA Canada Revision 950
pub const CANADA_REV950: Country = Country { code: *b"CA", rev: 950 };
/// CV Cape_Verde
pub const CAPE_VERDE: Country = Country { code: *b"CV", rev: 0 };
/// KY Cayman_Islands
pub const CAYMAN_ISLANDS: Country = Country { code: *b"KY", rev: 0 };
/// CF Central_African_Republic
pub const CENTRAL_AFRICAN_REPUBLIC: Country = Country { code: *b"CF", rev: 0 };
/// TD Chad
pub const CHAD: Country = Country { code: *b"TD", rev: 0 };
/// CL Chile
pub const CHILE: Country = Country { code: *b"CL", rev: 0 };
/// CN China
pub const CHINA: Country = Country { code: *b"CN", rev: 0 };
/// CX Christmas_Island
pub const CHRISTMAS_ISLAND: Country = Country { code: *b"CX", rev: 0 };
/// CO Colombia
pub const COLOMBIA: Country = Country { code: *b"CO", rev: 0 };
/// KM Comoros
pub const COMOROS: Country = Country { code: *b"KM", rev: 0 };
/// CG Congo
pub const CONGO: Country = Country { code: *b"CG", rev: 0 };
/// CD Congo,_The_Democratic_Republic_Of_The
pub const CONGO_THE_DEMOCRATIC_REPUBLIC_OF_THE: Country = Country { code: *b"CD", rev: 0 };
/// CR Costa_Rica
pub const COSTA_RICA: Country = Country { code: *b"CR", rev: 0 };
/// CI Cote_D'ivoire
pub const COTE_DIVOIRE: Country = Country { code: *b"CI", rev: 0 };
/// HR Croatia
pub const CROATIA: Country = Country { code: *b"HR", rev: 0 };
/// CU Cuba
pub const CUBA: Country = Country { code: *b"CU", rev: 0 };
/// CY Cyprus
pub const CYPRUS: Country = Country { code: *b"CY", rev: 0 };
/// CZ Czech_Republic
pub const CZECH_REPUBLIC: Country = Country { code: *b"CZ", rev: 0 };
/// DK Denmark
pub const DENMARK: Country = Country { code: *b"DK", rev: 0 };
/// DJ Djibouti
pub const DJIBOUTI: Country = Country { code: *b"DJ", rev: 0 };
/// DM Dominica
pub const DOMINICA: Country = Country { code: *b"DM", rev: 0 };
/// DO Dominican_Republic
pub const DOMINICAN_REPUBLIC: Country = Country { code: *b"DO", rev: 0 };
/// AU G'Day mate!
pub const DOWN_UNDER: Country = Country { code: *b"AU", rev: 0 };
/// EC Ecuador
pub const ECUADOR: Country = Country { code: *b"EC", rev: 0 };
/// EG Egypt
pub const EGYPT: Country = Country { code: *b"EG", rev: 0 };
/// SV El_Salvador
pub const EL_SALVADOR: Country = Country { code: *b"SV", rev: 0 };
/// GQ Equatorial_Guinea
pub const EQUATORIAL_GUINEA: Country = Country { code: *b"GQ", rev: 0 };
/// ER Eritrea
pub const ERITREA: Country = Country { code: *b"ER", rev: 0 };
/// EE Estonia
pub const ESTONIA: Country = Country { code: *b"EE", rev: 0 };
/// ET Ethiopia
pub const ETHIOPIA: Country = Country { code: *b"ET", rev: 0 };
/// FK Falkland_Islands_(Malvinas)
pub const FALKLAND_ISLANDS_MALVINAS: Country = Country { code: *b"FK", rev: 0 };
/// FO Faroe_Islands
pub const FAROE_ISLANDS: Country = Country { code: *b"FO", rev: 0 };
/// FJ Fiji
pub const FIJI: Country = Country { code: *b"FJ", rev: 0 };
/// FI Finland
pub const FINLAND: Country = Country { code: *b"FI", rev: 0 };
/// FR France
pub const FRANCE: Country = Country { code: *b"FR", rev: 0 };
/// GF French_Guina
pub const FRENCH_GUINA: Country = Country { code: *b"GF", rev: 0 };
/// PF French_Polynesia
pub const FRENCH_POLYNESIA: Country = Country { code: *b"PF", rev: 0 };
/// TF French_Southern_Territories
pub const FRENCH_SOUTHERN_TERRITORIES: Country = Country { code: *b"TF", rev: 0 };
/// GA Gabon
pub const GABON: Country = Country { code: *b"GA", rev: 0 };
/// GM Gambia
pub const GAMBIA: Country = Country { code: *b"GM", rev: 0 };
/// GE Georgia
pub const GEORGIA: Country = Country { code: *b"GE", rev: 0 };
/// DE Germany
pub const GERMANY: Country = Country { code: *b"DE", rev: 0 };
/// E0 European_Wide Revision 895
pub const EUROPEAN_WIDE_REV895: Country = Country { code: *b"E0", rev: 895 };
/// GH Ghana
pub const GHANA: Country = Country { code: *b"GH", rev: 0 };
/// GI Gibraltar
pub const GIBRALTAR: Country = Country { code: *b"GI", rev: 0 };
/// GR Greece
pub const GREECE: Country = Country { code: *b"GR", rev: 0 };
/// GD Grenada
pub const GRENADA: Country = Country { code: *b"GD", rev: 0 };
/// GP Guadeloupe
pub const GUADELOUPE: Country = Country { code: *b"GP", rev: 0 };
/// GU Guam
pub const GUAM: Country = Country { code: *b"GU", rev: 0 };
/// GT Guatemala
pub const GUATEMALA: Country = Country { code: *b"GT", rev: 0 };
/// GG Guernsey
pub const GUERNSEY: Country = Country { code: *b"GG", rev: 0 };
/// GN Guinea
pub const GUINEA: Country = Country { code: *b"GN", rev: 0 };
/// GW Guinea-bissau
pub const GUINEA_BISSAU: Country = Country { code: *b"GW", rev: 0 };
/// GY Guyana
pub const GUYANA: Country = Country { code: *b"GY", rev: 0 };
/// HT Haiti
pub const HAITI: Country = Country { code: *b"HT", rev: 0 };
/// VA Holy_See_(Vatican_City_State)
pub const HOLY_SEE_VATICAN_CITY_STATE: Country = Country { code: *b"VA", rev: 0 };
/// HN Honduras
pub const HONDURAS: Country = Country { code: *b"HN", rev: 0 };
/// HK Hong_Kong
pub const HONG_KONG: Country = Country { code: *b"HK", rev: 0 };
/// HU Hungary
pub const HUNGARY: Country = Country { code: *b"HU", rev: 0 };
/// IS Iceland
pub const ICELAND: Country = Country { code: *b"IS", rev: 0 };
/// IN India
pub const INDIA: Country = Country { code: *b"IN", rev: 0 };
/// ID Indonesia
pub const INDONESIA: Country = Country { code: *b"ID", rev: 0 };
/// IR Iran,_Islamic_Republic_Of
pub const IRAN_ISLAMIC_REPUBLIC_OF: Country = Country { code: *b"IR", rev: 0 };
/// IQ Iraq
pub const IRAQ: Country = Country { code: *b"IQ", rev: 0 };
/// IE Ireland
pub const IRELAND: Country = Country { code: *b"IE", rev: 0 };
/// IL Israel
pub const ISRAEL: Country = Country { code: *b"IL", rev: 0 };
/// IT Italy
pub const ITALY: Country = Country { code: *b"IT", rev: 0 };
/// JM Jamaica
pub const JAMAICA: Country = Country { code: *b"JM", rev: 0 };
/// JP Japan
pub const JAPAN: Country = Country { code: *b"JP", rev: 0 };
/// JE Jersey
pub const JERSEY: Country = Country { code: *b"JE", rev: 0 };
/// JO Jordan
pub const JORDAN: Country = Country { code: *b"JO", rev: 0 };
/// KZ Kazakhstan
pub const KAZAKHSTAN: Country = Country { code: *b"KZ", rev: 0 };
/// KE Kenya
pub const KENYA: Country = Country { code: *b"KE", rev: 0 };
/// KI Kiribati
pub const KIRIBATI: Country = Country { code: *b"KI", rev: 0 };
/// KR Korea,_Republic_Of
pub const KOREA_REPUBLIC_OF: Country = Country { code: *b"KR", rev: 1 };
/// 0A Kosovo
pub const KOSOVO: Country = Country { code: *b"0A", rev: 0 };
/// KW Kuwait
pub const KUWAIT: Country = Country { code: *b"KW", rev: 0 };
/// KG Kyrgyzstan
pub const KYRGYZSTAN: Country = Country { code: *b"KG", rev: 0 };
/// LA Lao_People's_Democratic_Repubic
pub const LAO_PEOPLES_DEMOCRATIC_REPUBIC: Country = Country { code: *b"LA", rev: 0 };
/// LV Latvia
pub const LATVIA: Country = Country { code: *b"LV", rev: 0 };
/// LB Lebanon
pub const LEBANON: Country = Country { code: *b"LB", rev: 0 };
/// LS Lesotho
pub const LESOTHO: Country = Country { code: *b"LS", rev: 0 };
/// LR Liberia
pub const LIBERIA: Country = Country { code: *b"LR", rev: 0 };
/// LY Libyan_Arab_Jamahiriya
pub const LIBYAN_ARAB_JAMAHIRIYA: Country = Country { code: *b"LY", rev: 0 };
/// LI Liechtenstein
pub const LIECHTENSTEIN: Country = Country { code: *b"LI", rev: 0 };
/// LT Lithuania
pub const LITHUANIA: Country = Country { code: *b"LT", rev: 0 };
/// LU Luxembourg
pub const LUXEMBOURG: Country = Country { code: *b"LU", rev: 0 };
/// MO Macao
pub const MACAO: Country = Country { code: *b"MO", rev: 0 };
/// MK Macedonia,_Former_Yugoslav_Republic_Of
pub const MACEDONIA_FORMER_YUGOSLAV_REPUBLIC_OF: Country = Country { code: *b"MK", rev: 0 };
/// MG Madagascar
pub const MADAGASCAR: Country = Country { code: *b"MG", rev: 0 };
/// MW Malawi
pub const MALAWI: Country = Country { code: *b"MW", rev: 0 };
/// MY Malaysia
pub const MALAYSIA: Country = Country { code: *b"MY", rev: 0 };
/// MV Maldives
pub const MALDIVES: Country = Country { code: *b"MV", rev: 0 };
/// ML Mali
pub const MALI: Country = Country { code: *b"ML", rev: 0 };
/// MT Malta
pub const MALTA: Country = Country { code: *b"MT", rev: 0 };
/// IM Man,_Isle_Of
pub const MAN_ISLE_OF: Country = Country { code: *b"IM", rev: 0 };
/// MQ Martinique
pub const MARTINIQUE: Country = Country { code: *b"MQ", rev: 0 };
/// MR Mauritania
pub const MAURITANIA: Country = Country { code: *b"MR", rev: 0 };
/// MU Mauritius
pub const MAURITIUS: Country = Country { code: *b"MU", rev: 0 };
/// YT Mayotte
pub const MAYOTTE: Country = Country { code: *b"YT", rev: 0 };
/// MX Mexico
pub const MEXICO: Country = Country { code: *b"MX", rev: 0 };
/// FM Micronesia,_Federated_States_Of
pub const MICRONESIA_FEDERATED_STATES_OF: Country = Country { code: *b"FM", rev: 0 };
/// MD Moldova,_Republic_Of
pub const MOLDOVA_REPUBLIC_OF: Country = Country { code: *b"MD", rev: 0 };
/// MC Monaco
pub const MONACO: Country = Country { code: *b"MC", rev: 0 };
/// MN Mongolia
pub const MONGOLIA: Country = Country { code: *b"MN", rev: 0 };
/// ME Montenegro
pub const MONTENEGRO: Country = Country { code: *b"ME", rev: 0 };
/// MS Montserrat
pub const MONTSERRAT: Country = Country { code: *b"MS", rev: 0 };
/// MA Morocco
pub const MOROCCO: Country = Country { code: *b"MA", rev: 0 };
/// MZ Mozambique
pub const MOZAMBIQUE: Country = Country { code: *b"MZ", rev: 0 };
/// MM Myanmar
pub const MYANMAR: Country = Country { code: *b"MM", rev: 0 };
/// NA Namibia
pub const NAMIBIA: Country = Country { code: *b"NA", rev: 0 };
