use log::{info, error}; use core::f32; use std::f32::consts::PI; use std::ops::RangeInclusive; use std::sync::{Arc, Mutex}; use std::sync::atomic::{AtomicBool, Ordering}; use chrono::Local; use atomic_float::AtomicF32; use tokio::{sync::mpsc::{Sender}}; use eframe::egui::{self, Button, CollapsingHeader, Color32, ComboBox, DragValue, Id, Key, Label, Layout, Modal, Modifiers, RichText, TextEdit, Widget}; use egui_plot::{Corner, GridInput, GridMark, Legend, Line, Plot, PlotPoint, Points}; use egui_dock::{DockArea, DockState, Style}; use egui_extras::{TableBuilder, Column}; use crate::logging::LoggingStates; use crate::plot::{TimeSeriesPlot, BodePlot}; use crate::signals::{LoggingSignal, StartStopSignal}; use crate::icd::{BioImpedanceLeadMode, IcdDftNum, MeasurementPointSet}; const LEAD_MODES: [BioImpedanceLeadMode; 2] = [ BioImpedanceLeadMode::TwoLead, BioImpedanceLeadMode::FourLead, ]; const DFTNUM_VARIANTS: [IcdDftNum; 13] = [ IcdDftNum::Num4, IcdDftNum::Num8, IcdDftNum::Num16, IcdDftNum::Num32, IcdDftNum::Num64, IcdDftNum::Num128, IcdDftNum::Num256, IcdDftNum::Num512, IcdDftNum::Num1024, IcdDftNum::Num2048, IcdDftNum::Num4096, IcdDftNum::Num8192, IcdDftNum::Num16384, ]; const MEASUREMENT_POINTS_VARIANTS: [MeasurementPointSet; 2] = [ MeasurementPointSet::Eight, MeasurementPointSet::Eighteen, ]; #[derive(Clone, Copy,Debug, PartialEq, Eq)] enum TabActive { Single, Sweep, Shortcuts, } pub struct App { tree: DockState, tab_viewer: TabViewer, run_impedancemeter_tx: Sender, log_tx: Sender, pub magnitude: Arc>, pub phase: Arc>, pub magnitude_series: Arc>, pub phase_series: Arc>, pub bode_plot: Arc>, pub connected: Arc, pub on: Arc>, tab_active: TabActive, pub data_frequency: Arc, pub single_frequency: Arc>, pub lead_mode: Arc>, pub dft_num: Arc>, pub measurement_points: Arc>, pub periods_per_dft: Arc>>, pub periods_per_dft_sweep: Arc, Option>)>>, pub gui_logging_state: Arc>, log_filename: String, log_marker_modal: bool, log_marker: String, } struct TabViewer { magnitude: Arc>, phase: Arc>, magnitude_series: Arc>, phase_series: Arc>, bode_plot: Arc>, on: Arc>, single_frequency: Arc>, lead_mode: Arc>, dft_num: Arc>, measurement_points: Arc>, periods_per_dft: Arc>>, periods_per_dft_sweep: Arc, Option>)>>, show_settings: bool, show_settings_toggle: Option, } impl TabViewer { fn single_tab(&mut self, ui: &mut egui::Ui) { egui::Frame::default().inner_margin(5).show(ui, |ui| { let settings = CollapsingHeader::new("Settings") .open(self.show_settings_toggle) .show(ui, |ui| { if let Ok(on) = self.on.lock() { ui.add_enabled_ui(!*on, |ui| { ui.horizontal(|ui| { ui.label("Lead Mode:"); let mut lead_mode = self.lead_mode.lock().unwrap(); // Map current lead mode to index let mut index = LEAD_MODES .iter() .position(|&m| m == *lead_mode) .unwrap_or(0); ComboBox::from_id_salt("LeadMode") .width(60.0) .show_index(ui, &mut index, LEAD_MODES.len(), |i| { match LEAD_MODES[i] { BioImpedanceLeadMode::TwoLead => "2-Lead", BioImpedanceLeadMode::FourLead => "4-Lead", } .to_string() }); // Update lead mode if changed if *lead_mode != LEAD_MODES[index] { *lead_mode = LEAD_MODES[index]; info!("Lead Mode setting changed!"); } // Show lead configuration match *lead_mode { BioImpedanceLeadMode::TwoLead => ui.label("Drive/sense: Electrode+ (CE0), Electrode- (AIN1)"), BioImpedanceLeadMode::FourLead => ui.label("Drive: I+ (CE0), I- (AIN1) | Sense: V+ (AIN2), V- (AIN3)"), } }); }); ui.add_enabled_ui(!