Pass electrode config from GUI to hardware.

This commit is contained in:
2026-03-02 19:06:00 +01:00
parent 04d80d4968
commit 27ee40e724
6 changed files with 228 additions and 48 deletions

View File

@@ -1,11 +1,13 @@
use std::fmt::Debug;
use log::{info, error}; use log::{info, error};
use core::f32; use core::f32;
use std::f32::consts::PI; // use std::f32::consts::PI;
use std::ops::RangeInclusive; use std::ops::RangeInclusive;
use std::sync::{Arc, Mutex}; use std::sync::{Arc, Mutex};
use std::sync::atomic::{AtomicBool, Ordering}; use std::sync::atomic::Ordering;
use chrono::Local; use chrono::Local;
@@ -22,13 +24,56 @@ use crate::plot::{TimeSeriesPlot, BodePlot};
use crate::signals::{LoggingSignal, StartStopSignal}; use crate::signals::{LoggingSignal, StartStopSignal};
use crate::icd::{BioImpedanceLeadMode, IcdDftNum, MeasurementPointSet}; use crate::icd::{BioImpedanceLeadMode, IcdDftNum, MeasurementPointSet, ElectrodeConfiguration, ElectrodeOptionsWithMultiplexer};
const LEAD_MODES: [BioImpedanceLeadMode; 2] = [ const LEAD_MODES: [BioImpedanceLeadMode; 2] = [
BioImpedanceLeadMode::TwoLead, BioImpedanceLeadMode::TwoLead,
BioImpedanceLeadMode::FourLead, BioImpedanceLeadMode::FourLead,
]; ];
struct ElectrodeSettings {
with_multiplexer_2_lead: [ElectrodeOptionsWithMultiplexer; 2],
with_multiplexer_4_lead: [ElectrodeOptionsWithMultiplexer; 4],
}
impl ElectrodeSettings {
pub fn new() -> Self {
Self {
with_multiplexer_2_lead: [
ElectrodeOptionsWithMultiplexer::E1, // Electrode+ default
ElectrodeOptionsWithMultiplexer::E23, // Electrode- default
],
with_multiplexer_4_lead: [
ElectrodeOptionsWithMultiplexer::E1, // I+ default
ElectrodeOptionsWithMultiplexer::E23, // I- default
ElectrodeOptionsWithMultiplexer::E10, // V+ default
ElectrodeOptionsWithMultiplexer::E12, // V- default
],
}
}
pub fn to_electrode_config(
&self,
hardware_connected: HardwareConnected,
lead_mode: BioImpedanceLeadMode,
) -> Option<ElectrodeConfiguration> {
if hardware_connected != HardwareConnected::WithMultiplexer {
return None;
}
match lead_mode {
BioImpedanceLeadMode::TwoLead => {
let [a, b] = self.with_multiplexer_2_lead;
Some(ElectrodeConfiguration::WithMultiplexer2Lead(a, b))
}
BioImpedanceLeadMode::FourLead => {
let [a, b, c, d] = self.with_multiplexer_4_lead;
Some(ElectrodeConfiguration::WithMultiplexer4Lead(a, b, c, d))
}
}
}
}
const DFTNUM_VARIANTS: [IcdDftNum; 13] = [ const DFTNUM_VARIANTS: [IcdDftNum; 13] = [
IcdDftNum::Num4, IcdDftNum::Num8, IcdDftNum::Num16, IcdDftNum::Num32, IcdDftNum::Num4, IcdDftNum::Num8, IcdDftNum::Num16, IcdDftNum::Num32,
IcdDftNum::Num64, IcdDftNum::Num128, IcdDftNum::Num256, IcdDftNum::Num512, IcdDftNum::Num64, IcdDftNum::Num128, IcdDftNum::Num256, IcdDftNum::Num512,
@@ -48,6 +93,13 @@ enum TabActive {
Shortcuts, Shortcuts,
} }
#[derive(Clone, Copy, Debug, PartialEq, Eq)]
pub enum HardwareConnected {
None,
WithoutMultiplexer,
WithMultiplexer,
}
pub struct App { pub struct App {
tree: DockState<String>, tree: DockState<String>,
tab_viewer: TabViewer, tab_viewer: TabViewer,
@@ -58,12 +110,13 @@ pub struct App {
pub magnitude_series: Arc<Mutex<TimeSeriesPlot>>, pub magnitude_series: Arc<Mutex<TimeSeriesPlot>>,
pub phase_series: Arc<Mutex<TimeSeriesPlot>>, pub phase_series: Arc<Mutex<TimeSeriesPlot>>,
pub bode_plot: Arc<Mutex<BodePlot>>, pub bode_plot: Arc<Mutex<BodePlot>>,
pub connected: Arc<AtomicBool>, pub hardware_connected: Arc<Mutex<HardwareConnected>>,
pub on: Arc<Mutex<bool>>, pub on: Arc<Mutex<bool>>,
tab_active: TabActive, tab_active: TabActive,