/// NR Nauru
pub const NAURU: Country = Country { code: *b"NR", rev: 0 };
/// NP Nepal
pub const NEPAL: Country = Country { code: *b"NP", rev: 0 };
/// NL Netherlands
pub const NETHERLANDS: Country = Country { code: *b"NL", rev: 0 };
/// AN Netherlands_Antilles
pub const NETHERLANDS_ANTILLES: Country = Country { code: *b"AN", rev: 0 };
/// NC New_Caledonia
pub const NEW_CALEDONIA: Country = Country { code: *b"NC", rev: 0 };
/// NZ New_Zealand
pub const NEW_ZEALAND: Country = Country { code: *b"NZ", rev: 0 };
/// NI Nicaragua
pub const NICARAGUA: Country = Country { code: *b"NI", rev: 0 };
/// NE Niger
pub const NIGER: Country = Country { code: *b"NE", rev: 0 };
/// NG Nigeria
pub const NIGERIA: Country = Country { code: *b"NG", rev: 0 };
/// NF Norfolk_Island
pub const NORFOLK_ISLAND: Country = Country { code: *b"NF", rev: 0 };
/// MP Northern_Mariana_Islands
pub const NORTHERN_MARIANA_ISLANDS: Country = Country { code: *b"MP", rev: 0 };
/// NO Norway
pub const NORWAY: Country = Country { code: *b"NO", rev: 0 };
/// OM Oman
pub const OMAN: Country = Country { code: *b"OM", rev: 0 };
/// PK Pakistan
pub const PAKISTAN: Country = Country { code: *b"PK", rev: 0 };
/// PW Palau
pub const PALAU: Country = Country { code: *b"PW", rev: 0 };
/// PA Panama
pub const PANAMA: Country = Country { code: *b"PA", rev: 0 };
/// PG Papua_New_Guinea
pub const PAPUA_NEW_GUINEA: Country = Country { code: *b"PG", rev: 0 };
/// PY Paraguay
pub const PARAGUAY: Country = Country { code: *b"PY", rev: 0 };
/// PE Peru
pub const PERU: Country = Country { code: *b"PE", rev: 0 };
/// PH Philippines
pub const PHILIPPINES: Country = Country { code: *b"PH", rev: 0 };
/// PL Poland
pub const POLAND: Country = Country { code: *b"PL", rev: 0 };
/// PT Portugal
pub const PORTUGAL: Country = Country { code: *b"PT", rev: 0 };
/// PR Pueto_Rico
pub const PUETO_RICO: Country = Country { code: *b"PR", rev: 0 };
/// QA Qatar
pub const QATAR: Country = Country { code: *b"QA", rev: 0 };
/// RE Reunion
pub const REUNION: Country = Country { code: *b"RE", rev: 0 };
/// RO Romania
pub const ROMANIA: Country = Country { code: *b"RO", rev: 0 };
/// RU Russian_Federation
pub const RUSSIAN_FEDERATION: Country = Country { code: *b"RU", rev: 0 };
/// RW Rwanda
pub const RWANDA: Country = Country { code: *b"RW", rev: 0 };
/// KN Saint_Kitts_and_Nevis
pub const SAINT_KITTS_AND_NEVIS: Country = Country { code: *b"KN", rev: 0 };
/// LC Saint_Lucia
pub const SAINT_LUCIA: Country = Country { code: *b"LC", rev: 0 };
/// PM Saint_Pierre_and_Miquelon
pub const SAINT_PIERRE_AND_MIQUELON: Country = Country { code: *b"PM", rev: 0 };
/// VC Saint_Vincent_and_The_Grenadines
pub const SAINT_VINCENT_AND_THE_GRENADINES: Country = Country { code: *b"VC", rev: 0 };
/// WS Samoa
pub const SAMOA: Country = Country { code: *b"WS", rev: 0 };
/// MF Sanit_Martin_/_Sint_Marteen
pub const SANIT_MARTIN_SINT_MARTEEN: Country = Country { code: *b"MF", rev: 0 };
/// ST Sao_Tome_and_Principe
pub const SAO_TOME_AND_PRINCIPE: Country = Country { code: *b"ST", rev: 0 };
/// SA Saudi_Arabia
pub const SAUDI_ARABIA: Country = Country { code: *b"SA", rev: 0 };
/// SN Senegal
pub const SENEGAL: Country = Country { code: *b"SN", rev: 0 };
/// RS Serbia
pub const SERBIA: Country = Country { code: *b"RS", rev: 0 };
/// SC Seychelles
pub const SEYCHELLES: Country = Country { code: *b"SC", rev: 0 };
/// SL Sierra_Leone
pub const SIERRA_LEONE: Country = Country { code: *b"SL", rev: 0 };
/// SG Singapore
pub const SINGAPORE: Country = Country { code: *b"SG", rev: 0 };
/// SK Slovakia
pub const SLOVAKIA: Country = Country { code: *b"SK", rev: 0 };
/// SI Slovenia
pub const SLOVENIA: Country = Country { code: *b"SI", rev: 0 };
/// SB Solomon_Islands
pub const SOLOMON_ISLANDS: Country = Country { code: *b"SB", rev: 0 };
/// SO Somalia
pub const SOMALIA: Country = Country { code: *b"SO", rev: 0 };
/// ZA South_Africa
pub const SOUTH_AFRICA: Country = Country { code: *b"ZA", rev: 0 };
/// ES Spain
pub const SPAIN: Country = Country { code: *b"ES", rev: 0 };
/// LK Sri_Lanka
pub const SRI_LANKA: Country = Country { code: *b"LK", rev: 0 };
/// SR Suriname
pub const SURINAME: Country = Country { code: *b"SR", rev: 0 };
/// SZ Swaziland
pub const SWAZILAND: Country = Country { code: *b"SZ", rev: 0 };
/// SE Sweden
pub const SWEDEN: Country = Country { code: *b"SE", rev: 0 };
/// CH Switzerland
pub const SWITZERLAND: Country = Country { code: *b"CH", rev: 0 };
/// SY Syrian_Arab_Republic
pub const SYRIAN_ARAB_REPUBLIC: Country = Country { code: *b"SY", rev: 0 };
/// TW Taiwan,_Province_Of_China
pub const TAIWAN_PROVINCE_OF_CHINA: Country = Country { code: *b"TW", rev: 0 };
/// TJ Tajikistan
pub const TAJIKISTAN: Country = Country { code: *b"TJ", rev: 0 };
/// TZ Tanzania,_United_Republic_Of
pub const TANZANIA_UNITED_REPUBLIC_OF: Country = Country { code: *b"TZ", rev: 0 };
/// TH Thailand
pub const THAILAND: Country = Country { code: *b"TH", rev: 0 };
/// TG Togo
pub const TOGO: Country = Country { code: *b"TG", rev: 0 };
/// TO Tonga
pub const TONGA: Country = Country { code: *b"TO", rev: 0 };
/// TT Trinidad_and_Tobago
pub const TRINIDAD_AND_TOBAGO: Country = Country { code: *b"TT", rev: 0 };
/// TN Tunisia
pub const TUNISIA: Country = Country { code: *b"TN", rev: 0 };
/// TR Turkey
pub const TURKEY: Country = Country { code: *b"TR", rev: 0 };
/// TM Turkmenistan
pub const TURKMENISTAN: Country = Country { code: *b"TM", rev: 0 };
/// TC Turks_and_Caicos_Islands
pub const TURKS_AND_CAICOS_ISLANDS: Country = Country { code: *b"TC", rev: 0 };
/// TV Tuvalu
pub const TUVALU: Country = Country { code: *b"TV", rev: 0 };
/// UG Uganda
pub const UGANDA: Country = Country { code: *b"UG", rev: 0 };
/// UA Ukraine
pub const UKRAINE: Country = Country { code: *b"UA", rev: 0 };
/// AE United_Arab_Emirates
pub const UNITED_ARAB_EMIRATES: Country = Country { code: *b"AE", rev: 0 };
/// GB United_Kingdom
pub const UNITED_KINGDOM: Country = Country { code: *b"GB", rev: 0 };
/// US United_States
pub const UNITED_STATES: Country = Country { code: *b"US", rev: 0 };
/// US United_States Revision 4
pub const UNITED_STATES_REV4: Country = Country { code: *b"US", rev: 4 };
/// Q1 United_States Revision 931
pub const UNITED_STATES_REV931: Country = Country { code: *b"Q1", rev: 931 };
/// Q2 United_States_(No_DFS)
pub const UNITED_STATES_NO_DFS: Country = Country { code: *b"Q2", rev: 0 };
/// UM United_States_Minor_Outlying_Islands
pub const UNITED_STATES_MINOR_OUTLYING_ISLANDS: Country = Country { code: *b"UM", rev: 0 };
/// UY Uruguay
pub const URUGUAY: Country = Country { code: *b"UY", rev: 0 };
/// UZ Uzbekistan
pub const UZBEKISTAN: Country = Country { code: *b"UZ", rev: 0 };
/// VU Vanuatu
pub const VANUATU: Country = Country { code: *b"VU", rev: 0 };
/// VE Venezuela
pub const VENEZUELA: Country = Country { code: *b"VE", rev: 0 };
/// VN Viet_Nam
pub const VIET_NAM: Country = Country { code: *b"VN", rev: 0 };
/// VG Virgin_Islands,_British
pub const VIRGIN_ISLANDS_BRITISH: Country = Country { code: *b"VG", rev: 0 };
/// VI Virgin_Islands,_U.S.
pub const VIRGIN_ISLANDS_US: Country = Country { code: *b"VI", rev: 0 };
/// WF Wallis_and_Futuna
pub const WALLIS_AND_FUTUNA: Country = Country { code: *b"WF", rev: 0 };
/// 0C West_Bank
pub const WEST_BANK: Country = Country { code: *b"0C", rev: 0 };
/// EH Western_Sahara
pub const WESTERN_SAHARA: Country = Country { code: *b"EH", rev: 0 };
/// Worldwide Locale Revision 983
pub const WORLD_WIDE_XV_REV983: Country = Country { code: *b"XV", rev: 983 };
/// Worldwide Locale (passive Ch12-14)
pub const WORLD_WIDE_XX: Country = Country { code: *b"XX", rev: 0 };
/// Worldwide Locale (passive Ch12-14) Revision 17
pub const WORLD_WIDE_XX_REV17: Country = Country { code: *b"XX", rev: 17 };
/// YE Yemen
pub const YEMEN: Country = Country { code: *b"YE", rev: 0 };
/// ZM Zambia
pub const ZAMBIA: Country = Country { code: *b"ZM", rev: 0 };
/// ZW Zimbabwe
pub const ZIMBABWE: Country = Country { code: *b"ZW", rev: 0 };

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#![allow(dead_code)]
#![allow(non_camel_case_types)]
use core::cell::RefCell;
use embassy_sync::blocking_mutex::raw::NoopRawMutex;
use embassy_sync::pubsub::{PubSubChannel, Subscriber};
use crate::structs::BssInfo;
#[derive(Debug, Clone, Copy, PartialEq, Eq, num_enum::FromPrimitive)]
#[cfg_attr(feature = "defmt", derive(defmt::Format))]
#[repr(u8)]
pub enum Event {
#[num_enum(default)]
Unknown = 0xFF,
/// indicates status of set SSID
SET_SSID = 0,
/// differentiates join IBSS from found (START) IBSS
JOIN = 1,
/// STA founded an IBSS or AP started a BSS
START = 2,
/// 802.11 AUTH request
AUTH = 3,
/// 802.11 AUTH indication
AUTH_IND = 4,
/// 802.11 DEAUTH request
DEAUTH = 5,
/// 802.11 DEAUTH indication
DEAUTH_IND = 6,
/// 802.11 ASSOC request
ASSOC = 7,
/// 802.11 ASSOC indication
ASSOC_IND = 8,
/// 802.11 REASSOC request
REASSOC = 9,
/// 802.11 REASSOC indication
REASSOC_IND = 10,
/// 802.11 DISASSOC request
DISASSOC = 11,
/// 802.11 DISASSOC indication
DISASSOC_IND = 12,
/// 802.11h Quiet period started
QUIET_START = 13,
/// 802.11h Quiet period ended
QUIET_END = 14,
/// BEACONS received/lost indication
BEACON_RX = 15,
/// generic link indication
LINK = 16,
/// TKIP MIC error occurred
MIC_ERROR = 17,
/// NDIS style link indication
NDIS_LINK = 18,
/// roam attempt occurred: indicate status & reason
ROAM = 19,