*on, |ui| { ui.horizontal(|ui| { ui.label("Single Frequency:"); if let Ok(mut freq) = self.single_frequency.lock() { ui.add(DragValue::new(&mut *freq).speed(0.1)); } ui.label("Hz"); }); ui.horizontal(|ui| { ui.label("ADC samples per DFT:"); let mut dft_num = self.dft_num.lock().unwrap(); let mut index = DFTNUM_VARIANTS.iter().position(|&x| x == *dft_num).unwrap_or(0); ComboBox::from_id_salt("Dftnum") .width(75.0) .show_index(ui, &mut index, DFTNUM_VARIANTS.len(), |i| { format!("{}", 1 << (2 + i)) // 2^2 = 4, 2^3 = 8, ..., 2^14 = 16384 }); let new_value = DFTNUM_VARIANTS[index]; if *dft_num != new_value { *dft_num = new_value; info!("DFTNUM setting changed!"); }; }); }); ui.add_enabled_ui(*on, |ui| { ui.horizontal(|ui| { ui.label("Periods per DFT:"); match (*on, *self.periods_per_dft.lock().unwrap()) { (true, Some(periods)) => { ui.add(Label::new(format!("{:.2}", periods))); }, (true, None) => { ui.add(Label::new("N/A")); }, (false, _) => { ui.add(Label::new("Start to determine!")); } } }); }); } }); self.show_settings_toggle = None; self.show_settings = !settings.fully_closed(); ui.separator(); let available_height = ui.available_height(); let half_height = available_height / 2.0-2.0; // Plot magnitude ui.allocate_ui_with_layout( egui::vec2(ui.available_width(), half_height), Layout::top_down(egui::Align::Min), |ui| { // Magnitude let magnitude = self.magnitude_series.lock().unwrap(); Plot::new("magnitude") .legend(Legend::default().position(Corner::LeftTop)) .y_axis_label("Magnitude [Ω]") .y_axis_min_width(80.0) .show(ui, |plot_ui| { plot_ui.line( Line::new(format!("Magnitude at {} Hz", self.single_frequency.lock().unwrap()), magnitude.plot_values()) .color(Color32::BLUE) ); }); }, ); // Plot phase ui.allocate_ui_with_layout( egui::vec2(ui.available_width(), half_height), Layout::top_down(egui::Align::Min), |ui| { // Phase let phase = self.phase_series.lock().unwrap(); Plot::new("phase") .legend(Legend::default().position(Corner::LeftTop)) .y_axis_label("Phase [rad]") .y_axis_min_width(80.0) .show(ui, |plot_ui| { plot_ui.line( Line::new(format!("Phase at {} Hz", self.single_frequency.lock().unwrap()), phase.plot_values()) .color(Color32::RED) ); }); }, ); }); } fn sweep_tab(&mut self, ui: &mut egui::Ui) { egui::Frame::default().inner_margin(5).show(ui, |ui| { let settings = CollapsingHeader::new("Settings") .open(self.show_settings_toggle) .show(ui, |ui| { if let Ok(on) = self.on.lock() { ui.add_enabled_ui(!*on, |ui| { ui.horizontal(|ui| { ui.label("Lead Mode:"); let mut lead_mode = self.lead_mode.lock().unwrap(); // Map current lead mode to index let mut index = LEAD_MODES .iter() .position(|&m| m == *lead_mode) .unwrap_or(0); ComboBox::from_id_salt("LeadMode") .width(60.0) .show_index(ui, &mut index, LEAD_MODES.len(), |i| { match LEAD_MODES[i] { BioImpedanceLeadMode::TwoLead => "2-Lead", BioImpedanceLeadMode::FourLead => "4-Lead", } .to_string() }); // Update lead mode if changed if *lead_mode != LEAD_MODES[index] { *lead_mode = LEAD_MODES[index]; info!("Lead Mode setting changed!"); } // Show lead configuration match *lead_mode { BioImpedanceLeadMode::TwoLead => ui.label("Drive/sense: Electrode+ (CE0), Electrode- (AIN1)"), BioImpedanceLeadMode::FourLead => ui.label("Drive: I+ (CE0), I- (AIN1) | Sense: V+ (AIN2), V- (AIN3)"), } }); }); ui.add_enabled_ui(!