pub data_frequency: Arc<AtomicF32>, pub data_frequency: Arc<AtomicF32>,
pub single_frequency: Arc<Mutex<u32>>, pub single_frequency: Arc<Mutex<u32>>,
pub lead_mode: Arc<Mutex<BioImpedanceLeadMode>>, pub lead_mode: Arc<Mutex<BioImpedanceLeadMode>>,
electrode_settings: Arc<Mutex<ElectrodeSettings>>,
pub dft_num: Arc<Mutex<IcdDftNum>>, pub dft_num: Arc<Mutex<IcdDftNum>>,
pub measurement_points: Arc<Mutex<MeasurementPointSet>>, pub measurement_points: Arc<Mutex<MeasurementPointSet>>,
pub periods_per_dft: Arc<Mutex<Option<f32>>>, pub periods_per_dft: Arc<Mutex<Option<f32>>>,
@@ -82,7 +135,9 @@ struct TabViewer {
bode_plot: Arc<Mutex<BodePlot>>, bode_plot: Arc<Mutex<BodePlot>>,
on: Arc<Mutex<bool>>, on: Arc<Mutex<bool>>,
single_frequency: Arc<Mutex<u32>>, single_frequency: Arc<Mutex<u32>>,
hardware_connected: Arc<Mutex<HardwareConnected>>,
lead_mode: Arc<Mutex<BioImpedanceLeadMode>>, lead_mode: Arc<Mutex<BioImpedanceLeadMode>>,
electrode_settings: Arc<Mutex<ElectrodeSettings>>,
dft_num: Arc<Mutex<IcdDftNum>>, dft_num: Arc<Mutex<IcdDftNum>>,
measurement_points: Arc<Mutex<MeasurementPointSet>>, measurement_points: Arc<Mutex<MeasurementPointSet>>,
periods_per_dft: Arc<Mutex<Option<f32>>>, periods_per_dft: Arc<Mutex<Option<f32>>>,
@@ -91,6 +146,60 @@ struct TabViewer {
show_settings_toggle: Option<bool>, show_settings_toggle: Option<bool>,
} }
trait ElectrodeOption: Copy + Debug + PartialEq + 'static {
const ALL: &'static [Self];
}
impl ElectrodeOption for ElectrodeOptionsWithMultiplexer {
const ALL: &'static [Self] = &ElectrodeOptionsWithMultiplexer::ALL;
}
fn electrode_combo<T: ElectrodeOption>(
ui: &mut egui::Ui,
id: &str,
value: &mut T,
) {
egui::ComboBox::from_id_salt(id)
.selected_text(format!("{:?}", value))
.width(60.0)
.show_ui(ui, |ui| {
for &option in T::ALL {
ui.selectable_value(value, option, format!("{:?}", option));
}
});
}
fn render_two_lead<T: ElectrodeOption>(
ui: &mut egui::Ui,
values: &mut [T; 2],
) {
ui.horizontal(|ui| {
ui.label("Drive/sense: Electrode+ (");
electrode_combo(ui, "e1_select", &mut values[0]);
ui.label("), Electrode- (");
electrode_combo(ui, "e2_select", &mut values[1]);
ui.label(")");
});
}
fn render_four_lead<T: ElectrodeOption>(
ui: &mut egui::Ui,
values: &mut [T; 4],
) {
ui.horizontal(|ui| {
ui.label("Drive: I+ (");
electrode_combo(ui, "i1_select", &mut values[0]);
ui.label("), I- (");
electrode_combo(ui, "i2_select", &mut values[1]);
ui.label(") | Sense: V+ (");
electrode_combo(ui, "v1_select", &mut values[2]);
ui.label("), V- (");
electrode_combo(ui, "v2_select", &mut values[3]);
ui.label(")");
});
}
impl TabViewer { impl TabViewer {
fn single_tab(&mut self, ui: &mut egui::Ui) { fn single_tab(&mut self, ui: &mut egui::Ui) {
egui::Frame::default().inner_margin(5).show(ui, |ui| { egui::Frame::default().inner_margin(5).show(ui, |ui| {
@@ -125,11 +234,28 @@ impl TabViewer {
*lead_mode = LEAD_MODES[index]; *lead_mode = LEAD_MODES[index];
info!("Lead Mode setting changed!"); info!("Lead Mode setting changed!");
} }
});
ui.horizontal(|ui| {
// Show lead configuration // Show lead configuration
match *lead_mode { ui.label("Lead Configuration:");
BioImpedanceLeadMode::TwoLead => ui.label("Drive/sense: Electrode+ (CE0), Electrode- (AIN1)"), let hardware_connected = self.hardware_connected.lock().unwrap();
BioImpedanceLeadMode::FourLead => ui.label("Drive: I+ (CE0), I- (AIN1) | Sense: V+ (AIN2), V- (AIN3)"), let lead_mode = self.lead_mode.lock().unwrap();
let mut settings = self.electrode_settings.lock().unwrap();
match (*hardware_connected, *lead_mode) {