/// change in dot11FailedCount (txfail)
TXFAIL = 20,
/// WPA2 pmkid cache indication
PMKID_CACHE = 21,
/// current AP's TSF value went backward
RETROGRADE_TSF = 22,
/// AP was pruned from join list for reason
PRUNE = 23,
/// report AutoAuth table entry match for join attempt
AUTOAUTH = 24,
/// Event encapsulating an EAPOL message
EAPOL_MSG = 25,
/// Scan results are ready or scan was aborted
SCAN_COMPLETE = 26,
/// indicate to host addts fail/success
ADDTS_IND = 27,
/// indicate to host delts fail/success
DELTS_IND = 28,
/// indicate to host of beacon transmit
BCNSENT_IND = 29,
/// Send the received beacon up to the host
BCNRX_MSG = 30,
/// indicate to host loss of beacon
BCNLOST_MSG = 31,
/// before attempting to roam
ROAM_PREP = 32,
/// PFN network found event
PFN_NET_FOUND = 33,
/// PFN network lost event
PFN_NET_LOST = 34,
RESET_COMPLETE = 35,
JOIN_START = 36,
ROAM_START = 37,
ASSOC_START = 38,
IBSS_ASSOC = 39,
RADIO = 40,
/// PSM microcode watchdog fired
PSM_WATCHDOG = 41,
/// CCX association start
CCX_ASSOC_START = 42,
/// CCX association abort
CCX_ASSOC_ABORT = 43,
/// probe request received
PROBREQ_MSG = 44,
SCAN_CONFIRM_IND = 45,
/// WPA Handshake
PSK_SUP = 46,
COUNTRY_CODE_CHANGED = 47,
/// WMMAC excedded medium time
EXCEEDED_MEDIUM_TIME = 48,
/// WEP ICV error occurred
ICV_ERROR = 49,
/// Unsupported unicast encrypted frame
UNICAST_DECODE_ERROR = 50,
/// Unsupported multicast encrypted frame
MULTICAST_DECODE_ERROR = 51,
TRACE = 52,
/// BT-AMP HCI event
BTA_HCI_EVENT = 53,
/// I/F change (for wlan host notification)
IF = 54,
/// P2P Discovery listen state expires
P2P_DISC_LISTEN_COMPLETE = 55,
/// indicate RSSI change based on configured levels
RSSI = 56,
/// PFN best network batching event
PFN_BEST_BATCHING = 57,
EXTLOG_MSG = 58,
/// Action frame reception
ACTION_FRAME = 59,
/// Action frame Tx complete
ACTION_FRAME_COMPLETE = 60,
/// assoc request received
PRE_ASSOC_IND = 61,
/// re-assoc request received
PRE_REASSOC_IND = 62,
/// channel adopted (xxx: obsoleted)
CHANNEL_ADOPTED = 63,
/// AP started
AP_STARTED = 64,
/// AP stopped due to DFS
DFS_AP_STOP = 65,
/// AP resumed due to DFS
DFS_AP_RESUME = 66,
/// WAI stations event
WAI_STA_EVENT = 67,
/// event encapsulating an WAI message
WAI_MSG = 68,
/// escan result event
ESCAN_RESULT = 69,
/// action frame off channel complete
ACTION_FRAME_OFF_CHAN_COMPLETE = 70,
/// probe response received
PROBRESP_MSG = 71,
/// P2P Probe request received
P2P_PROBREQ_MSG = 72,
DCS_REQUEST = 73,
/// credits for D11 FIFOs. [AC0,AC1,AC2,AC3,BC_MC,ATIM]
FIFO_CREDIT_MAP = 74,
/// Received action frame event WITH wl_event_rx_frame_data_t header
ACTION_FRAME_RX = 75,
/// Wake Event timer fired, used for wake WLAN test mode
WAKE_EVENT = 76,
/// Radio measurement complete
RM_COMPLETE = 77,
/// Synchronize TSF with the host
HTSFSYNC = 78,
/// request an overlay IOCTL/iovar from the host
OVERLAY_REQ = 79,
CSA_COMPLETE_IND = 80,
/// excess PM Wake Event to inform host
EXCESS_PM_WAKE_EVENT = 81,
/// no PFN networks around
PFN_SCAN_NONE = 82,
/// last found PFN network gets lost
PFN_SCAN_ALLGONE = 83,
GTK_PLUMBED = 84,
/// 802.11 ASSOC indication for NDIS only
ASSOC_IND_NDIS = 85,
/// 802.11 REASSOC indication for NDIS only
REASSOC_IND_NDIS = 86,
ASSOC_REQ_IE = 87,
ASSOC_RESP_IE = 88,
/// association recreated on resume
ASSOC_RECREATED = 89,
/// rx action frame event for NDIS only
ACTION_FRAME_RX_NDIS = 90,
/// authentication request received
AUTH_REQ = 91,
/// fast assoc recreation failed
SPEEDY_RECREATE_FAIL = 93,
/// port-specific event and payload (e.g. NDIS)
NATIVE = 94,
/// event for tx pkt delay suddently jump
PKTDELAY_IND = 95,
/// AWDL AW period starts
AWDL_AW = 96,
/// AWDL Master/Slave/NE master role event
AWDL_ROLE = 97,
/// Generic AWDL event
AWDL_EVENT = 98,
/// NIC AF txstatus
NIC_AF_TXS = 99,
/// NAN event
NAN = 100,
BEACON_FRAME_RX = 101,
/// desired service found
SERVICE_FOUND = 102,
/// GAS fragment received
GAS_FRAGMENT_RX = 103,
/// GAS sessions all complete
GAS_COMPLETE = 104,
/// New device found by p2p offload
P2PO_ADD_DEVICE = 105,
/// device has been removed by p2p offload
P2PO_DEL_DEVICE = 106,
/// WNM event to notify STA enter sleep mode
WNM_STA_SLEEP = 107,
/// Indication of MAC tx failures (exhaustion of 802.11 retries) exceeding threshold(s)
TXFAIL_THRESH = 108,
/// Proximity Detection event
PROXD = 109,
/// AWDL RX Probe response
AWDL_RX_PRB_RESP = 111,
/// AWDL RX Action Frames
AWDL_RX_ACT_FRAME = 112,
/// AWDL Wowl nulls
AWDL_WOWL_NULLPKT = 113,
/// AWDL Phycal status
AWDL_PHYCAL_STATUS = 114,
/// AWDL OOB AF status
AWDL_OOB_AF_STATUS = 115,
/// Interleaved Scan status
AWDL_SCAN_STATUS = 116,
/// AWDL AW Start
AWDL_AW_START = 117,
/// AWDL AW End
AWDL_AW_END = 118,
/// AWDL AW Extensions
AWDL_AW_EXT = 119,
AWDL_PEER_CACHE_CONTROL = 120,
CSA_START_IND = 121,
CSA_DONE_IND = 122,
CSA_FAILURE_IND = 123,
/// CCA based channel quality report
CCA_CHAN_QUAL = 124,
/// to report change in BSSID while roaming
BSSID = 125,
/// tx error indication
TX_STAT_ERROR = 126,
/// credit check for BCMC supported
BCMC_CREDIT_SUPPORT = 127,
/// psta primary interface indication
PSTA_PRIMARY_INTF_IND = 128,
/// Handover Request Initiated
BT_WIFI_HANDOVER_REQ = 130,
/// Southpaw TxInhibit notification
SPW_TXINHIBIT = 131,
/// FBT Authentication Request Indication
FBT_AUTH_REQ_IND = 132,
/// Enhancement addition for RSSI
RSSI_LQM = 133,
/// Full probe/beacon (IEs etc) results
PFN_GSCAN_FULL_RESULT = 134,
/// Significant change in rssi of bssids being tracked
PFN_SWC = 135,
/// a STA been authroized for traffic
AUTHORIZED = 136,
/// probe req with wl_event_rx_frame_data_t header
PROBREQ_MSG_RX = 137,
/// PFN completed scan of network list
PFN_SCAN_COMPLETE = 138,
/// RMC Event
RMC_EVENT = 139,
/// DPSTA interface indication
DPSTA_INTF_IND = 140,
/// RRM Event
RRM = 141,
/// ULP entry event
ULP = 146,
/// TCP Keep Alive Offload Event
TKO = 151,
/// authentication request received
EXT_AUTH_REQ = 187,
/// authentication request received
EXT_AUTH_FRAME_RX = 188,
/// mgmt frame Tx complete
MGMT_FRAME_TXSTATUS = 189,
/// highest val + 1 for range checking
LAST = 190,
}
// TODO this PubSub can probably be replaced with shared memory to make it a bit more efficient.
pub type EventQueue = PubSubChannel<NoopRawMutex, Message, 2, 1, 1>;
pub type EventSubscriber<'a> = Subscriber<'a, NoopRawMutex, Message, 2, 1, 1>;
pub struct Events {
pub queue: EventQueue,
pub mask: SharedEventMask,
}
impl Events {
pub fn new() -> Self {
Self {
queue: EventQueue::new(),
mask: SharedEventMask::default(),
}
}
}
#[derive(Clone, Copy)]
#[cfg_attr(feature = "defmt", derive(defmt::Format))]
pub struct Status {
pub event_type: Event,
pub status: u32,
}
#[derive(Clone, Copy)]
pub enum Payload {
None,
BssInfo(BssInfo),
}
#[derive(Clone, Copy)]
pub struct Message {
pub header: Status,
pub payload: Payload,
}
impl Message {
pub fn new(status: Status, payload: Payload) -> Self {
Self {
header: status,
payload,
}
}
}
#[derive(Default)]
struct EventMask {
mask: [u32; Self::WORD_COUNT],
}
impl EventMask {
const WORD_COUNT: usize = ((Event::LAST as u32 + (u32::BITS - 1)) / u32::BITS) as usize;
fn enable(&mut self, event: Event) {
let n = event as u32;
let word = n / u32::BITS;
let bit = n % u32::BITS;
self.mask[word as usize] |= 1 << bit;
}
fn disable(&mut self, event: Event) {
let n = event as u32;
let word = n / u32::BITS;
let bit = n % u32::BITS;
self.mask[word as usize] &= !(1 << bit);
}
fn is_enabled(&self, event: Event) -> bool {
let n = event as u32;
let word = n / u32::BITS;
let bit = n % u32::BITS;
self.mask[word as usize] & (1 << bit) > 0
}
}
#[derive(Default)]
pub struct SharedEventMask {
mask: RefCell<EventMask>,
}
impl SharedEventMask {
pub fn enable(&self, events: &[Event]) {
let mut mask = self.mask.borrow_mut();
for event in events {
mask.enable(*event);
}
}
#[allow(dead_code)]
pub fn disable(&self, events: &[Event]) {
let mut mask = self.mask.borrow_mut();
for event in events {
mask.disable(*event);
}
}
pub fn disable_all(&self) {
let mut mask = self.mask.borrow_mut();
mask.mask = Default::default();
}
pub fn is_enabled(&self, event: Event) -> bool {
let mask = self.mask.borrow();
mask.is_enabled(event)
}
}

257
cyw43/src/fmt.rs Normal file
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#![macro_use]
#![allow(unused_macros)]
use core::fmt::{Debug, Display, LowerHex};
#[cfg(all(feature = "defmt", feature = "log"))]
compile_error!("You may not enable both `defmt` and `log` features.");
macro_rules! assert {
($($x:tt)*) => {
{
#[cfg(not(feature = "defmt"))]
::core::assert!($($x)*);
#[cfg(feature = "defmt")]
::defmt::assert!($($x)*);
}
};
}
macro_rules! assert_eq {
($($x:tt)*) => {
{
#[cfg(not(feature = "defmt"))]
::core::assert_eq!($($x)*);
#[cfg(feature = "defmt")]
::defmt::assert_eq!($($x)*);
}
};
}
macro_rules! assert_ne {
($($x:tt)*) => {
{
#[cfg(not(feature = "defmt"))]
::core::assert_ne!($($x)*);
#[cfg(feature = "defmt")]
::defmt::assert_ne!($($x)*);
}
};
}
macro_rules! debug_assert {
($($x:tt)*) => {
{
#[cfg(not(feature = "defmt"))]
::core::debug_assert!($($x)*);
#[cfg(feature = "defmt")]
::defmt::debug_assert!($($x)*);
}
};
}
macro_rules! debug_assert_eq {
($($x:tt)*) => {
{
#[cfg(not(feature = "defmt"))]
::core::debug_assert_eq!($($x)*);
#[cfg(feature = "defmt")]
::defmt::debug_assert_eq!($($x)*);
}
};
}
macro_rules! debug_assert_ne {
($($x:tt)*) => {
{
#[cfg(not(feature = "defmt"))]