*on, |ui| { ui.horizontal(|ui| { ui.label("Measurement Points:"); let mut measurement_points = self.measurement_points.lock().unwrap(); let mut index = MEASUREMENT_POINTS_VARIANTS.iter().position(|&x| x == *measurement_points).unwrap_or(0); ComboBox::from_id_salt("MeasurementPoints") .width(75.0) .show_index(ui, &mut index, MEASUREMENT_POINTS_VARIANTS.len(), |i| { format!("{:?}", MEASUREMENT_POINTS_VARIANTS[i].len()) }); let new_value = MEASUREMENT_POINTS_VARIANTS[index]; if *measurement_points != new_value { *measurement_points = new_value; info!("Measurement Points setting changed!"); } }); }); ui.add_enabled_ui(*on, |ui| { let (freq, periods_per_dft_vec) = self.periods_per_dft_sweep.lock().unwrap().clone(); fn format_frequency(freq: u32) -> String { if freq >= 1_000 { // kHz if freq % 1_000 == 0 { format!("{}k", (freq / 1_000) as u64) } else { format!("{:.1}k", freq as f32 / 1_000.0) } } else { // Hz if freq % 1 == 0 { format!("{}", freq as u64) } else { format!("{:.1}", freq) } } } TableBuilder::new(ui) .column(Column::auto()) .columns(Column::remainder().at_most(30.0), freq.len()) .header(10.0, |mut header| { header.col(|ui| { ui.label("Frequency [Hz]:"); }); for freq in &freq { header.col(|ui| { ui.label(format_frequency(*freq)); }); } }) .body(|mut body| { body.row(5.0, |mut row| { row.col(|ui| { ui.label("Periods per DFT:"); }); if let Some(periods) = periods_per_dft_vec { for period in &periods { row.col(|ui| { ui.label(format!("{:.1}", period)); }); } } else { for _ in &freq { row.col(|ui| { ui.label("N/A"); }); } } }); }); }); } }); self.show_settings_toggle = None; self.show_settings = !settings.fully_closed(); ui.separator(); let available_height = ui.available_height(); let half_height = available_height / 2.0-2.0; // Bodeplot magnitude ui.allocate_ui_with_layout( egui::vec2(ui.available_width(), half_height), Layout::top_down(egui::Align::Min), |ui| { // Magnitude let bode_plot = self.bode_plot.lock().unwrap(); Plot::new("bode_mag") .legend(Legend::default().position(Corner::LeftTop)) .y_axis_label("Magnitude [Ω]") .x_grid_spacer(log10_grid_spacer) .x_axis_formatter(log10_axis_formatter) // .auto_bounds([true; 2].into()) .y_axis_min_width(80.0) .default_x_bounds(0.0, 200_000_f64.log10()) .label_formatter(log10x_formatter) .show(ui, |plot_ui| { plot_ui.line( Line::new("Magnitude", bode_plot.plot_magnitudes()) .color(Color32::LIGHT_BLUE) ); plot_ui.points( Points::new("Magnitude measurement", bode_plot.plot_magnitudes()) .color(Color32::BLUE) .radius(1.5) ); }); }, ); // Bodeplot phase ui.allocate_ui_with_layout( egui::vec2(ui.available_width(), half_height), Layout::top_down(egui::Align::Min), |ui| { // Phase let bode_plot = self.bode_plot.lock().unwrap(); Plot::new("bode_phase") .legend(Legend::default().position(Corner::LeftTop)) .y_axis_label("Phase [rad]") .x_grid_spacer(log10_grid_spacer) .x_axis_formatter(log10_axis_formatter) // .auto_bounds([true; 2].into()) .y_axis_min_width(80.0) .default_x_bounds(0.0, 200_000_f64.log10()) .label_formatter(log10x_formatter) .show(ui, |plot_ui| { plot_ui.line( Line::new("Phase", bode_plot.plot_phases()) .color(Color32::LIGHT_RED) ); plot_ui.points( Points::new("Phase measurement", bode_plot.plot_phases()) .color(Color32::RED) .radius(1.5) ); }); }, ); }); } fn shortcuts(&mut self, ui: &mut egui::Ui) { ui.heading("Shortcuts"); ui.label("Space: Start/Stop measurement"); ui.label("R: Reset view/plots"); ui.label("S: Toggle settings"); ui.label("L: Toggle logging"); ui.label("A: Add marker (when logging)"); ui.label("CMD-W: Close window"); } } fn log10_grid_spacer(input: GridInput) -> Vec { let base = 10u32; assert!