laserspace/src/bin/render_lines_gui.rs
2025-07-03 14:38:01 +02:00

993 lines
33 KiB
Rust

//! From https://github.com/seem-less/nannou/blob/helios_laser_DAC/examples/laser/laser_frame_stream_gui.rs
//! A clone of the `laser_frame_stream.rs` example that allows for configuring laser settings via a
//! UI.
// use bevy_nannou::prelude::DARK_GRAY;
// use nannou::lyon::geom::euclid::Transform2D;
use nannou::{geom::Rect, math::map_range as nannou_map_range};
use nannou::prelude::*;
// use nannou_egui::egui::emath::inverse_lerp;
use nannou_egui::{self, egui, Egui};
use nannou_laser::DacId;
use nannou_laser::{self as laser};
use serde_json::Result;
use trap_rust::trap::filters::PointFilters;
use trap_rust::trap::laser::{LaserPoints, StreamSource, STREAM_SOURCES, TMP_DESK_CLUBMAX};
use trap_rust::trap::tracks::CoordinateSpace;
use trap_rust::trap::{laser::{python_cv_h_into_mat3, LaserModel, TMP_PYTHON_LASER_H, DacConfig}, tracks::{RenderableLines}};
use zmq::Socket;
use std::sync::{mpsc, Arc};
use std::time::{Instant, Duration};
use std::collections::HashMap;
use serde::{Serialize,Deserialize};
use std::error::Error;
use std::fs::File;
use std::io::BufReader;
use std::path::Path;
// use egui_dropdown::DropDownBox;
const CONFIG_FILE_PATH: &str = "./config.json";
fn main() {
nannou::app(model).update(update).run();
}
pub struct StreamConfig{
pub stream: laser::FrameStream<LaserModel>,
pub config: DacConfig,
}
type StreamConfigMap = HashMap<DacId, StreamConfig>;
type StreamMap = HashMap<DacId, laser::FrameStream<LaserModel>>;
struct GuiModel {
// A handle to the laser API used for spawning streams and detecting DACs.
laser_api: Arc<laser::Api>,
// All of the live stream handles.
laser_streams: StreamMap,
// A copy of the state that will live on the laser thread so we can present a GUI.
laser_model: LaserModel,
// A copy of the laser settings so that we can control them with the GUI.
laser_settings: LaserSettings,
per_laser_config: DacConfigMap,
// For receiving newly detected DACs.
dac_rx: mpsc::Receiver<laser::DetectedDac>,
// The UI for control over laser parameters and settings.
egui: Egui,
// socket for receiving points
zmq: Socket,
current_lines: RenderableLines, // a copy for the drawing renderer
last_update: Instant,
// dimming_factor: f32,
lost_alpha: f32,
connected: bool,
selected_stream: Option<DacId>,
// canvas_transform: Translation2D<f32, ScreenSpace, ScreenSpace>,
// dragging: bool,
}
struct LaserSettings {
point_hz: u32,
latency_points: u32,
frame_hz: u32,
enable_optimisations: bool,
enable_draw_reorder: bool,
distance_per_point: f32,
blank_delay_points: u32,
radians_per_point: f32,
}
impl Default for LaserSettings {
fn default() -> Self {
use laser::stream;
use laser::stream::frame::InterpolationConfig;
LaserSettings {
point_hz: 30000, //stream::DEFAULT_POINT_HZ,
latency_points: stream::points_per_frame(
stream::DEFAULT_POINT_HZ,
stream::DEFAULT_FRAME_HZ,
) * 4,
frame_hz: 35, //stream::DEFAULT_FRAME_HZ,
enable_optimisations: true,
enable_draw_reorder: true,
distance_per_point: InterpolationConfig::DEFAULT_DISTANCE_PER_POINT,
blank_delay_points: InterpolationConfig::DEFAULT_BLANK_DELAY_POINTS,
radians_per_point: InterpolationConfig::DEFAULT_RADIANS_PER_POINT,
}
}
}
fn setup_zmq() -> Socket{
// let url = "tcp://100.109.175.82:99174";
let url = "tcp://127.0.0.1:99174";
let context = zmq::Context::new();
let subscriber = context.socket(zmq::SUB).unwrap();
subscriber.set_conflate(true).unwrap(); // only keep latest entry
assert!(subscriber.connect(url).is_ok());
// let filter = "10001";
let filter = ""; //"msgs";
assert!(subscriber.set_subscribe(filter.as_bytes()).is_ok());
subscriber
}