(HardwareConnected::WithoutMultiplexer, BioImpedanceLeadMode::TwoLead) => {
ui.label(format!("Drive/sense: Electrode+ (CE0), Electrode- (AIN1)"));
}
(HardwareConnected::WithoutMultiplexer, BioImpedanceLeadMode::FourLead) => {
ui.label(format!("Drive: I+ (CE0), I- (AIN1) | Sense: V+ (AIN2), V- (AIN3)"));
}
(HardwareConnected::WithMultiplexer, BioImpedanceLeadMode::TwoLead) => {
render_two_lead(ui, &mut settings.with_multiplexer_2_lead);
}
(HardwareConnected::WithMultiplexer, BioImpedanceLeadMode::FourLead) => {
render_four_lead(ui, &mut settings.with_multiplexer_4_lead);
}
(HardwareConnected::None, _) => {}
} }
}); });
}); });
@@ -259,11 +385,28 @@ impl TabViewer {
*lead_mode = LEAD_MODES[index]; *lead_mode = LEAD_MODES[index];
info!("Lead Mode setting changed!"); info!("Lead Mode setting changed!");
} }
});
ui.horizontal(|ui| {
// Show lead configuration // Show lead configuration
match *lead_mode { ui.label("Lead Configuration:");
BioImpedanceLeadMode::TwoLead => ui.label("Drive/sense: Electrode+ (CE0), Electrode- (AIN1)"), let hardware_connected = self.hardware_connected.lock().unwrap();
BioImpedanceLeadMode::FourLead => ui.label("Drive: I+ (CE0), I- (AIN1) | Sense: V+ (AIN2), V- (AIN3)"), let lead_mode = self.lead_mode.lock().unwrap();
let mut settings = self.electrode_settings.lock().unwrap();
match (*hardware_connected, *lead_mode) {
(HardwareConnected::WithoutMultiplexer, BioImpedanceLeadMode::TwoLead) => {
ui.label(format!("Drive/sense: Electrode+ (CE0), Electrode- (AIN1)"));
}
(HardwareConnected::WithoutMultiplexer, BioImpedanceLeadMode::FourLead) => {
ui.label("Drive: I+ (CE0), I- (AIN1) | Sense: V+ (AIN2), V- (AIN3)");
}
(HardwareConnected::WithMultiplexer, BioImpedanceLeadMode::TwoLead) => {
render_two_lead(ui, &mut settings.with_multiplexer_2_lead);
}
(HardwareConnected::WithMultiplexer, BioImpedanceLeadMode::FourLead) => {
render_four_lead(ui, &mut settings.with_multiplexer_4_lead);
}
(HardwareConnected::None, _) => {}
} }
}); });
}); });
@@ -509,7 +652,9 @@ impl App {
let phase_series = Arc::new(Mutex::new(TimeSeriesPlot::new())); let phase_series = Arc::new(Mutex::new(TimeSeriesPlot::new()));
let bode_plot = Arc::new(Mutex::new(BodePlot::new())); let bode_plot = Arc::new(Mutex::new(BodePlot::new()));
let single_frequency = Arc::new(Mutex::new(50000)); let single_frequency = Arc::new(Mutex::new(50000));
let hardware_connected = Arc::new(Mutex::new(HardwareConnected::None));
let lead_mode = Arc::new(Mutex::new(BioImpedanceLeadMode::FourLead)); let lead_mode = Arc::new(Mutex::new(BioImpedanceLeadMode::FourLead));
let electrode_settings = Arc::new(Mutex::new(ElectrodeSettings::new()));
let dft_num = Arc::new(Mutex::new(IcdDftNum::Num2048)); let dft_num = Arc::new(Mutex::new(IcdDftNum::Num2048));
let measurement_points = Arc::new(Mutex::new(MeasurementPointSet::Eighteen)); let measurement_points = Arc::new(Mutex::new(MeasurementPointSet::Eighteen));
let periods_per_dft = Arc::new(Mutex::new(None)); let periods_per_dft = Arc::new(Mutex::new(None));
@@ -525,7 +670,9 @@ impl App {
phase_series: phase_series.clone(), phase_series: phase_series.clone(),
bode_plot: bode_plot.clone(), bode_plot: bode_plot.clone(),
single_frequency: single_frequency.clone(), single_frequency: single_frequency.clone(),
hardware_connected: hardware_connected.clone(),
lead_mode: lead_mode.clone(), lead_mode: lead_mode.clone(),
electrode_settings: electrode_settings.clone(),
dft_num: dft_num.clone(), dft_num: dft_num.clone(),