(base >= 2); let basef = base as f64; let step_size = basef.powi(input.base_step_size.abs().log(basef).ceil() as i32); let (min, max) = input.bounds; let mut steps = vec![]; for step_size in [step_size, step_size * basef, step_size * basef * basef] { if step_size == basef.powi(-1) { // FIXME: float comparison let first = ((min / (step_size * basef)).floor() as i64) * base as i64; let last = (max / step_size).ceil() as i64; let mut logs = vec![0.0; base as usize - 2]; for (i, j) in logs.iter_mut().enumerate() { *j = basef * ((i + 2) as f64).log(basef); } steps.extend((first..last).step_by(base as usize).flat_map(|j| { logs.iter().map(move |i| GridMark { value: (j as f64 + i) * step_size, step_size, }) })); } else { let first = (min / step_size).ceil() as i64; let last = (max / step_size).ceil() as i64; steps.extend((first..last).map(move |i| GridMark { value: (i as f64) * step_size, step_size, })); } } steps } fn log10_axis_formatter(mark: GridMark, _range: &RangeInclusive) -> String { let base = 10u32; let basef = base as f64; let prec = (-mark.step_size.log10().round()).max(0.0) as usize; format!("{:.*e}", prec, basef.powf(mark.value)) } fn log10x_formatter(name: &str, value: &PlotPoint) -> String { let base = 10u32; let basef = base as f64; format!( "{}\nx: {:.d$e}\ny: {:.d$e}", name, basef.powf(value.x), value.y, d = 3 ) } impl egui_dock::TabViewer for TabViewer { type Tab = String; fn title(&mut self, tab: &mut Self::Tab) -> eframe::egui::WidgetText { (&*tab).into() } fn ui(&mut self, ui: &mut egui::Ui, tab: &mut Self::Tab) { match tab.as_str() { "Single" => self.single_tab(ui), "Sweep" => self.sweep_tab(ui), "Shortcuts" => self.shortcuts(ui), _ => { let _ = ui.label("Unknown tab"); } } } } impl App { pub fn new(run_impedancemeter_tx: Sender, log_tx: Sender) -> Self { // Step 1: Initialize shared fields first let magnitude = Arc::new(Mutex::new(0.0)); let phase = Arc::new(Mutex::new(0.0)); let magnitude_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 single_frequency = Arc::new(Mutex::new(50000)); let lead_mode = Arc::new(Mutex::new(BioImpedanceLeadMode::FourLead)); let dft_num = Arc::new(Mutex::new(IcdDftNum::Num2048)); let measurement_points = Arc::new(Mutex::new(MeasurementPointSet::Eighteen)); let periods_per_dft = Arc::new(Mutex::new(None)); let periods_per_dft_sweep = Arc::new(Mutex::new((MeasurementPointSet::Eighteen.values().to_vec(), None))); let on = Arc::new(Mutex::new(true)); let tab_active = TabActive::Single; // Step 2: Now we can initialize tab_viewer let tab_viewer = TabViewer { magnitude: magnitude.clone(), phase: phase.clone(), magnitude_series: magnitude_series.clone(), phase_series: phase_series.clone(), bode_plot: bode_plot.clone(), single_frequency: single_frequency.clone(), lead_mode: lead_mode.clone(), dft_num: dft_num.clone(), measurement_points: measurement_points.clone(), periods_per_dft: periods_per_dft.clone(), periods_per_dft_sweep: periods_per_dft_sweep.clone(), on: on.clone(), show_settings: false, show_settings_toggle: None, }; // Step 3: Construct App let app = App { tree: DockState::new(vec!