// fn zmq_receive(subscriber: &Socket, laser_streams: &Vec<laser::FrameStream<LaserModel>>) {
/// Receive items if available on the queue and update Model with the new data
fn zmq_receive(model: &mut GuiModel) {
let subscriber = &model.zmq;
let mut items = [
subscriber.as_poll_item(zmq::POLLIN)
];
let _nr = zmq::poll(&mut items, 0).unwrap();
let lines: RenderableLines;
if items[0].is_readable() {
let json = subscriber.recv_string(0).unwrap().unwrap();
// dbg!(&json[4..]);
// let msg: Frame = serde_json::from_str(&json[4..]).expect("No valid json?");
let res: Result<RenderableLines> = serde_json::from_str(&json);
model.lost_alpha = 1.;
model.connected = true;
lines = match res {
Ok(lines) => lines, // if Ok(255), set x to 255
Err(_e) => {
println!("No valid json?");
println!("{}", _e);
// empty if invalid
RenderableLines::new()
}, // if Err("some message"), panic with error message "some message"
};
} else if model.last_update < Instant::now() - Duration::from_millis(100){
// set lines empty, if no new input for > 100ms (10fps)
model.connected = false;
if model.lost_alpha > 0.{
println!("No input, clear lines!!");
model.lost_alpha *= 0.80;
if model.lost_alpha < 0.1{
model.lost_alpha = 0.;
}
lines = model.current_lines.with_alpha(model.lost_alpha);
} else {
lines = RenderableLines::new()
}
} else {
// No new lines, break
return
}
// println!("receive {}", lines.lines.len());
for (_dac, stream) in (&model.laser_streams).into_iter() {
// let lines = get_laser_lines(version);
let lines_for_laser: RenderableLines = lines.clone();
let sending = stream.send(move |laser_model: &mut LaserModel| {
let laser_lines: RenderableLines = lines_for_laser;
laser_model.current_lines = laser_lines;
});
if let Err(e) = sending {
println!("Error sending to laser! {e:?}");
}
}
model.current_lines = lines;
model.last_update = Instant::now();
}
type DacConfigMap = HashMap<DacId, DacConfig>;
#[derive(Debug, Serialize, Deserialize)]
#[serde(remote = "DacId")]
pub enum DacIdSerializable {
EtherDream { mac_address: [u8; 6] },
Helios { id: u32 },
}
#[derive(Debug, Serialize, Deserialize)]
pub struct SavedDacConfig{
#[serde(with = "DacIdSerializable")]
dac_id: DacId,
config: DacConfig,
}
#[derive(Debug, Serialize, Deserialize)]
pub struct SavedConfig {
dacs: Vec<SavedDacConfig>
}
impl Into<DacConfigMap> for SavedConfig {
fn into(self) -> DacConfigMap {
let mut configs = HashMap::new();
for dac in self.dacs {
configs.insert(dac.dac_id, dac.config);
}
configs
}
}
impl From<&mut DacConfigMap> for SavedConfig {
fn from(per_laser_config: &mut DacConfigMap) -> SavedConfig {
let mut dacs = Vec::new();
for (dac_id, config) in per_laser_config.into_iter() {
dacs.push(SavedDacConfig{
dac_id: dac_id.clone(), config: config.clone()
});
}
SavedConfig {
dacs
}
}
}
fn read_config_from_file<P: AsRef<Path>>(path: P) -> std::result::Result<SavedConfig, Box<dyn Error>> {
// Open the file in read-only mode with buffer.
let file = File::open(path)?;
let reader = BufReader::new(file);
// Read the JSON contents of the file as an instance of `DacConfig`.
let u = serde_json::from_reader(reader)?;
Ok(u)
}
fn save_config_file<P: AsRef<Path>>(path: P, config: SavedConfig) -> std::result::Result<(), Box<dyn Error>> {
// Open the file in read-only mode with buffer.
let mut file = File::create(path)?;
serde_json::to_writer(&mut file, &config)?;
Ok(())
}
// Some hardcoded config. Not spending time on reading/writing config atm.
fn get_dac_configs() -> DacConfigMap{
match read_config_from_file(CONFIG_FILE_PATH) {
Err(err) => {
eprintln!("Could not load config {}", err);
return HashMap::new()
},
Ok(saved_config) => return saved_config.into(),
}
}
fn model(app: &App) -> GuiModel {
// Create a window to receive keyboard events.