::core::debug_assert_ne!($($x)*);
#[cfg(feature = "defmt")]
::defmt::debug_assert_ne!($($x)*);
}
};
}
macro_rules! todo {
($($x:tt)*) => {
{
#[cfg(not(feature = "defmt"))]
::core::todo!($($x)*);
#[cfg(feature = "defmt")]
::defmt::todo!($($x)*);
}
};
}
macro_rules! unreachable {
($($x:tt)*) => {
{
#[cfg(not(feature = "defmt"))]
::core::unreachable!($($x)*);
#[cfg(feature = "defmt")]
::defmt::unreachable!($($x)*);
}
};
}
macro_rules! panic {
($($x:tt)*) => {
{
#[cfg(not(feature = "defmt"))]
::core::panic!($($x)*);
#[cfg(feature = "defmt")]
::defmt::panic!($($x)*);
}
};
}
macro_rules! trace {
($s:literal $(, $x:expr)* $(,)?) => {
{
#[cfg(feature = "log")]
::log::trace!($s $(, $x)*);
#[cfg(feature = "defmt")]
::defmt::trace!($s $(, $x)*);
#[cfg(not(any(feature = "log", feature="defmt")))]
let _ = ($( & $x ),*);
}
};
}
macro_rules! debug {
($s:literal $(, $x:expr)* $(,)?) => {
{
#[cfg(feature = "log")]
::log::debug!($s $(, $x)*);
#[cfg(feature = "defmt")]
::defmt::debug!($s $(, $x)*);
#[cfg(not(any(feature = "log", feature="defmt")))]
let _ = ($( & $x ),*);
}
};
}
macro_rules! info {
($s:literal $(, $x:expr)* $(,)?) => {
{
#[cfg(feature = "log")]
::log::info!($s $(, $x)*);
#[cfg(feature = "defmt")]
::defmt::info!($s $(, $x)*);
#[cfg(not(any(feature = "log", feature="defmt")))]
let _ = ($( & $x ),*);
}
};
}
macro_rules! warn {
($s:literal $(, $x:expr)* $(,)?) => {
{
#[cfg(feature = "log")]
::log::warn!($s $(, $x)*);
#[cfg(feature = "defmt")]
::defmt::warn!($s $(, $x)*);
#[cfg(not(any(feature = "log", feature="defmt")))]
let _ = ($( & $x ),*);
}
};
}
macro_rules! error {
($s:literal $(, $x:expr)* $(,)?) => {
{
#[cfg(feature = "log")]
::log::error!($s $(, $x)*);
#[cfg(feature = "defmt")]
::defmt::error!($s $(, $x)*);
#[cfg(not(any(feature = "log", feature="defmt")))]
let _ = ($( & $x ),*);
}
};
}
#[cfg(feature = "defmt")]
macro_rules! unwrap {
($($x:tt)*) => {
::defmt::unwrap!($($x)*)
};
}
#[cfg(not(feature = "defmt"))]
macro_rules! unwrap {
($arg:expr) => {
match $crate::fmt::Try::into_result($arg) {
::core::result::Result::Ok(t) => t,
::core::result::Result::Err(e) => {
::core::panic!("unwrap of `{}` failed: {:?}", ::core::stringify!($arg), e);
}
}
};
($arg:expr, $($msg:expr),+ $(,)? ) => {
match $crate::fmt::Try::into_result($arg) {
::core::result::Result::Ok(t) => t,
::core::result::Result::Err(e) => {
::core::panic!("unwrap of `{}` failed: {}: {:?}", ::core::stringify!($arg), ::core::format_args!($($msg,)*), e);
}
}
}
}
#[cfg(feature = "defmt-timestamp-uptime")]
defmt::timestamp! {"{=u64:us}", crate::time::Instant::now().as_micros() }
#[derive(Debug, Copy, Clone, Eq, PartialEq)]
pub struct NoneError;
pub trait Try {
type Ok;
type Error;
fn into_result(self) -> Result<Self::Ok, Self::Error>;
}
impl<T> Try for Option<T> {
type Ok = T;
type Error = NoneError;
#[inline]
fn into_result(self) -> Result<T, NoneError> {
self.ok_or(NoneError)
}
}
impl<T, E> Try for Result<T, E> {
type Ok = T;
type Error = E;
#[inline]
fn into_result(self) -> Self {
self
}
}
pub struct Bytes<'a>(pub &'a [u8]);
impl<'a> Debug for Bytes<'a> {
fn fmt(&self, f: &mut core::fmt::Formatter<'_>) -> core::fmt::Result {
write!(f, "{:#02x?}", self.0)
}
}
impl<'a> Display for Bytes<'a> {
fn fmt(&self, f: &mut core::fmt::Formatter<'_>) -> core::fmt::Result {
write!(f, "{:#02x?}", self.0)
}
}
impl<'a> LowerHex for Bytes<'a> {
fn fmt(&self, f: &mut core::fmt::Formatter<'_>) -> core::fmt::Result {
write!(f, "{:#02x?}", self.0)
}
}
#[cfg(feature = "defmt")]
impl<'a> defmt::Format for Bytes<'a> {
fn format(&self, fmt: defmt::Formatter) {
defmt::write!(fmt, "{:02x}", self.0)
}
}

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use core::cell::{Cell, RefCell};
use core::future::poll_fn;
use core::task::{Poll, Waker};
use embassy_sync::waitqueue::WakerRegistration;
use crate::fmt::Bytes;
#[derive(Clone, Copy)]
pub enum IoctlType {
Get = 0,
Set = 2,
}
#[derive(Clone, Copy)]
pub struct PendingIoctl {
pub buf: *mut [u8],
pub kind: IoctlType,
pub cmd: u32,
pub iface: u32,
}
#[derive(Clone, Copy)]
enum IoctlStateInner {
Pending(PendingIoctl),
Sent { buf: *mut [u8] },
Done { resp_len: usize },
}
struct Wakers {
control: WakerRegistration,
runner: WakerRegistration,
}
impl Default for Wakers {
fn default() -> Self {
Self {
control: WakerRegistration::new(),
runner: WakerRegistration::new(),
}
}
}
pub struct IoctlState {
state: Cell<IoctlStateInner>,
wakers: RefCell<Wakers>,
}
impl IoctlState {
pub fn new() -> Self {
Self {
state: Cell::new(IoctlStateInner::Done { resp_len: 0 }),
wakers: Default::default(),
}
}
fn wake_control(&self) {
self.wakers.borrow_mut().control.wake();
}
fn register_control(&self, waker: &Waker) {
self.wakers.borrow_mut().control.register(waker);
}
fn wake_runner(&self) {
self.wakers.borrow_mut().runner.wake();
}
fn register_runner(&self, waker: &Waker) {
self.wakers.borrow_mut().runner.register(waker);
}
pub async fn wait_complete(&self) -> usize {
poll_fn(|cx| {
if let IoctlStateInner::Done { resp_len } = self.state.get() {
Poll::Ready(resp_len)
} else {
self.register_control(cx.waker());
Poll::Pending
}
})
.await
}
pub async fn wait_pending(&self) -> PendingIoctl {
let pending = poll_fn(|cx| {
if let IoctlStateInner::Pending(pending) = self.state.get() {
Poll::Ready(pending)
} else {
self.register_runner(cx.waker());
Poll::Pending
}
})
.await;
self.state.set(IoctlStateInner::Sent { buf: pending.buf });
pending
}
pub fn cancel_ioctl(&self) {
self.state.set(IoctlStateInner::Done { resp_len: 0 });
}
pub async fn do_ioctl(&self, kind: IoctlType, cmd: u32, iface: u32, buf: &mut [u8]) -> usize {
self.state
.set(IoctlStateInner::Pending(PendingIoctl { buf, kind, cmd, iface }));
self.wake_runner();
self.wait_complete().await
}
pub fn ioctl_done(&self, response: &[u8]) {
if let IoctlStateInner::Sent { buf } = self.state.get() {
trace!("IOCTL Response: {:02x}", Bytes(response));
// TODO fix this
(unsafe { &mut *buf }[..response.len()]).copy_from_slice(response);
self.state.set(IoctlStateInner::Done {
resp_len: response.len(),
});
self.wake_control();
} else {
warn!("IOCTL Response but no pending Ioctl");
}
}
}

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#![no_std]
#![no_main]
#![allow(incomplete_features)]
#![feature(async_fn_in_trait, type_alias_impl_trait, concat_bytes)]
#![deny(unused_must_use)]
// This mod MUST go first, so that the others see its macros.
pub(crate) mod fmt;
mod bus;
mod consts;
mod countries;
mod events;
mod ioctl;
mod structs;
mod control;
mod nvram;
mod runner;
use core::slice;
use embassy_net_driver_channel as ch;
use embedded_hal_1::digital::OutputPin;
use events::Events;
use ioctl::IoctlState;
use crate::bus::Bus;
pub use crate::bus::SpiBusCyw43;
pub use crate::control::{Control, Error as ControlError};
pub use crate::runner::Runner;
pub use crate::structs::BssInfo;
const MTU: usize = 1514;
#[allow(unused)]
#[derive(Clone, Copy, PartialEq, Eq)]
enum Core {
WLAN = 0,
SOCSRAM = 1,
SDIOD = 2,
}
impl Core {
fn base_addr(&self) -> u32 {
match self {
Self::WLAN => CHIP.arm_core_base_address,
Self::SOCSRAM => CHIP.socsram_wrapper_base_address,
Self::SDIOD => CHIP.sdiod_core_base_address,
}
}
}
#[allow(unused)]
struct Chip {
arm_core_base_address: u32,
socsram_base_address: u32,
socsram_wrapper_base_address: u32,
sdiod_core_base_address: u32,
pmu_base_address: u32,
chip_ram_size: u32,
atcm_ram_base_address: u32,
socram_srmem_size: u32,
chanspec_band_mask: u32,
chanspec_band_2g: u32,
chanspec_band_5g: u32,
chanspec_band_shift: u32,
chanspec_bw_10: u32,
chanspec_bw_20: u32,
chanspec_bw_40: u32,
chanspec_bw_mask: u32,
chanspec_bw_shift: u32,
chanspec_ctl_sb_lower: u32,
chanspec_ctl_sb_upper: u32,
chanspec_ctl_sb_none: u32,
chanspec_ctl_sb_mask: u32,
}
const WRAPPER_REGISTER_OFFSET: u32 = 0x100000;
// Data for CYW43439
const CHIP: Chip = Chip {
arm_core_base_address: 0x18003000 + WRAPPER_REGISTER_OFFSET,
socsram_base_address: 0x18004000,
socsram_wrapper_base_address: 0x18004000 + WRAPPER_REGISTER_OFFSET,
sdiod_core_base_address: 0x18002000,
pmu_base_address: 0x18000000,
chip_ram_size: 512 * 1024,
atcm_ram_base_address: 0,
socram_srmem_size: 64 * 1024,
chanspec_band_mask: 0xc000,
chanspec_band_2g: 0x0000,
chanspec_band_5g: 0xc000,
chanspec_band_shift: 14,
chanspec_bw_10: 0x0800,
chanspec_bw_20: 0x1000,
chanspec_bw_40: 0x1800,
chanspec_bw_mask: 0x3800,
chanspec_bw_shift: 11,
chanspec_ctl_sb_lower: 0x0000,
chanspec_ctl_sb_upper: 0x0100,
chanspec_ctl_sb_none: 0x0000,
chanspec_ctl_sb_mask: 0x0700,
};
pub struct State {
ioctl_state: IoctlState,
ch: ch::State<MTU, 4, 4>,
events: Events,
}
impl State {
pub fn new() -> Self {
Self {
ioctl_state: IoctlState::new(),
ch: ch::State::new(),
events: Events::new(),
}
}
}
#[derive(Debug, Clone, Copy, PartialEq, Eq)]
pub enum PowerManagementMode {
/// Custom, officially unsupported mode. Use at your own risk.
/// All power-saving features set to their max at only a marginal decrease in power consumption
/// as oppposed to `Aggressive`.
SuperSave,
/// Aggressive power saving mode.
Aggressive,
/// The default mode.
PowerSave,
/// Performance is prefered over power consumption but still some power is conserved as opposed to
/// `None`.
Performance,
/// Unlike all the other PM modes, this lowers the power consumption at all times at the cost of
/// a much lower throughput.
ThroughputThrottling,
/// No power management is configured. This consumes the most power.