["Single".to_string(), "Sweep".to_string(), "Shortcuts".to_string()]), tab_viewer, run_impedancemeter_tx, log_tx, magnitude, phase, magnitude_series, phase_series, bode_plot, connected: Arc::new(AtomicBool::new(false)), on, tab_active, data_frequency: Arc::new(AtomicF32::new(0.0)), single_frequency, lead_mode, dft_num, measurement_points, periods_per_dft, periods_per_dft_sweep, gui_logging_state: Arc::new(Mutex::new(LoggingStates::Idle)), log_filename: format!("log_{}_single.csv", Local::now().format("%Y%m%d")), log_marker_modal: false, log_marker: String::new(), }; // For testing purposes, populate the Bode plot with a sample low-pass filter response // let fc = 1000.0; // cutoff frequency in Hz // let freqs = MeasurementPointSet::Eighteen.values().to_vec(); // let magnitudes = freqs.iter() // .map(|&f| { // 1.0 / (1.0 + (f / fc).powi(2)).sqrt() // }) // .collect::>(); // let phases = freqs.iter() // .map(|&f| { // -(f / fc).atan() * 180.0 / PI // }) // .collect::>(); // app.bode_plot.lock().unwrap().update_magnitudes(MeasurementPointSet::Eighteen, magnitudes); // app.bode_plot.lock().unwrap().update_phases(MeasurementPointSet::Eighteen, phases); app.update_start_stop(); app } pub fn update_start_stop(&self) { match (self.tab_active, *self.on.lock().unwrap()) { (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())) { error!("Failed to send start command: {:?}", e); } }, (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())) { error!("Failed to send start command: {:?}", e); } }, (_, false) => { if let Err(e) = self.run_impedancemeter_tx.try_send(StartStopSignal::Stop) { error!("Failed to send stop command: {:?}", e); } }, (_, _) => {} } } pub fn reset_view(&self) { self.magnitude_series.lock().unwrap().clear(); self.phase_series.lock().unwrap().clear(); } } impl eframe::App for App { fn update(&mut self, ctx: &egui::Context, _frame: &mut eframe::Frame) { // Egui add a top bar egui::TopBottomPanel::top("top_bar").show(ctx, |ui| { egui::MenuBar::new().ui(ui, |ui| { let connected = self.connected.load(Ordering::Relaxed); egui::widgets::global_theme_preference_switch(ui); ui.separator(); ui.label(format!("Data rate: {} Hz", self.data_frequency.load(Ordering::Relaxed))); ui.separator(); let on = *self.on.lock().unwrap(); let (color, text) = match on { true => (Color32::DARK_RED, "Stop"), false => (Color32::DARK_GREEN, "Start"), }; let start_stop_button = Button::new( RichText::new(text) .strong() .color(Color32::WHITE) ).fill(color) .corner_radius(5.0) .min_size(egui::vec2(45.0, 0.0)) .frame(true); if ui.add_enabled(connected, start_stop_button).clicked() { *self.on.lock().unwrap() = !on; self.update_start_stop(); } ui.separator(); if ui.add_enabled(connected, Button::new("Reset view")).clicked() { self.reset_view(); } ui.separator(); ui.add_enabled(connected, Label::new("Logging:")); let gui_logging_state = *self.gui_logging_state.lock().unwrap(); let mut logging_enabled = !matches!(gui_logging_state, LoggingStates::Idle); if ui.add_enabled(connected, toggle_start_stop(&mut logging_enabled)).changed() { let signal = match gui_logging_state { LoggingStates::Idle => LoggingSignal::StartFileLogging(self.log_filename.clone()), LoggingStates::Starting | LoggingStates::Logging => LoggingSignal::StopFileLogging, }; self.log_tx.try_send(signal).unwrap_or_else(|e| { error!("Failed to send logging toggle signal: {:?