measurement_points: measurement_points.clone(), measurement_points: measurement_points.clone(),
periods_per_dft: periods_per_dft.clone(), periods_per_dft: periods_per_dft.clone(),
@@ -546,12 +693,13 @@ impl App {
magnitude_series, magnitude_series,
phase_series, phase_series,
bode_plot, bode_plot,
connected: Arc::new(AtomicBool::new(false)), hardware_connected,
on, on,
tab_active, tab_active,
data_frequency: Arc::new(AtomicF32::new(0.0)), data_frequency: Arc::new(AtomicF32::new(0.0)),
single_frequency, single_frequency,
lead_mode, lead_mode,
electrode_settings,
dft_num, dft_num,
measurement_points, measurement_points,
periods_per_dft, periods_per_dft,
@@ -587,12 +735,17 @@ impl App {
pub fn update_start_stop(&self) { pub fn update_start_stop(&self) {
match (self.tab_active, *self.on.lock().unwrap()) { match (self.tab_active, *self.on.lock().unwrap()) {
(TabActive::Single, true) => { (TabActive::Single, true) => {
if let Err(e) = self.run_impedancemeter_tx.try_send(StartStopSignal::StartSingle(*self.single_frequency.lock().unwrap(), *self.lead_mode.lock().unwrap(), *self.dft_num.lock().unwrap())) { let lead_mode = *self.lead_mode.lock().unwrap();
let electrode_config = self.electrode_settings.lock().unwrap().to_electrode_config(*self.hardware_connected.lock().unwrap(), lead_mode);
if let Err(e) = self.run_impedancemeter_tx.try_send(
StartStopSignal::StartSingle(*self.single_frequency.lock().unwrap(), lead_mode, electrode_config, *self.dft_num.lock().unwrap())) {
error!("Failed to send start command: {:?}", e); error!("Failed to send start command: {:?}", e);
} }
}, },
(TabActive::Sweep, true) => { (TabActive::Sweep, true) => {
if let Err(e) = self.run_impedancemeter_tx.try_send(StartStopSignal::StartSweep(*self.lead_mode.lock().unwrap(), *self.measurement_points.lock().unwrap())) { let lead_mode = *self.lead_mode.lock().unwrap();
let electrode_config = self.electrode_settings.lock().unwrap().to_electrode_config(*self.hardware_connected.lock().unwrap(), lead_mode);
if let Err(e) = self.run_impedancemeter_tx.try_send(StartStopSignal::StartSweep(lead_mode, electrode_config, *self.measurement_points.lock().unwrap())) {
error!("Failed to send start command: {:?}", e); error!("Failed to send start command: {:?}", e);
} }
}, },
@@ -616,7 +769,7 @@ impl eframe::App for App {
// Egui add a top bar // Egui add a top bar
egui::TopBottomPanel::top("top_bar").show(ctx, |ui| { egui::TopBottomPanel::top("top_bar").show(ctx, |ui| {
egui::MenuBar::new().ui(ui, |ui| { egui::MenuBar::new().ui(ui, |ui| {
let connected = self.connected.load(Ordering::Relaxed); let is_connected = *self.hardware_connected.lock().unwrap() != HardwareConnected::None;
egui::widgets::global_theme_preference_switch(ui); egui::widgets::global_theme_preference_switch(ui);
ui.separator(); ui.separator();
@@ -641,26 +794,26 @@ impl eframe::App for App {
.min_size(egui::vec2(45.0, 0.0)) .min_size(egui::vec2(45.0, 0.0))
.frame(true); .frame(true);
if ui.add_enabled(connected, start_stop_button).clicked() { if ui.add_enabled(is_connected, start_stop_button).clicked() {
*self.on.lock().unwrap() = !on; *self.on.lock().unwrap() = !on;
self.update_start_stop(); self.update_start_stop();
} }
ui.separator(); ui.separator();
if ui.add_enabled(connected, Button::new("Reset view")).clicked() { if ui.add_enabled(is_connected, Button::new("Reset view")).clicked() {
self.reset_view(); self.reset_view();
} }
ui.separator(); ui.separator();
ui.add_enabled(connected, Label::new("Logging:")); ui.add_enabled(is_connected, Label::new("Logging:"));