None,
}
impl Default for PowerManagementMode {
fn default() -> Self {
Self::PowerSave
}
}
impl PowerManagementMode {
fn sleep_ret_ms(&self) -> u16 {
match self {
PowerManagementMode::SuperSave => 2000,
PowerManagementMode::Aggressive => 2000,
PowerManagementMode::PowerSave => 200,
PowerManagementMode::Performance => 20,
PowerManagementMode::ThroughputThrottling => 0, // value doesn't matter
PowerManagementMode::None => 0, // value doesn't matter
}
}
fn beacon_period(&self) -> u8 {
match self {
PowerManagementMode::SuperSave => 255,
PowerManagementMode::Aggressive => 1,
PowerManagementMode::PowerSave => 1,
PowerManagementMode::Performance => 1,
PowerManagementMode::ThroughputThrottling => 0, // value doesn't matter
PowerManagementMode::None => 0, // value doesn't matter
}
}
fn dtim_period(&self) -> u8 {
match self {
PowerManagementMode::SuperSave => 255,
PowerManagementMode::Aggressive => 1,
PowerManagementMode::PowerSave => 1,
PowerManagementMode::Performance => 1,
PowerManagementMode::ThroughputThrottling => 0, // value doesn't matter
PowerManagementMode::None => 0, // value doesn't matter
}
}
fn assoc(&self) -> u8 {
match self {
PowerManagementMode::SuperSave => 255,
PowerManagementMode::Aggressive => 10,
PowerManagementMode::PowerSave => 10,
PowerManagementMode::Performance => 1,
PowerManagementMode::ThroughputThrottling => 0, // value doesn't matter
PowerManagementMode::None => 0, // value doesn't matter
}
}
fn mode(&self) -> u32 {
match self {
PowerManagementMode::ThroughputThrottling => 1,
PowerManagementMode::None => 0,
_ => 2,
}
}
}
pub type NetDriver<'a> = ch::Device<'a, MTU>;
pub async fn new<'a, PWR, SPI>(
state: &'a mut State,
pwr: PWR,
spi: SPI,
firmware: &[u8],
) -> (NetDriver<'a>, Control<'a>, Runner<'a, PWR, SPI>)
where
PWR: OutputPin,
SPI: SpiBusCyw43,
{
let (ch_runner, device) = ch::new(&mut state.ch, [0; 6]);
let state_ch = ch_runner.state_runner();
let mut runner = Runner::new(ch_runner, Bus::new(pwr, spi), &state.ioctl_state, &state.events);
runner.init(firmware).await;
(
device,
Control::new(state_ch, &state.events, &state.ioctl_state),
runner,
)
}
fn slice8_mut(x: &mut [u32]) -> &mut [u8] {
let len = x.len() * 4;
unsafe { slice::from_raw_parts_mut(x.as_mut_ptr() as _, len) }
}

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macro_rules! nvram {
($($s:literal,)*) => {
concat_bytes!($($s, b"\x00",)* b"\x00\x00")
};
}
pub static NVRAM: &'static [u8] = &*nvram!(
b"NVRAMRev=$Rev$",
b"manfid=0x2d0",
b"prodid=0x0727",
b"vendid=0x14e4",
b"devid=0x43e2",
b"boardtype=0x0887",
b"boardrev=0x1100",
b"boardnum=22",
b"macaddr=00:A0:50:b5:59:5e",
b"sromrev=11",
b"boardflags=0x00404001",
b"boardflags3=0x04000000",
b"xtalfreq=37400",
b"nocrc=1",
b"ag0=255",
b"aa2g=1",
b"ccode=ALL",
b"pa0itssit=0x20",
b"extpagain2g=0",
b"pa2ga0=-168,6649,-778",
b"AvVmid_c0=0x0,0xc8",
b"cckpwroffset0=5",
b"maxp2ga0=84",
b"txpwrbckof=6",
b"cckbw202gpo=0",
b"legofdmbw202gpo=0x66111111",
b"mcsbw202gpo=0x77711111",
b"propbw202gpo=0xdd",
b"ofdmdigfilttype=18",
b"ofdmdigfilttypebe=18",
b"papdmode=1",
b"papdvalidtest=1",
b"pacalidx2g=45",
b"papdepsoffset=-30",
b"papdendidx=58",
b"ltecxmux=0",
b"ltecxpadnum=0x0102",
b"ltecxfnsel=0x44",
b"ltecxgcigpio=0x01",
b"il0macaddr=00:90:4c:c5:12:38",
b"wl0id=0x431b",
b"deadman_to=0xffffffff",
b"muxenab=0x100",
b"spurconfig=0x3",
b"glitch_based_crsmin=1",
b"btc_mode=1",
);

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use embassy_futures::select::{select3, Either3};
use embassy_net_driver_channel as ch;
use embassy_sync::pubsub::PubSubBehavior;
use embassy_time::{block_for, Duration, Timer};
use embedded_hal_1::digital::OutputPin;
use crate::bus::Bus;
pub use crate::bus::SpiBusCyw43;
use crate::consts::*;
use crate::events::{Event, Events, Status};
use crate::fmt::Bytes;
use crate::ioctl::{IoctlState, IoctlType, PendingIoctl};
use crate::nvram::NVRAM;
use crate::structs::*;
use crate::{events, slice8_mut, Core, CHIP, MTU};
#[cfg(feature = "firmware-logs")]
struct LogState {
addr: u32,
last_idx: usize,
buf: [u8; 256],
buf_count: usize,
}
#[cfg(feature = "firmware-logs")]
impl Default for LogState {
fn default() -> Self {
Self {
addr: Default::default(),
last_idx: Default::default(),
buf: [0; 256],
buf_count: Default::default(),
}
}
}
pub struct Runner<'a, PWR, SPI> {
ch: ch::Runner<'a, MTU>,
bus: Bus<PWR, SPI>,
ioctl_state: &'a IoctlState,
ioctl_id: u16,
sdpcm_seq: u8,
sdpcm_seq_max: u8,
events: &'a Events,
#[cfg(feature = "firmware-logs")]
log: LogState,
}
impl<'a, PWR, SPI> Runner<'a, PWR, SPI>
where
PWR: OutputPin,
SPI: SpiBusCyw43,
{
pub(crate) fn new(
ch: ch::Runner<'a, MTU>,
bus: Bus<PWR, SPI>,
ioctl_state: &'a IoctlState,
events: &'a Events,
) -> Self {
Self {
ch,
bus,
ioctl_state,
ioctl_id: 0,
sdpcm_seq: 0,
sdpcm_seq_max: 1,
events,
#[cfg(feature = "firmware-logs")]
log: LogState::default(),
}
}
pub(crate) async fn init(&mut self, firmware: &[u8]) {
self.bus.init().await;
// Init ALP (Active Low Power) clock
self.bus
.write8(FUNC_BACKPLANE, REG_BACKPLANE_CHIP_CLOCK_CSR, BACKPLANE_ALP_AVAIL_REQ)
.await;
debug!("waiting for clock...");
while self.bus.read8(FUNC_BACKPLANE, REG_BACKPLANE_CHIP_CLOCK_CSR).await & BACKPLANE_ALP_AVAIL == 0 {}
debug!("clock ok");
let chip_id = self.bus.bp_read16(0x1800_0000).await;
debug!("chip ID: {}", chip_id);
// Upload firmware.
self.core_disable(Core::WLAN).await;
self.core_reset(Core::SOCSRAM).await;
self.bus.bp_write32(CHIP.socsram_base_address + 0x10, 3).await;
self.bus.bp_write32(CHIP.socsram_base_address + 0x44, 0).await;
let ram_addr = CHIP.atcm_ram_base_address;
debug!("loading fw");
self.bus.bp_write(ram_addr, firmware).await;
debug!("loading nvram");
// Round up to 4 bytes.
let nvram_len = (NVRAM.len() + 3) / 4 * 4;
self.bus
.bp_write(ram_addr + CHIP.chip_ram_size - 4 - nvram_len as u32, NVRAM)
.await;
let nvram_len_words = nvram_len as u32 / 4;
let nvram_len_magic = (!nvram_len_words << 16) | nvram_len_words;
self.bus
.bp_write32(ram_addr + CHIP.chip_ram_size - 4, nvram_len_magic)
.await;
// Start core!
debug!("starting up core...");
self.core_reset(Core::WLAN).await;
assert!(self.core_is_up(Core::WLAN).await);
while self.bus.read8(FUNC_BACKPLANE, REG_BACKPLANE_CHIP_CLOCK_CSR).await & 0x80 == 0 {}
// "Set up the interrupt mask and enable interrupts"
// self.bus.bp_write32(CHIP.sdiod_core_base_address + 0x24, 0xF0).await;
self.bus
.write16(FUNC_BUS, REG_BUS_INTERRUPT_ENABLE, IRQ_F2_PACKET_AVAILABLE)
.await;
// "Lower F2 Watermark to avoid DMA Hang in F2 when SD Clock is stopped."
// Sounds scary...
self.bus
.write8(FUNC_BACKPLANE, REG_BACKPLANE_FUNCTION2_WATERMARK, 32)
.await;
// wait for wifi startup
debug!("waiting for wifi init...");
while self.bus.read32(FUNC_BUS, REG_BUS_STATUS).await & STATUS_F2_RX_READY == 0 {}
// Some random configs related to sleep.
// These aren't needed if we don't want to sleep the bus.
// TODO do we need to sleep the bus to read the irq line, due to
// being on the same pin as MOSI/MISO?
/*
let mut val = self.bus.read8(FUNC_BACKPLANE, REG_BACKPLANE_WAKEUP_CTRL).await;
val |= 0x02; // WAKE_TILL_HT_AVAIL
self.bus.write8(FUNC_BACKPLANE, REG_BACKPLANE_WAKEUP_CTRL, val).await;
self.bus.write8(FUNC_BUS, 0xF0, 0x08).await; // SDIOD_CCCR_BRCM_CARDCAP.CMD_NODEC = 1
self.bus.write8(FUNC_BACKPLANE, REG_BACKPLANE_CHIP_CLOCK_CSR, 0x02).await; // SBSDIO_FORCE_HT
let mut val = self.bus.read8(FUNC_BACKPLANE, REG_BACKPLANE_SLEEP_CSR).await;
val |= 0x01; // SBSDIO_SLPCSR_KEEP_SDIO_ON
self.bus.write8(FUNC_BACKPLANE, REG_BACKPLANE_SLEEP_CSR, val).await;
*/
// clear pulls
self.bus.write8(FUNC_BACKPLANE, REG_BACKPLANE_PULL_UP, 0).await;
let _ = self.bus.read8(FUNC_BACKPLANE, REG_BACKPLANE_PULL_UP).await;
// start HT clock
//self.bus.write8(FUNC_BACKPLANE, REG_BACKPLANE_CHIP_CLOCK_CSR, 0x10).await;
//debug!("waiting for HT clock...");
//while self.bus.read8(FUNC_BACKPLANE, REG_BACKPLANE_CHIP_CLOCK_CSR).await & 0x80 == 0 {}
//debug!("clock ok");
#[cfg(feature = "firmware-logs")]
self.log_init().await;
debug!("wifi init done");
}
#[cfg(feature = "firmware-logs")]
async fn log_init(&mut self) {
// Initialize shared memory for logging.
let addr = CHIP.atcm_ram_base_address + CHIP.chip_ram_size - 4 - CHIP.socram_srmem_size;
let shared_addr = self.bus.bp_read32(addr).await;
debug!("shared_addr {:08x}", shared_addr);
let mut shared = [0; SharedMemData::SIZE];
self.bus.bp_read(shared_addr, &mut shared).await;
let shared = SharedMemData::from_bytes(&shared);
self.log.addr = shared.console_addr + 8;
}
#[cfg(feature = "firmware-logs")]
async fn log_read(&mut self) {
// Read log struct
let mut log = [0; SharedMemLog::SIZE];
self.bus.bp_read(self.log.addr, &mut log).await;
let log = SharedMemLog::from_bytes(&log);
let idx = log.idx as usize;
// If pointer hasn't moved, no need to do anything.
if idx == self.log.last_idx {
return;
}
// Read entire buf for now. We could read only what we need, but then we
// run into annoying alignment issues in `bp_read`.
let mut buf = [0; 0x400];
self.bus.bp_read(log.buf, &mut buf).await;
while self.log.last_idx != idx as usize {
let b = buf[self.log.last_idx];
if b == b'\r' || b == b'\n' {
if self.log.buf_count != 0 {
let s = unsafe { core::str::from_utf8_unchecked(&self.log.buf[..self.log.buf_count]) };
debug!("LOGS: {}", s);
self.log.buf_count = 0;
}
} else if self.log.buf_count < self.log.buf.len() {
self.log.buf[self.log.buf_count] = b;
self.log.buf_count += 1;
}
self.log.last_idx += 1;
if self.log.last_idx == 0x400 {
self.log.last_idx = 0;
}
}
}
pub async fn run(mut self) -> ! {
let mut buf = [0; 512];
loop {
#[cfg(feature = "firmware-logs")]
self.log_read().await;
if self.has_credit() {
let ioctl = self.ioctl_state.wait_pending();
let tx = self.ch.tx_buf();
let ev = self.bus.wait_for_event();
match select3(ioctl, tx, ev).await {
Either3::First(PendingIoctl {
buf: iobuf,
kind,
cmd,
iface,
}) => {
self.send_ioctl(kind, cmd, iface, unsafe { &*iobuf }).await;
self.check_status(&mut buf).await;
}
Either3::Second(packet) => {
trace!("tx pkt {:02x}", Bytes(&packet[..packet.len().min(48)]));
let mut buf = [0; 512];
let buf8 = slice8_mut(&mut buf);
// There MUST be 2 bytes of padding between the SDPCM and BDC headers.
// And ONLY for data packets!
// No idea why, but the firmware will append two zero bytes to the tx'd packets
// otherwise. If the packet is exactly 1514 bytes (the max MTU), this makes it
// be oversized and get dropped.