}", e); }); }; ui.separator(); ui.add_enabled_ui(on && 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() { self.log_marker_modal = true; } }); if self.log_marker_modal { if Modal::new(Id::new("modal_marker")) .show(ctx, |ui| { ui.vertical_centered(|ui| { ui.heading("Add marker"); ui.add_space(16.0); // Input field for marker let text_edit_response = TextEdit::singleline(&mut self.log_marker) .desired_width(100.0) .id(Id::new("marker_field")) .hint_text("Marker name") .ui(ui); ui.add_space(16.0); // Centered Add button let add_clicked = Button::new("Add") .corner_radius(5.0) .min_size(egui::vec2(80.0, 30.0)) .ui(ui) .clicked(); // Check for Enter key in the TextEdit let enter_pressed = text_edit_response.lost_focus() && ui.input(|i| i.key_pressed(egui::Key::Enter)); if add_clicked || enter_pressed { info!("Adding marker: {}", self.log_marker); self.log_tx.try_send(LoggingSignal::AddMarker(self.log_marker.clone())).unwrap_or_else(|e| { error!("Failed to send logging marker signal: {:?}", e); }); self.log_marker = String::new(); ui.close(); } // Request focus on the text edit when the modal opens text_edit_response.request_focus(); }); }) .should_close() { self.log_marker_modal = false; self.log_marker = String::new(); } } ui.separator(); ui.add_enabled_ui(gui_logging_state == LoggingStates::Idle, |ui| { ui.label("Log filename:"); TextEdit::singleline(&mut self.log_filename).desired_width(150.0).id(Id::new("file_name_field")).ui(ui); }); // Spacer to push the LED to the right ui.with_layout(egui::Layout::right_to_left(egui::Align::Center), |ui| { ui.scope(|ui| { let is_connected = self.connected.load(Ordering::Relaxed); let color = if is_connected { Color32::DARK_GREEN } else { Color32::DARK_RED }; let tooltip = if is_connected { "Connected" } else { "Disconnected" }; // Allocate a fixed-size rectangle for the LED let led_size = egui::Vec2::splat(12.0); let (rect, response) = ui.allocate_exact_size(led_size, egui::Sense::hover()); // Draw the circle let center = rect.center(); let radius = 5.0; ui.painter().circle_filled(center, radius, color); // Tooltip if response.hovered() { response.on_hover_text(tooltip); } }); }); }); }); egui::CentralPanel::default().show(ctx, |ui| { DockArea::new(&mut self.tree) .style(Style::from_egui(ctx.style().as_ref())) .show_leaf_close_all_buttons(false) .show_leaf_collapse_buttons(false) .show_close_buttons(false) .show_inside(ui, &mut self.tab_viewer); }); // Do something when a tab is changed if let Some((_, tab)) = self.tree.find_active_focused() { match tab.as_str() { "Single" => { if self.tab_active != TabActive::Single { self.tab_active = TabActive::Single; *self.on.lock().unwrap() = false; self.update_start_stop(); if *self.gui_logging_state.lock().unwrap() == LoggingStates::Logging { self.log_tx.try_send(LoggingSignal::StopFileLogging).unwrap_or_else(|e| { error!("Failed to send logging logging signal: {:?}", e); }); } self.log_filename = format!("log_{}_single.csv", Local::now().format("%Y%m%d")); info!("Switched to Single tab"); } } "Sweep" => { if self.tab_active != TabActive::Sweep { self.tab_active = TabActive::Sweep; *self.on.lock().unwrap() = false; self.update_start_stop(); if *self.gui_logging_state.lock().unwrap() == LoggingStates::Logging { self.log_tx.try_send(LoggingSignal::StopFileLogging).unwrap_or_else(|e| { error!("Failed to send logging logging signal: {:?}", e); }); } self.log_filename = format!("log_{}_sweep.csv", Local::now().format("%Y%m%d")); info!