let gui_logging_state = *self.gui_logging_state.lock().unwrap(); let gui_logging_state = *self.gui_logging_state.lock().unwrap();
let mut logging_enabled = !matches!(gui_logging_state, LoggingStates::Idle); let mut logging_enabled = !matches!(gui_logging_state, LoggingStates::Idle);
if ui.add_enabled(connected, toggle_start_stop(&mut logging_enabled)).changed() { if ui.add_enabled(is_connected, toggle_start_stop(&mut logging_enabled)).changed() {
let signal = match gui_logging_state { let signal = match gui_logging_state {
LoggingStates::Idle => LoggingSignal::StartFileLogging(self.log_filename.clone()), LoggingStates::Idle => LoggingSignal::StartFileLogging(self.log_filename.clone()),
LoggingStates::Starting | LoggingStates::Logging => LoggingSignal::StopFileLogging, LoggingStates::Starting | LoggingStates::Logging => LoggingSignal::StopFileLogging,
@@ -673,7 +826,7 @@ impl eframe::App for App {
ui.separator(); ui.separator();
ui.add_enabled_ui(on && logging_enabled, |ui| { ui.add_enabled_ui(is_connected && logging_enabled, |ui| {
if Button::new("Add marker").corner_radius(5.0).min_size(egui::vec2(20.0, 0.0)).ui(ui).on_hover_text("Add a marker to the current time series plots").clicked() { if Button::new("Add marker").corner_radius(5.0).min_size(egui::vec2(20.0, 0.0)).ui(ui).on_hover_text("Add a marker to the current time series plots").clicked() {
self.log_marker_modal = true; self.log_marker_modal = true;
} }
@@ -736,9 +889,17 @@ impl eframe::App for App {
// Spacer to push the LED to the right // Spacer to push the LED to the right
ui.with_layout(egui::Layout::right_to_left(egui::Align::Center), |ui| { ui.with_layout(egui::Layout::right_to_left(egui::Align::Center), |ui| {
ui.scope(|ui| { ui.scope(|ui| {
let is_connected = self.connected.load(Ordering::Relaxed); let (color, tooltip) = match *self.hardware_connected.lock().unwrap() {
let color = if is_connected { Color32::DARK_GREEN } else { Color32::DARK_RED }; HardwareConnected::None => {
let tooltip = if is_connected { "Connected" } else { "Disconnected" }; (Color32::DARK_RED, "Disconnected")
},
HardwareConnected::WithoutMultiplexer => {
(Color32::DARK_GREEN, "Connected without multiplexer")
},
HardwareConnected::WithMultiplexer => {
(Color32::DARK_GREEN, "Connected with multiplexer")
},
};
// Allocate a fixed-size rectangle for the LED // Allocate a fixed-size rectangle for the LED
let led_size = egui::Vec2::splat(12.0); let led_size = egui::Vec2::splat(12.0);

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@@ -78,7 +78,8 @@ async fn main() {
.subscribe_multi::<icd::SingleImpedanceOutputTopic>(8) .subscribe_multi::<icd::SingleImpedanceOutputTopic>(8)
.await .await
.unwrap(); .unwrap();
client.start_impedancemeter_single(freq, bioz_icd_rs::BioImpedanceLeadMode::TwoLead, bioz_icd_rs::IcdDftNum::Num2048).await.unwrap().ok(); // Todo, currently passing none for the electrode config, which only works with the non multiplexed hardware. Need to add a way to specify this in the command.
client.start_impedancemeter_single(freq, bioz_icd_rs::BioImpedanceLeadMode::TwoLead, None, bioz_icd_rs::IcdDftNum::Num2048).await.unwrap().ok();
println!("Started with dft_num 2048!"); println!("Started with dft_num 2048!");
let dur = Duration::from_millis(dur.into()); let dur = Duration::from_millis(dur.into());
@@ -96,8 +97,8 @@ async fn main() {
continue; continue;
}; };
// Todo, currently passing none for the electrode config, which only works with the non multiplexed hardware. Need to add a way to specify this in the command.