// WHD adds it here https://github.com/Infineon/wifi-host-driver/blob/c04fcbb6b0d049304f376cf483fd7b1b570c8cd5/WiFi_Host_Driver/src/include/whd_sdpcm.h#L90
// and adds it to the header size her https://github.com/Infineon/wifi-host-driver/blob/c04fcbb6b0d049304f376cf483fd7b1b570c8cd5/WiFi_Host_Driver/src/whd_sdpcm.c#L597
// ¯\_(ツ)_/¯
const PADDING_SIZE: usize = 2;
let total_len = SdpcmHeader::SIZE + PADDING_SIZE + BdcHeader::SIZE + packet.len();
let seq = self.sdpcm_seq;
self.sdpcm_seq = self.sdpcm_seq.wrapping_add(1);
let sdpcm_header = SdpcmHeader {
len: total_len as u16, // TODO does this len need to be rounded up to u32?
len_inv: !total_len as u16,
sequence: seq,
channel_and_flags: CHANNEL_TYPE_DATA,
next_length: 0,
header_length: (SdpcmHeader::SIZE + PADDING_SIZE) as _,
wireless_flow_control: 0,
bus_data_credit: 0,
reserved: [0, 0],
};
let bdc_header = BdcHeader {
flags: BDC_VERSION << BDC_VERSION_SHIFT,
priority: 0,
flags2: 0,
data_offset: 0,
};
trace!("tx {:?}", sdpcm_header);
trace!(" {:?}", bdc_header);
buf8[0..SdpcmHeader::SIZE].copy_from_slice(&sdpcm_header.to_bytes());
buf8[SdpcmHeader::SIZE + PADDING_SIZE..][..BdcHeader::SIZE]
.copy_from_slice(&bdc_header.to_bytes());
buf8[SdpcmHeader::SIZE + PADDING_SIZE + BdcHeader::SIZE..][..packet.len()]
.copy_from_slice(packet);
let total_len = (total_len + 3) & !3; // round up to 4byte
trace!(" {:02x}", Bytes(&buf8[..total_len.min(48)]));
self.bus.wlan_write(&buf[..(total_len / 4)]).await;
self.ch.tx_done();
self.check_status(&mut buf).await;
}
Either3::Third(()) => {
self.handle_irq(&mut buf).await;
}
}
} else {
warn!("TX stalled");
self.bus.wait_for_event().await;
self.handle_irq(&mut buf).await;
}
}
}
/// Wait for IRQ on F2 packet available
async fn handle_irq(&mut self, buf: &mut [u32; 512]) {
// Receive stuff
let irq = self.bus.read16(FUNC_BUS, REG_BUS_INTERRUPT).await;
trace!("irq{}", FormatInterrupt(irq));
if irq & IRQ_F2_PACKET_AVAILABLE != 0 {
self.check_status(buf).await;
}
if irq & IRQ_DATA_UNAVAILABLE != 0 {
// TODO what should we do here?
warn!("IRQ DATA_UNAVAILABLE, clearing...");
self.bus.write16(FUNC_BUS, REG_BUS_INTERRUPT, 1).await;
}
}
/// Handle F2 events while status register is set
async fn check_status(&mut self, buf: &mut [u32; 512]) {
loop {
let status = self.bus.status();
trace!("check status{}", FormatStatus(status));
if status & STATUS_F2_PKT_AVAILABLE != 0 {
let len = (status & STATUS_F2_PKT_LEN_MASK) >> STATUS_F2_PKT_LEN_SHIFT;
self.bus.wlan_read(buf, len).await;
trace!("rx {:02x}", Bytes(&slice8_mut(buf)[..(len as usize).min(48)]));
self.rx(&mut slice8_mut(buf)[..len as usize]);
} else {
break;
}
}
}
fn rx(&mut self, packet: &mut [u8]) {
let Some((sdpcm_header, payload)) = SdpcmHeader::parse(packet) else { return };
self.update_credit(&sdpcm_header);
let channel = sdpcm_header.channel_and_flags & 0x0f;
match channel {
CHANNEL_TYPE_CONTROL => {
let Some((cdc_header, response)) = CdcHeader::parse(payload) else { return; };
trace!(" {:?}", cdc_header);
if cdc_header.id == self.ioctl_id {
if cdc_header.status != 0 {
// TODO: propagate error instead
panic!("IOCTL error {}", cdc_header.status as i32);
}
self.ioctl_state.ioctl_done(response);
}
}
CHANNEL_TYPE_EVENT => {
let Some((_, bdc_packet)) = BdcHeader::parse(payload) else {
warn!("BDC event, incomplete header");
return;
};
let Some((event_packet, evt_data)) = EventPacket::parse(bdc_packet) else {
warn!("BDC event, incomplete data");
return;
};
const ETH_P_LINK_CTL: u16 = 0x886c; // HPNA, wlan link local tunnel, according to linux if_ether.h
if event_packet.eth.ether_type != ETH_P_LINK_CTL {
warn!(
"unexpected ethernet type 0x{:04x}, expected Broadcom ether type 0x{:04x}",
event_packet.eth.ether_type, ETH_P_LINK_CTL
);
return;
}
const BROADCOM_OUI: &[u8] = &[0x00, 0x10, 0x18];
if event_packet.hdr.oui != BROADCOM_OUI {
warn!(
"unexpected ethernet OUI {:02x}, expected Broadcom OUI {:02x}",
Bytes(&event_packet.hdr.oui),
Bytes(BROADCOM_OUI)
);
return;
}
const BCMILCP_SUBTYPE_VENDOR_LONG: u16 = 32769;
if event_packet.hdr.subtype != BCMILCP_SUBTYPE_VENDOR_LONG {
warn!("unexpected subtype {}", event_packet.hdr.subtype);
return;
}
const BCMILCP_BCM_SUBTYPE_EVENT: u16 = 1;
if event_packet.hdr.user_subtype != BCMILCP_BCM_SUBTYPE_EVENT {
warn!("unexpected user_subtype {}", event_packet.hdr.subtype);
return;
}
let evt_type = events::Event::from(event_packet.msg.event_type as u8);
debug!(
"=== EVENT {:?}: {:?} {:02x}",
evt_type,
event_packet.msg,
Bytes(evt_data)
);
if self.events.mask.is_enabled(evt_type) {
let status = event_packet.msg.status;
let event_payload = match evt_type {
Event::ESCAN_RESULT if status == EStatus::PARTIAL => {
let Some((_, bss_info)) = ScanResults::parse(evt_data) else { return };
let Some(bss_info) = BssInfo::parse(bss_info) else { return };
events::Payload::BssInfo(*bss_info)
}
Event::ESCAN_RESULT => events::Payload::None,
_ => events::Payload::None,
};
// this intentionally uses the non-blocking publish immediate
// publish() is a deadlock risk in the current design as awaiting here prevents ioctls
// The `Runner` always yields when accessing the device, so consumers always have a chance to receive the event
// (if they are actively awaiting the queue)
self.events.queue.publish_immediate(events::Message::new(
Status {
event_type: evt_type,
status,
},
event_payload,
));
}
}
CHANNEL_TYPE_DATA => {
let Some((_, packet)) = BdcHeader::parse(payload) else { return };
trace!("rx pkt {:02x}", Bytes(&packet[..packet.len().min(48)]));
match self.ch.try_rx_buf() {
Some(buf) => {
buf[..packet.len()].copy_from_slice(packet);
self.ch.rx_done(packet.len())
}
None => warn!("failed to push rxd packet to the channel."),
}
}
_ => {}
}
}
fn update_credit(&mut self, sdpcm_header: &SdpcmHeader) {
if sdpcm_header.channel_and_flags & 0xf < 3 {
let mut sdpcm_seq_max = sdpcm_header.bus_data_credit;
if sdpcm_seq_max.wrapping_sub(self.sdpcm_seq) > 0x40 {
sdpcm_seq_max = self.sdpcm_seq + 2;
}
self.sdpcm_seq_max = sdpcm_seq_max;
}
}
fn has_credit(&self) -> bool {
self.sdpcm_seq != self.sdpcm_seq_max && self.sdpcm_seq_max.wrapping_sub(self.sdpcm_seq) & 0x80 == 0
}
async fn send_ioctl(&mut self, kind: IoctlType, cmd: u32, iface: u32, data: &[u8]) {
let mut buf = [0; 512];
let buf8 = slice8_mut(&mut buf);
let total_len = SdpcmHeader::SIZE + CdcHeader::SIZE + data.len();
let sdpcm_seq = self.sdpcm_seq;
self.sdpcm_seq = self.sdpcm_seq.wrapping_add(1);
self.ioctl_id = self.ioctl_id.wrapping_add(1);
let sdpcm_header = SdpcmHeader {
len: total_len as u16, // TODO does this len need to be rounded up to u32?
len_inv: !total_len as u16,
sequence: sdpcm_seq,
channel_and_flags: CHANNEL_TYPE_CONTROL,
next_length: 0,
header_length: SdpcmHeader::SIZE as _,
wireless_flow_control: 0,
bus_data_credit: 0,
reserved: [0, 0],
};
let cdc_header = CdcHeader {
cmd: cmd,
len: data.len() as _,
flags: kind as u16 | (iface as u16) << 12,
id: self.ioctl_id,
status: 0,
};
trace!("tx {:?}", sdpcm_header);
trace!(" {:?}", cdc_header);
buf8[0..SdpcmHeader::SIZE].copy_from_slice(&sdpcm_header.to_bytes());
buf8[SdpcmHeader::SIZE..][..CdcHeader::SIZE].copy_from_slice(&cdc_header.to_bytes());
buf8[SdpcmHeader::SIZE + CdcHeader::SIZE..][..data.len()].copy_from_slice(data);
let total_len = (total_len + 3) & !3; // round up to 4byte
trace!(" {:02x}", Bytes(&buf8[..total_len.min(48)]));
self.bus.wlan_write(&buf[..total_len / 4]).await;
}
async fn core_disable(&mut self, core: Core) {
let base = core.base_addr();
// Dummy read?
let _ = self.bus.bp_read8(base + AI_RESETCTRL_OFFSET).await;
// Check it isn't already reset
let r = self.bus.bp_read8(base + AI_RESETCTRL_OFFSET).await;
if r & AI_RESETCTRL_BIT_RESET != 0 {
return;
}
self.bus.bp_write8(base + AI_IOCTRL_OFFSET, 0).await;
let _ = self.bus.bp_read8(base + AI_IOCTRL_OFFSET).await;
block_for(Duration::from_millis(1));
self.bus
.bp_write8(base + AI_RESETCTRL_OFFSET, AI_RESETCTRL_BIT_RESET)
.await;
let _ = self.bus.bp_read8(base + AI_RESETCTRL_OFFSET).await;
}
async fn core_reset(&mut self, core: Core) {
self.core_disable(core).await;
let base = core.base_addr();
self.bus
.bp_write8(base + AI_IOCTRL_OFFSET, AI_IOCTRL_BIT_FGC | AI_IOCTRL_BIT_CLOCK_EN)
.await;
let _ = self.bus.bp_read8(base + AI_IOCTRL_OFFSET).await;
self.bus.bp_write8(base + AI_RESETCTRL_OFFSET, 0).await;
Timer::after(Duration::from_millis(1)).await;
self.bus
.bp_write8(base + AI_IOCTRL_OFFSET, AI_IOCTRL_BIT_CLOCK_EN)
.await;
let _ = self.bus.bp_read8(base + AI_IOCTRL_OFFSET).await;
Timer::after(Duration::from_millis(1)).await;
}
async fn core_is_up(&mut self, core: Core) -> bool {
let base = core.base_addr();
let io = self.bus.bp_read8(base + AI_IOCTRL_OFFSET).await;
if io & (AI_IOCTRL_BIT_FGC | AI_IOCTRL_BIT_CLOCK_EN) != AI_IOCTRL_BIT_CLOCK_EN {
debug!("core_is_up: returning false due to bad ioctrl {:02x}", io);
return false;
}
let r = self.bus.bp_read8(base + AI_RESETCTRL_OFFSET).await;
if r & (AI_RESETCTRL_BIT_RESET) != 0 {
debug!("core_is_up: returning false due to bad resetctrl {:02x}", r);
return false;
}
true
}
}

496
cyw43/src/structs.rs Normal file
View File

@ -0,0 +1,496 @@
use crate::events::Event;
use crate::fmt::Bytes;
macro_rules! impl_bytes {
($t:ident) => {
impl $t {
pub const SIZE: usize = core::mem::size_of::<Self>();
#[allow(unused)]
pub fn to_bytes(&self) -> [u8; Self::SIZE] {
unsafe { core::mem::transmute(*self) }
}
#[allow(unused)]
pub fn from_bytes(bytes: &[u8; Self::SIZE]) -> &Self {
let alignment = core::mem::align_of::<Self>();
assert_eq!(
bytes.as_ptr().align_offset(alignment),
0,
"{} is not aligned",
core::any::type_name::<Self>()
);
unsafe { core::mem::transmute(bytes) }
}
#[allow(unused)]
pub fn from_bytes_mut(bytes: &mut [u8; Self::SIZE]) -> &mut Self {
let alignment = core::mem::align_of::<Self>();
assert_eq!(
bytes.as_ptr().align_offset(alignment),
0,
"{} is not aligned",
core::any::type_name::<Self>()
);
unsafe { core::mem::transmute(bytes) }
}
}
};
}
#[derive(Clone, Copy)]
#[cfg_attr(feature = "defmt", derive(defmt::Format))]
#[repr(C)]
pub struct SharedMemData {
pub flags: u32,
pub trap_addr: u32,
pub assert_exp_addr: u32,
pub assert_file_addr: u32,
pub assert_line: u32,
pub console_addr: u32,
pub msgtrace_addr: u32,
pub fwid: u32,
}
impl_bytes!(SharedMemData);
#[derive(Clone, Copy)]
#[cfg_attr(feature = "defmt", derive(defmt::Format))]
#[repr(C)]
pub struct SharedMemLog {
pub buf: u32,
pub buf_size: u32,
pub idx: u32,
pub out_idx: u32,
}
impl_bytes!(SharedMemLog);
#[derive(Debug, Clone, Copy)]
#[cfg_attr(feature = "defmt", derive(defmt::Format))]
#[repr(C)]
pub struct SdpcmHeader {
pub len: u16,
pub len_inv: u16,
/// Rx/Tx sequence number
pub sequence: u8,
/// 4 MSB Channel number, 4 LSB arbitrary flag
pub channel_and_flags: u8,
/// Length of next data frame, reserved for Tx
pub next_length: u8,
/// Data offset
pub header_length: u8,
/// Flow control bits, reserved for Tx
pub wireless_flow_control: u8,
/// Maximum Sequence number allowed by firmware for Tx
pub bus_data_credit: u8,
/// Reserved
pub reserved: [u8; 2],
}
impl_bytes!(SdpcmHeader);
impl SdpcmHeader {
pub fn parse(packet: &mut [u8]) -> Option<(&mut Self, &mut [u8])> {
let packet_len = packet.len();
if packet_len < Self::SIZE {
warn!("packet too short, len={}", packet.len());
return None;
}
let (sdpcm_header, sdpcm_packet) = packet.split_at_mut(Self::SIZE);
let sdpcm_header = Self::from_bytes_mut(sdpcm_header.try_into().unwrap());
trace!("rx {:?}", sdpcm_header);
if sdpcm_header.len != !sdpcm_header.len_inv {
warn!("len inv mismatch");
return None;
}
if sdpcm_header.len as usize != packet_len {
warn!("len from header doesn't match len from spi");
return None;
}
let sdpcm_packet = &mut sdpcm_packet[(sdpcm_header.header_length as usize - Self::SIZE)..];
Some((sdpcm_header, sdpcm_packet))
}
}
#[derive(Debug, Clone, Copy)]
#[repr(C, packed(2))]
pub struct CdcHeader {
pub cmd: u32,
pub len: u32,
pub flags: u16,
pub id: u16,
pub status: u32,
}
impl_bytes!(CdcHeader);
#[cfg(feature = "defmt")]
impl defmt::Format for CdcHeader {
fn format(&self, fmt: defmt::Formatter) {
fn copy<T: Copy>(t: T) -> T {
t
}
defmt::write!(
fmt,
"CdcHeader{{cmd: {=u32:08x}, len: {=u32:08x}, flags: {=u16:04x}, id: {=u16:04x}, status: {=u32:08x}}}",
copy(self.cmd),
copy(self.len),
copy(self.flags),
copy(self.id),
copy(self.status),
)
}
}
impl CdcHeader {
pub fn parse(packet: &mut [u8]) -> Option<(&mut Self, &mut [u8])> {
if packet.len() < Self::SIZE {
warn!("payload too short, len={}", packet.len());
return None;
}
let (cdc_header, payload) = packet.split_at_mut(Self::SIZE);
let cdc_header = Self::from_bytes_mut(cdc_header.try_into().unwrap());
let payload = &mut payload[..cdc_header.len as usize];
Some((cdc_header, payload))
}
}
pub const BDC_VERSION: u8 = 2;
pub const BDC_VERSION_SHIFT: u8 = 4;
#[derive(Debug, Clone, Copy)]
#[cfg_attr(feature = "defmt", derive(defmt::Format))]
#[repr(C)]
pub struct BdcHeader {
pub flags: u8,
/// 802.1d Priority (low 3 bits)
pub priority: u8,
pub flags2: u8,
/// Offset from end of BDC header to packet data, in 4-uint8_t words. Leaves room for optional headers.