("Switched to Sweep tab"); } } "Shortcuts" => { // if self.tab_active != TabActive::Shortcuts { // self.tab_active = TabActive::Shortcuts; // *self.on.lock().unwrap() = false; // self.update_start_stop(); // info!("Switched to Shortcuts tab"); // } } _ => { } } } // CMD- or control-W to close window if ctx.input(|i| i.modifiers.cmd_ctrl_matches(Modifiers::COMMAND)) && ctx.input(|i| i.key_pressed(Key::W)) { ctx.send_viewport_cmd(egui::ViewportCommand::Close); } // Check if the file name field is focused // If it is, we don't want to trigger shortcuts let file_name_field_is_focused = ctx.memory(|memory| memory.has_focus(Id::new("file_name_field"))); let marker_field_is_focused = ctx.memory(|memory| memory.has_focus(Id::new("marker_field"))); if !file_name_field_is_focused && !marker_field_is_focused { // Space to start/stop measurement if ctx.input(|i| i.key_pressed(Key::Space)) { let value = *self.on.lock().unwrap(); *self.on.lock().unwrap() = !value; self.update_start_stop(); } // Send stop command when the window is closed if ctx.input(|i| i.viewport().close_requested()) { *self.on.lock().unwrap() = false; self.update_start_stop(); } // Reset view if ctx.input(|i| i.key_pressed(Key::R)) { self.reset_view(); } // Toggle marker modal if ctx.input(|i| i.key_pressed(egui::Key::A)) && *self.gui_logging_state.lock().unwrap() == LoggingStates::Logging { self.log_marker_modal = !self.log_marker_modal; } // Enable/disable GUI logging if ctx.input(|i| i.key_pressed(egui::Key::L)) { let gui_logging_enabled = *self.gui_logging_state.lock().unwrap(); match gui_logging_enabled { LoggingStates::Starting => { // If currently starting, do nothing return; }, LoggingStates::Logging => { if let Err(e) = self.log_tx.try_send(LoggingSignal::StopFileLogging) { error!("Failed to send logging signal: {:?}", e); } }, LoggingStates::Idle => { if let Err(e) = self.log_tx.try_send(LoggingSignal::StartFileLogging(self.log_filename.clone())) { error!("Failed to send logging signal: {:?}", e); } }, } } // Toggle setttings view if ctx.input(|i| i.key_pressed(egui::Key::S)) { self.tab_viewer.show_settings = !self.tab_viewer.show_settings; if self.tab_viewer.show_settings { self.tab_viewer.show_settings_toggle = Some(true); } else { self.tab_viewer.show_settings_toggle = Some(false); } } } ctx.request_repaint(); } } fn toggle_ui_start_stop(ui: &mut egui::Ui, on: &mut bool) -> egui::Response { let desired_size = ui.spacing().interact_size.y * egui::vec2(2.0, 1.0); let (rect, mut response) = ui.allocate_exact_size(desired_size, egui::Sense::click()); if response.clicked() { *on = !*on; response.mark_changed(); } response.widget_info(|| { egui::WidgetInfo::selected(egui::WidgetType::Checkbox, ui.is_enabled(), *on, "") }); if ui.is_rect_visible(rect) { let how_on = ui.ctx().animate_bool_responsive(response.id, *on); let visuals = ui.style().interact_selectable(&response, *on); let rect = rect.expand(visuals.expansion); let radius = 0.5 * rect.height(); ui.painter().rect( rect, radius, visuals.bg_fill, visuals.bg_stroke, egui::StrokeKind::Inside, ); let circle_x = egui::lerp((rect.left() + radius)..=(rect.right() - radius), how_on); let center = egui::pos2(circle_x, rect.center().y); ui.painter() .circle(center, 0.75 * radius, visuals.bg_fill, visuals.fg_stroke); } response } pub fn toggle_start_stop(on: &mut bool) -> impl egui::Widget + '_ { move |ui: &mut egui::Ui| toggle_ui_start_stop(ui, on) }