match client.start_impedancemeter_single(freq, bioz_icd_rs::BioImpedanceLeadMode::TwoLead, bioz_icd_rs::IcdDftNum::Num2048).await { match client.start_impedancemeter_single(freq, bioz_icd_rs::BioImpedanceLeadMode::TwoLead, None, bioz_icd_rs::IcdDftNum::Num2048).await {
Ok(_) => println!("Started with dft_num 2048!"), Ok(_) => println!("Started with dft_num 2048!"),
Err(e) => println!("Error starting impedancemeter: {:?}", e), Err(e) => println!("Error starting impedancemeter: {:?}", e),
}; };

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@@ -39,7 +39,7 @@ async fn main() {
let magnitude_series_clone = app.magnitude_series.clone(); let magnitude_series_clone = app.magnitude_series.clone();
let phase_series_clone = app.phase_series.clone(); let phase_series_clone = app.phase_series.clone();
let bode_clone = app.bode_plot.clone(); let bode_clone = app.bode_plot.clone();
let connected_clone = app.connected.clone(); let hardware_connected_clone = app.hardware_connected.clone();
let data_frequency_clone = app.data_frequency.clone(); let data_frequency_clone = app.data_frequency.clone();
@@ -62,7 +62,7 @@ async fn main() {
magnitude_series_clone, magnitude_series_clone,
phase_series_clone, phase_series_clone,
bode_clone, bode_clone,
connected_clone, hardware_connected_clone,
data_frequency_clone, data_frequency_clone,
periods_per_dft, periods_per_dft,
periods_per_dft_sweep, periods_per_dft_sweep,

View File

@@ -5,10 +5,10 @@ use postcard_rpc::{
}; };
use std::convert::Infallible; use std::convert::Infallible;
use bioz_icd_rs::{ use bioz_icd_rs::{
BioImpedanceLeadMode, GetUniqueIdEndpoint, ImpedanceInitResult, SweepImpedanceInitResult, SweepImpedanceStartRequest, PingEndpoint, SetGreenLedEndpoint, SingleImpedanceStartRequest, StartSweepImpedanceEndpoint, StartSingleImpedanceEndpoint, StopImpedanceEndpoint BioImpedanceLeadMode, ElectrodeConfiguration, GetMultiplexerCapabilityEndpoint, GetUniqueIdEndpoint, ImpedanceInitResult, PingEndpoint, SetGreenLedEndpoint, SingleImpedanceStartRequest, StartSingleImpedanceEndpoint, StartSweepImpedanceEndpoint, StopImpedanceEndpoint, SweepImpedanceInitResult, SweepImpedanceStartRequest
}; };
use crate::icd::{IcdDftNum, MeasurementPointSet}; use crate::icd::{IcdDftNum, MeasurementPointSet, MultiplexerCapability};
#[derive(Debug)] #[derive(Debug)]
pub struct WorkbookClient { pub struct WorkbookClient {
@@ -54,6 +54,11 @@ impl WorkbookClient {
Ok(id) Ok(id)
} }
pub async fn get_device_info(&self) -> Result<MultiplexerCapability, WorkbookError<Infallible>> {
let info = self.client.send_resp::<GetMultiplexerCapabilityEndpoint>(&()).await?;
Ok(info)
}
pub async fn set_green_led( pub async fn set_green_led(
&self, &self,
frequency: f32, frequency: f32,
@@ -66,10 +71,11 @@ impl WorkbookClient {
&self, &self,
frequency: u32, frequency: u32,
lead_mode: BioImpedanceLeadMode, lead_mode: BioImpedanceLeadMode,
electrode_config: Option<ElectrodeConfiguration>,
dft_number: IcdDftNum, dft_number: IcdDftNum,
) -> Result<ImpedanceInitResult, WorkbookError<Infallible>> { ) -> Result<ImpedanceInitResult, WorkbookError<Infallible>> {
let response = self.client let response = self.client
.send_resp::<StartSingleImpedanceEndpoint>(&SingleImpedanceStartRequest { update_frequency: 60, sinus_frequency: frequency, lead_mode, dft_number}) .send_resp::<StartSingleImpedanceEndpoint>(&SingleImpedanceStartRequest { update_frequency: 60, sinus_frequency: frequency, lead_mode, electrode_config, dft_number})
.await?; .await?;
Ok(response) Ok(response)
} }
@@ -77,10 +83,11 @@ impl WorkbookClient {
pub async fn start_impedancemeter_sweep( pub async fn start_impedancemeter_sweep(