pub data_offset: u8,
}
impl_bytes!(BdcHeader);
impl BdcHeader {
pub fn parse(packet: &mut [u8]) -> Option<(&mut Self, &mut [u8])> {
if packet.len() < Self::SIZE {
return None;
}
let (bdc_header, bdc_packet) = packet.split_at_mut(Self::SIZE);
let bdc_header = Self::from_bytes_mut(bdc_header.try_into().unwrap());
trace!(" {:?}", bdc_header);
let packet_start = 4 * bdc_header.data_offset as usize;
let bdc_packet = bdc_packet.get_mut(packet_start..)?;
trace!(" {:02x}", Bytes(&bdc_packet[..bdc_packet.len().min(36)]));
Some((bdc_header, bdc_packet))
}
}
#[derive(Clone, Copy)]
#[cfg_attr(feature = "defmt", derive(defmt::Format))]
#[repr(C)]
pub struct EthernetHeader {
pub destination_mac: [u8; 6],
pub source_mac: [u8; 6],
pub ether_type: u16,
}
impl EthernetHeader {
pub fn byteswap(&mut self) {
self.ether_type = self.ether_type.to_be();
}
}
#[derive(Clone, Copy)]
#[cfg_attr(feature = "defmt", derive(defmt::Format))]
#[repr(C)]
pub struct EventHeader {
pub subtype: u16,
pub length: u16,
pub version: u8,
pub oui: [u8; 3],
pub user_subtype: u16,
}
impl EventHeader {
pub fn byteswap(&mut self) {
self.subtype = self.subtype.to_be();
self.length = self.length.to_be();
self.user_subtype = self.user_subtype.to_be();
}
}
#[derive(Debug, Clone, Copy)]
// #[cfg_attr(feature = "defmt", derive(defmt::Format))]
#[repr(C, packed(2))]
pub struct EventMessage {
/// version
pub version: u16,
/// see flags below
pub flags: u16,
/// Message (see below)
pub event_type: u32,
/// Status code (see below)
pub status: u32,
/// Reason code (if applicable)
pub reason: u32,
/// WLC_E_AUTH
pub auth_type: u32,
/// data buf
pub datalen: u32,
/// Station address (if applicable)
pub addr: [u8; 6],
/// name of the incoming packet interface
pub ifname: [u8; 16],
/// destination OS i/f index
pub ifidx: u8,
/// source bsscfg index
pub bsscfgidx: u8,
}
impl_bytes!(EventMessage);
#[cfg(feature = "defmt")]
impl defmt::Format for EventMessage {
fn format(&self, fmt: defmt::Formatter) {
let event_type = self.event_type;
let status = self.status;
let reason = self.reason;
let auth_type = self.auth_type;
let datalen = self.datalen;
defmt::write!(
fmt,
"EventMessage {{ \
version: {=u16}, \
flags: {=u16}, \
event_type: {=u32}, \
status: {=u32}, \
reason: {=u32}, \
auth_type: {=u32}, \
datalen: {=u32}, \
addr: {=[u8; 6]:x}, \
ifname: {=[u8; 16]:x}, \
ifidx: {=u8}, \
bsscfgidx: {=u8}, \
}} ",
self.version,
self.flags,
event_type,
status,
reason,
auth_type,
datalen,
self.addr,
self.ifname,
self.ifidx,
self.bsscfgidx
);
}
}
impl EventMessage {
pub fn byteswap(&mut self) {
self.version = self.version.to_be();
self.flags = self.flags.to_be();
self.event_type = self.event_type.to_be();
self.status = self.status.to_be();
self.reason = self.reason.to_be();
self.auth_type = self.auth_type.to_be();
self.datalen = self.datalen.to_be();
}
}
#[derive(Clone, Copy)]
#[cfg_attr(feature = "defmt", derive(defmt::Format))]
#[repr(C, packed(2))]
pub struct EventPacket {
pub eth: EthernetHeader,
pub hdr: EventHeader,
pub msg: EventMessage,
}
impl_bytes!(EventPacket);
impl EventPacket {
pub fn parse(packet: &mut [u8]) -> Option<(&mut Self, &mut [u8])> {
if packet.len() < Self::SIZE {
return None;
}
let (event_header, event_packet) = packet.split_at_mut(Self::SIZE);
let event_header = Self::from_bytes_mut(event_header.try_into().unwrap());
// warn!("event_header {:x}", event_header as *const _);
event_header.byteswap();
let event_packet = event_packet.get_mut(..event_header.msg.datalen as usize)?;
Some((event_header, event_packet))
}
pub fn byteswap(&mut self) {
self.eth.byteswap();
self.hdr.byteswap();
self.msg.byteswap();
}
}
#[derive(Clone, Copy)]
#[repr(C)]
pub struct DownloadHeader {
pub flag: u16, //
pub dload_type: u16,
pub len: u32,
pub crc: u32,
}
impl_bytes!(DownloadHeader);
#[allow(unused)]
pub const DOWNLOAD_FLAG_NO_CRC: u16 = 0x0001;
pub const DOWNLOAD_FLAG_BEGIN: u16 = 0x0002;
pub const DOWNLOAD_FLAG_END: u16 = 0x0004;
pub const DOWNLOAD_FLAG_HANDLER_VER: u16 = 0x1000;
// Country Locale Matrix (CLM)
pub const DOWNLOAD_TYPE_CLM: u16 = 2;
#[derive(Clone, Copy)]
#[cfg_attr(feature = "defmt", derive(defmt::Format))]
#[repr(C)]
pub struct CountryInfo {
pub country_abbrev: [u8; 4],
pub rev: i32,
pub country_code: [u8; 4],
}
impl_bytes!(CountryInfo);
#[derive(Clone, Copy)]
#[cfg_attr(feature = "defmt", derive(defmt::Format))]
#[repr(C)]
pub struct SsidInfo {
pub len: u32,
pub ssid: [u8; 32],
}
impl_bytes!(SsidInfo);
#[derive(Clone, Copy)]
#[cfg_attr(feature = "defmt", derive(defmt::Format))]
#[repr(C)]
pub struct PassphraseInfo {
pub len: u16,
pub flags: u16,
pub passphrase: [u8; 64],
}
impl_bytes!(PassphraseInfo);
#[derive(Clone, Copy)]
#[cfg_attr(feature = "defmt", derive(defmt::Format))]
#[repr(C)]
pub struct SsidInfoWithIndex {
pub index: u32,
pub ssid_info: SsidInfo,
}
impl_bytes!(SsidInfoWithIndex);
#[derive(Clone, Copy)]
#[cfg_attr(feature = "defmt", derive(defmt::Format))]
#[repr(C)]
pub struct EventMask {
pub iface: u32,
pub events: [u8; 24],
}
impl_bytes!(EventMask);
impl EventMask {
pub fn unset(&mut self, evt: Event) {
let evt = evt as u8 as usize;
self.events[evt / 8] &= !(1 << (evt % 8));
}
}
/// Parameters for a wifi scan
#[derive(Clone, Copy)]
#[cfg_attr(feature = "defmt", derive(defmt::Format))]
#[repr(C)]
pub struct ScanParams {
pub version: u32,
pub action: u16,
pub sync_id: u16,
pub ssid_len: u32,
pub ssid: [u8; 32],
pub bssid: [u8; 6],
pub bss_type: u8,
pub scan_type: u8,
pub nprobes: u32,
pub active_time: u32,
pub passive_time: u32,
pub home_time: u32,
pub channel_num: u32,
pub channel_list: [u16; 1],
}
impl_bytes!(ScanParams);
/// Wifi Scan Results Header, followed by `bss_count` `BssInfo`
#[derive(Clone, Copy)]
// #[cfg_attr(feature = "defmt", derive(defmt::Format))]
#[repr(C, packed(2))]
pub struct ScanResults {
pub buflen: u32,
pub version: u32,
pub sync_id: u16,
pub bss_count: u16,
}
impl_bytes!(ScanResults);
impl ScanResults {
pub fn parse(packet: &mut [u8]) -> Option<(&mut ScanResults, &mut [u8])> {
if packet.len() < ScanResults::SIZE {
return None;
}
let (scan_results, bssinfo) = packet.split_at_mut(ScanResults::SIZE);
let scan_results = ScanResults::from_bytes_mut(scan_results.try_into().unwrap());
if scan_results.bss_count > 0 && bssinfo.len() < BssInfo::SIZE {
warn!("Scan result, incomplete BssInfo");
return None;
}
Some((scan_results, bssinfo))
}
}
/// Wifi Scan Result
#[derive(Clone, Copy)]
// #[cfg_attr(feature = "defmt", derive(defmt::Format))]
#[repr(C, packed(2))]
#[non_exhaustive]
pub struct BssInfo {
pub version: u32,
pub length: u32,
pub bssid: [u8; 6],
pub beacon_period: u16,
pub capability: u16,
pub ssid_len: u8,
pub ssid: [u8; 32],
// there will be more stuff here
}
impl_bytes!(BssInfo);
impl BssInfo {
pub fn parse(packet: &mut [u8]) -> Option<&mut Self> {
if packet.len() < BssInfo::SIZE {
return None;
}
Some(BssInfo::from_bytes_mut(
packet[..BssInfo::SIZE].as_mut().try_into().unwrap(),
))
}
}

View File

@ -19,6 +19,8 @@ embassy-lora = { version = "0.1.0", path = "../../embassy-lora", features = ["ti
lora-phy = { version = "1" }
lorawan-device = { version = "0.10.0", default-features = false, features = ["async", "external-lora-phy"] }
lorawan = { version = "0.7.3", default-features = false, features = ["default-crypto"] }
cyw43 = { path = "../../cyw43", features = ["defmt", "firmware-logs"] }
cyw43-pio = { path = "../../cyw43-pio", features = ["defmt", "overclock"] }
defmt = "0.3"
defmt-rtt = "0.4"
@ -36,6 +38,7 @@ st7789 = "0.6.1"
display-interface = "0.4.1"
byte-slice-cast = { version = "1.2.0", default-features = false }
smart-leds = "0.3.0"
heapless = "0.7.15"
embedded-hal-1 = { package = "embedded-hal", version = "=1.0.0-alpha.10" }
embedded-hal-async = "0.2.0-alpha.1"

View File

@ -0,0 +1,139 @@
#![no_std]
#![no_main]
#![feature(type_alias_impl_trait)]
#![feature(async_fn_in_trait)]
#![allow(incomplete_features)]
use core::str::from_utf8;
use cyw43_pio::PioSpi;
use defmt::*;
use embassy_executor::Spawner;
use embassy_net::tcp::TcpSocket;
use embassy_net::{Config, Stack, StackResources};
use embassy_rp::gpio::{Level, Output};
use embassy_rp::peripherals::{DMA_CH0, PIN_23, PIN_25, PIO0};
use embassy_rp::pio::Pio;
use embassy_time::Duration;
use embedded_io::asynch::Write;
use static_cell::StaticCell;
use {defmt_rtt as _, panic_probe as _};
macro_rules! singleton {
($val:expr) => {{
type T = impl Sized;
static STATIC_CELL: StaticCell<T> = StaticCell::new();
STATIC_CELL.init_with(move || $val)
}};
}
#[embassy_executor::task]
async fn wifi_task(
runner: cyw43::Runner<'static, Output<'static, PIN_23>, PioSpi<'static, PIN_25, PIO0, 0, DMA_CH0>>,
) -> ! {
runner.run().await
}
#[embassy_executor::task]
async fn net_task(stack: &'static Stack<cyw43::NetDriver<'static>>) -> ! {
stack.run().await
}
#[embassy_executor::main]
async fn main(spawner: Spawner) {
info!("Hello World!");
let p = embassy_rp::init(Default::default());
let fw = include_bytes!("../../../../cyw43-firmware/43439A0.bin");