&self, &self,
lead_mode: BioImpedanceLeadMode, lead_mode: BioImpedanceLeadMode,
electrode_config: Option<ElectrodeConfiguration>,
points: MeasurementPointSet, points: MeasurementPointSet,
) -> Result<SweepImpedanceInitResult, WorkbookError<Infallible>> { ) -> Result<SweepImpedanceInitResult, WorkbookError<Infallible>> {
let response = self.client let response = self.client
.send_resp::<StartSweepImpedanceEndpoint>(&SweepImpedanceStartRequest { lead_mode, points }) .send_resp::<StartSweepImpedanceEndpoint>(&SweepImpedanceStartRequest { lead_mode, electrode_config, points })
.await?; .await?;
Ok(response) Ok(response)
} }

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@@ -5,12 +5,12 @@ use log::{error, info};
use tokio::select; use tokio::select;
use tokio::sync::mpsc::{Receiver, Sender}; use tokio::sync::mpsc::{Receiver, Sender};
use std::sync::atomic::{AtomicBool, AtomicU32, Ordering}; use std::sync::atomic::{AtomicU32, Ordering};
use atomic_float::AtomicF32; use atomic_float::AtomicF32;
use std::sync::{Arc, Mutex}; use std::sync::{Arc, Mutex};
use bioz_icd_rs::MeasurementPointSet; use bioz_icd_rs::{MeasurementPointSet, MultiplexerCapability};
use crate::icd; use crate::icd;
use crate::client::WorkbookClient; use crate::client::WorkbookClient;
@@ -20,6 +20,8 @@ use crate::plot::{TimeSeriesPlot, BodePlot};
use crate::signals::{LoggingSignal, StartStopSignal}; use crate::signals::{LoggingSignal, StartStopSignal};
use crate::app::HardwareConnected;
pub async fn communicate_with_hardware( pub async fn communicate_with_hardware(
mut run_impedancemeter_rx: Receiver<StartStopSignal>, mut run_impedancemeter_rx: Receiver<StartStopSignal>,
run_impedancemeter_tx: Sender<StartStopSignal>, run_impedancemeter_tx: Sender<StartStopSignal>,
@@ -28,7 +30,7 @@ pub async fn communicate_with_hardware(
magnitude_series: Arc<Mutex<TimeSeriesPlot>>, magnitude_series: Arc<Mutex<TimeSeriesPlot>>,
phase_series: Arc<Mutex<TimeSeriesPlot>>, phase_series: Arc<Mutex<TimeSeriesPlot>>,
bode_series: Arc<Mutex<BodePlot>>, bode_series: Arc<Mutex<BodePlot>>,
connected: Arc<AtomicBool>, connected: Arc<Mutex<HardwareConnected>>,
data_frequency: Arc<AtomicF32>, data_frequency: Arc<AtomicF32>,
periods_per_dft: Arc<Mutex<Option<f32>>>, periods_per_dft: Arc<Mutex<Option<f32>>>,
periods_per_dft_sweep: Arc<Mutex<(Vec<u32>, Option<Vec<f32>>)>>, periods_per_dft_sweep: Arc<Mutex<(Vec<u32>, Option<Vec<f32>>)>>,
@@ -58,7 +60,16 @@ pub async fn communicate_with_hardware(
if let Some(frequency) = settings.lock().unwrap().frequency { if let Some(frequency) = settings.lock().unwrap().frequency {
run_impedancemeter_tx.send(frequency).await.unwrap(); run_impedancemeter_tx.send(frequency).await.unwrap();
} }
connected.store(true, Ordering::Relaxed); match client.get_device_info().await.unwrap() {
MultiplexerCapability::Absent => {
*connected.lock().unwrap() = HardwareConnected::WithoutMultiplexer;
info!("Connected device: Without Multiplexer");
},
MultiplexerCapability::Present => {
*connected.lock().unwrap() = HardwareConnected::WithMultiplexer;
info!("Connected device: With Multiplexer");
},
}
client client
}, },
Err(e) => { Err(e) => {
@@ -104,7 +115,7 @@ pub async fn communicate_with_hardware(
if *gui_logging_state_clone.lock().unwrap() == LoggingStates::Logging { if *gui_logging_state_clone.lock().unwrap() == LoggingStates::Logging {
let settings = *settings_clone.lock().unwrap(); let settings = *settings_clone.lock().unwrap();
match settings.frequency { match settings.frequency {
Some(StartStopSignal::StartSingle(freq, _, _)) => { Some(StartStopSignal::StartSingle(freq, _, _, _)) => {
if let Err(e) = log_tx_clone.try_send(LoggingSignal::SingleImpedance(SystemTime::now(), freq, val.magnitude, val.phase)) { if let Err(e) = log_tx_clone.try_send(LoggingSignal::SingleImpedance(SystemTime::now(), freq, val.magnitude, val.phase)) {
error!("Failed to send logging signal: {:?}", e); error!("Failed to send logging signal: {:?}", e);
} }
@@ -178,11 +189,11 @@ pub async fn communicate_with_hardware(
select! { select! {
Some(frequency) = run_impedancemeter_rx.recv() => { Some(frequency) = run_impedancemeter_rx.recv() => {
match frequency { match frequency {
StartStopSignal::StartSingle(freq, lead_mode, dft_num) => { StartStopSignal::StartSingle(freq, lead_mode, electrode_config, dft_num) => {
match workbook_client.start_impedancemeter_single(freq, lead_mode, dft_num).await { match workbook_client.start_impedancemeter_single(freq, lead_mode, electrode_config, dft_num).await {
Ok(Ok(periods)) => { Ok(Ok(periods)) => {
info!("Impedance meter started at frequency: {} with periods per DFT: {}", freq, periods); info!("Impedance meter started at frequency: {} with periods per DFT: {}", freq, periods);
settings.lock().unwrap().frequency = Some(StartStopSignal::StartSingle(freq, lead_mode, dft_num)); settings.lock().unwrap().frequency = Some(StartStopSignal::StartSingle(freq, lead_mode, electrode_config, dft_num));
*periods_per_dft.lock().unwrap() = Some(periods); *periods_per_dft.lock().unwrap() = Some(periods);
}, },
Ok(Err(e)) => { Ok(Err(e)) => {
@@ -195,10 +206,10 @@ pub async fn communicate_with_hardware(
} }
} }
}, },
StartStopSignal::StartSweep(lead_mode, num_points) => { StartStopSignal::StartSweep(lead_mode, electrode_config, num_points) => {
match workbook_client.start_impedancemeter_sweep(lead_mode, num_points).await { match workbook_client.start_impedancemeter_sweep(lead_mode, electrode_config, num_points).await {
Ok(Ok(periods)) => { Ok(Ok(periods)) => {
settings.lock().unwrap().frequency = Some(StartStopSignal::StartSweep(lead_mode, num_points)); settings.lock().unwrap().frequency = Some(StartStopSignal::StartSweep(lead_mode, electrode_config, num_points));
info!("Sweep Impedancemeter started."); info!("Sweep Impedancemeter started.");
match num_points { match num_points {
MeasurementPointSet::Eight => { MeasurementPointSet::Eight => {
@@ -246,7 +257,7 @@ pub async fn communicate_with_hardware(
} }
} }
info!("Communication with hardware ended."); info!("Communication with hardware ended.");
connected.store(false, Ordering::Relaxed); *connected.lock().unwrap() = HardwareConnected::None;
tokio::time::sleep(tokio::time::Duration::from_secs(1)).await; tokio::time::sleep(tokio::time::Duration::from_secs(1)).await;
} }
} }

View File

@@ -1,11 +1,11 @@
use std::time::SystemTime; use std::time::SystemTime;
use crate::icd::{BioImpedanceLeadMode, IcdDftNum, MeasurementPointSet}; use crate::icd::{BioImpedanceLeadMode, IcdDftNum, ElectrodeConfiguration, MeasurementPointSet};
#[derive(Copy, Clone, Debug)] #[derive(Copy, Clone, Debug)]
pub enum StartStopSignal { pub enum StartStopSignal {
StartSingle(u32, BioImpedanceLeadMode, IcdDftNum), // frequency in Hz, lead mode, DFT number StartSingle(u32, BioImpedanceLeadMode, Option<ElectrodeConfiguration>, IcdDftNum), // frequency in Hz, lead mode, electrode configuration, DFT number
StartSweep(BioImpedanceLeadMode, MeasurementPointSet), // lead mode, number of points per measurement StartSweep(BioImpedanceLeadMode, Option<ElectrodeConfiguration>, MeasurementPointSet), // lead mode, electrode configuration, number of points per measurement
Stop, Stop,
} }