let clm = include_bytes!("../../../../cyw43-firmware/43439A0_clm.bin");
// To make flashing faster for development, you may want to flash the firmwares independently
// at hardcoded addresses, instead of baking them into the program with `include_bytes!`:
// probe-rs-cli download 43439A0.bin --format bin --chip RP2040 --base-address 0x10100000
// probe-rs-cli download 43439A0_clm.bin --format bin --chip RP2040 --base-address 0x10140000
//let fw = unsafe { core::slice::from_raw_parts(0x10100000 as *const u8, 224190) };
//let clm = unsafe { core::slice::from_raw_parts(0x10140000 as *const u8, 4752) };
let pwr = Output::new(p.PIN_23, Level::Low);
let cs = Output::new(p.PIN_25, Level::High);
let mut pio = Pio::new(p.PIO0);
let spi = PioSpi::new(&mut pio.common, pio.sm0, pio.irq0, cs, p.PIN_24, p.PIN_29, p.DMA_CH0);
let state = singleton!(cyw43::State::new());
let (net_device, mut control, runner) = cyw43::new(state, pwr, spi, fw).await;
unwrap!(spawner.spawn(wifi_task(runner)));
control.init(clm).await;
control
.set_power_management(cyw43::PowerManagementMode::PowerSave)
.await;
// Use a link-local address for communication without DHCP server
let config = Config::Static(embassy_net::StaticConfig {
address: embassy_net::Ipv4Cidr::new(embassy_net::Ipv4Address::new(169, 254, 1, 1), 16),
dns_servers: heapless::Vec::new(),
gateway: None,
});
// Generate random seed
let seed = 0x0123_4567_89ab_cdef; // chosen by fair dice roll. guarenteed to be random.
// Init network stack
let stack = &*singleton!(Stack::new(
net_device,
config,
singleton!(StackResources::<2>::new()),
seed
));
unwrap!(spawner.spawn(net_task(stack)));
//control.start_ap_open("cyw43", 5).await;
control.start_ap_wpa2("cyw43", "password", 5).await;
// And now we can use it!
let mut rx_buffer = [0; 4096];
let mut tx_buffer = [0; 4096];
let mut buf = [0; 4096];
loop {
let mut socket = TcpSocket::new(stack, &mut rx_buffer, &mut tx_buffer);
socket.set_timeout(Some(Duration::from_secs(10)));
control.gpio_set(0, false).await;
info!("Listening on TCP:1234...");
if let Err(e) = socket.accept(1234).await {
warn!("accept error: {:?}", e);
continue;
}
info!("Received connection from {:?}", socket.remote_endpoint());
control.gpio_set(0, true).await;
loop {
let n = match socket.read(&mut buf).await {
Ok(0) => {
warn!("read EOF");
break;
}
Ok(n) => n,
Err(e) => {
warn!("read error: {:?}", e);
break;
}
};
info!("rxd {}", from_utf8(&buf[..n]).unwrap());
match socket.write_all(&buf[..n]).await {
Ok(()) => {}
Err(e) => {
warn!("write error: {:?}", e);
break;
}
};
}
}
}

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#![no_std]
#![no_main]
#![feature(type_alias_impl_trait)]
#![feature(async_fn_in_trait)]
#![allow(incomplete_features)]
use core::str;
use cyw43_pio::PioSpi;
use defmt::*;
use embassy_executor::Spawner;
use embassy_net::Stack;
use embassy_rp::gpio::{Level, Output};
use embassy_rp::peripherals::{DMA_CH0, PIN_23, PIN_25, PIO0};
use embassy_rp::pio::Pio;
use static_cell::StaticCell;
use {defmt_rtt as _, panic_probe as _};
macro_rules! singleton {
($val:expr) => {{
type T = impl Sized;
static STATIC_CELL: StaticCell<T> = StaticCell::new();
STATIC_CELL.init_with(move || $val)
}};
}
#[embassy_executor::task]
async fn wifi_task(
runner: cyw43::Runner<'static, Output<'static, PIN_23>, PioSpi<'static, PIN_25, PIO0, 0, DMA_CH0>>,
) -> ! {
runner.run().await
}
#[embassy_executor::task]
async fn net_task(stack: &'static Stack<cyw43::NetDriver<'static>>) -> ! {
stack.run().await
}
#[embassy_executor::main]
async fn main(spawner: Spawner) {
info!("Hello World!");
let p = embassy_rp::init(Default::default());
let fw = include_bytes!("../../../../cyw43-firmware/43439A0.bin");
let clm = include_bytes!("../../../../cyw43-firmware/43439A0_clm.bin");
// To make flashing faster for development, you may want to flash the firmwares independently
// at hardcoded addresses, instead of baking them into the program with `include_bytes!`:
// probe-rs-cli download 43439A0.bin --format bin --chip RP2040 --base-address 0x10100000
// probe-rs-cli download 43439A0_clm.bin --format bin --chip RP2040 --base-address 0x10140000
//let fw = unsafe { core::slice::from_raw_parts(0x10100000 as *const u8, 224190) };
//let clm = unsafe { core::slice::from_raw_parts(0x10140000 as *const u8, 4752) };
let pwr = Output::new(p.PIN_23, Level::Low);
let cs = Output::new(p.PIN_25, Level::High);
let mut pio = Pio::new(p.PIO0);
let spi = PioSpi::new(&mut pio.common, pio.sm0, pio.irq0, cs, p.PIN_24, p.PIN_29, p.DMA_CH0);
let state = singleton!(cyw43::State::new());
let (_net_device, mut control, runner) = cyw43::new(state, pwr, spi, fw).await;
unwrap!(spawner.spawn(wifi_task(runner)));
control.init(clm).await;
control
.set_power_management(cyw43::PowerManagementMode::PowerSave)
.await;
let mut scanner = control.scan().await;
while let Some(bss) = scanner.next().await {
if let Ok(ssid_str) = str::from_utf8(&bss.ssid) {
info!("scanned {} == {:x}", ssid_str, bss.bssid);
}
}
}

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#![no_std]
#![no_main]
#![feature(type_alias_impl_trait)]
#![feature(async_fn_in_trait)]
#![allow(incomplete_features)]
use core::str::from_utf8;
use cyw43_pio::PioSpi;
use defmt::*;
use embassy_executor::Spawner;
use embassy_net::tcp::TcpSocket;
use embassy_net::{Config, Stack, StackResources};
use embassy_rp::gpio::{Level, Output};
use embassy_rp::peripherals::{DMA_CH0, PIN_23, PIN_25, PIO0};
use embassy_rp::pio::Pio;
use embassy_time::Duration;
use embedded_io::asynch::Write;
use static_cell::StaticCell;
use {defmt_rtt as _, panic_probe as _};
macro_rules! singleton {
($val:expr) => {{
type T = impl Sized;
static STATIC_CELL: StaticCell<T> = StaticCell::new();
STATIC_CELL.init_with(move || $val)
}};
}
#[embassy_executor::task]
async fn wifi_task(
runner: cyw43::Runner<'static, Output<'static, PIN_23>, PioSpi<'static, PIN_25, PIO0, 0, DMA_CH0>>,
) -> ! {
runner.run().await
}
#[embassy_executor::task]
async fn net_task(stack: &'static Stack<cyw43::NetDriver<'static>>) -> ! {
stack.run().await
}
#[embassy_executor::main]
async fn main(spawner: Spawner) {
info!("Hello World!");
let p = embassy_rp::init(Default::default());
let fw = include_bytes!("../../../../cyw43-firmware/43439A0.bin");
let clm = include_bytes!("../../../../cyw43-firmware/43439A0_clm.bin");
// To make flashing faster for development, you may want to flash the firmwares independently
// at hardcoded addresses, instead of baking them into the program with `include_bytes!`:
// probe-rs-cli download 43439A0.bin --format bin --chip RP2040 --base-address 0x10100000
// probe-rs-cli download 43439A0_clm.bin --format bin --chip RP2040 --base-address 0x10140000
//let fw = unsafe { core::slice::from_raw_parts(0x10100000 as *const u8, 224190) };
//let clm = unsafe { core::slice::from_raw_parts(0x10140000 as *const u8, 4752) };
let pwr = Output::new(p.PIN_23, Level::Low);
let cs = Output::new(p.PIN_25, Level::High);
let mut pio = Pio::new(p.PIO0);
let spi = PioSpi::new(&mut pio.common, pio.sm0, pio.irq0, cs, p.PIN_24, p.PIN_29, p.DMA_CH0);
let state = singleton!(cyw43::State::new());
let (net_device, mut control, runner) = cyw43::new(state, pwr, spi, fw).await;
unwrap!(spawner.spawn(wifi_task(runner)));
control.init(clm).await;
control
.set_power_management(cyw43::PowerManagementMode::PowerSave)
.await;
let config = Config::Dhcp(Default::default());
//let config = embassy_net::Config::Static(embassy_net::Config {
// address: Ipv4Cidr::new(Ipv4Address::new(192, 168, 69, 2), 24),
// dns_servers: Vec::new(),
// gateway: Some(Ipv4Address::new(192, 168, 69, 1)),
//});
// Generate random seed
let seed = 0x0123_4567_89ab_cdef; // chosen by fair dice roll. guarenteed to be random.
// Init network stack
let stack = &*singleton!(Stack::new(
net_device,
config,
singleton!(StackResources::<2>::new()),
seed
));
unwrap!(spawner.spawn(net_task(stack)));
loop {
//control.join_open(env!("WIFI_NETWORK")).await;
match control.join_wpa2(env!("WIFI_NETWORK"), env!("WIFI_PASSWORD")).await {
Ok(_) => break,
Err(err) => {
info!("join failed with status={}", err.status);
}
}
}
// And now we can use it!
let mut rx_buffer = [0; 4096];
let mut tx_buffer = [0; 4096];
let mut buf = [0; 4096];
loop {
let mut socket = TcpSocket::new(stack, &mut rx_buffer, &mut tx_buffer);
socket.set_timeout(Some(Duration::from_secs(10)));
control.gpio_set(0, false).await;
info!("Listening on TCP:1234...");
if let Err(e) = socket.accept(1234).await {
warn!("accept error: {:?}", e);
continue;
}
info!("Received connection from {:?}", socket.remote_endpoint());
control.gpio_set(0, true).await;
loop {
let n = match socket.read(&mut buf).await {
Ok(0) => {
warn!("read EOF");
break;
}
Ok(n) => n,
Err(e) => {
warn!("read error: {:?}", e);
break;
}
};
info!("rxd {}", from_utf8(&buf[..n]).unwrap());
match socket.write_all(&buf[..n]).await {
Ok(()) => {}
Err(e) => {
warn!("write error: {:?}", e);
break;
}
};
}
}
}