let w_id_lasersettings = app
.new_window()
.size(312, 530)
// .key_pressed(key_pressed)
.raw_event(raw_window_event)
.view(view_laser_settings)
.build()
.unwrap();
let w_id_linecanvas = app
.new_window()
.size(1024, 768)
// .key_pressed(key_pressed)
// .mouse_wheel(canvas_zoom)
.view(view_line_canvas)
.build()
.unwrap();
let w_id_laserpreview = app
.new_window()
.size(1024, 1024)
// .key_pressed(key_pressed)
// .mouse_wheel(canvas_zoom)
.mouse_pressed(laser_preview_mouse_pressed)
.view(view_laser_preview)
.build()
.unwrap();
// Initialise the state that we want to live on the laser thread and spawn the stream.
let laser_settings = LaserSettings::default();
let laser_model = LaserModel::new();
let zmq = setup_zmq();
// TODO Implement `Clone` for `Api` so that we don't have to `Arc` it.
let laser_api = Arc::new(laser::Api::new());
// A channel for receiving newly detected DACs.
let (dac_tx, dac_rx) = mpsc::channel();
// Spawn a thread for detecting the DACs.
let laser_api2 = laser_api.clone();
std::thread::spawn(move || {
let mut detected = std::collections::HashSet::new();
// detect Helios DACs first since they can't be detected while simultaneously sending data to them
for res in laser_api2.detect_dacs(laser::DacVariant::DacVariantHelios) {
if let laser::DetectDacs::Helios { previous_dac } = res {
if !detected.insert(laser::DetectedDac::from(previous_dac).id()) {
break;
}
}
}
for detected_helios in &detected {
if let laser::dac_manager::Id::Helios { id } = *detected_helios {
let dac: laser::helios_dac::NativeHeliosDacParams = id.into();
println!("{:#?}", dac);
if dac_tx.send(dac.into()).is_err() {
break;
}
}
}
// for Etherdream DAC
for res in laser_api2
.detect_dacs(laser::DacVariant::DacVariantEtherdream)
.expect("failed to start detecting Etherdream DACs")
{
let dac = res.expect("error occurred during DAC detection");
if detected.insert(dac.id()) {
// DacId::EtherDream { mac_address: () }
println!("{:#?}", dac);
if dac_tx.send(dac).is_err() {
break;
}
}
}
});
// We'll use a `Vec` to collect laser streams as they appear.
let laser_streams = HashMap::new(); //vec![];
// A user-interface to tweak the settings.
let window = app.window(w_id_lasersettings).unwrap();
let egui = Egui::from_window(&window);
let egui_ctx = egui.ctx();
egui_ctx.set_style(style());
let current_lines = RenderableLines::new(); //Vec::new();
GuiModel {
laser_api,
laser_settings,
laser_model,
laser_streams,
dac_rx,
egui,
zmq,
current_lines: current_lines,
last_update: Instant::now(),
lost_alpha: 1.,
connected: true,
per_laser_config: get_dac_configs(),
selected_stream: None,
// canvas_transform: Transform2D
// dimming_factor: 1.,
}
}
fn laser_frame_producer(model: &mut LaserModel, frame: &mut laser::Frame){
let current_points: LaserPoints = (&model.current_lines).into();
let space = &model.current_lines.space;
// check which source should be used, and get points accordingly.
// potentially ignoring the points coming from the stream
let points = model.config.source.get_shape(current_points);
let pointno = points.points.len();
let new_points = model.config.filters.apply(&points);
let new_laser_points = new_points.points;
// if new_laser_points.len() < pointno {
// println!("Cropped Points {} (was: {})", new_laser_points.len(), pointno);
// }
frame.add_lines(new_laser_points);
return;
}
fn raw_window_event(_app: &App, model: &mut GuiModel, event: &nannou::winit::event::WindowEvent) {
model.egui.handle_raw_event(event);
}
fn update(_app: &App, model: &mut GuiModel, update: Update) {
// First, check for new laser DACs.
for dac in model.dac_rx.try_recv() {
println!("Detected DAC {:?}!", dac.id());
if !model.per_laser_config.contains_key(&dac.id()) {
println!("Found unknown DAC, register with defaults");
model.per_laser_config.insert(dac.id(), DacConfig::default());
}
let config = &model.per_laser_config[&dac.id()];
let stream = model
.laser_api
.new_frame_stream(model.laser_model.with_config(config), laser_frame_producer)
.detected_dac(dac.clone())
.build()
.expect("failed to establish stream with newly detected DAC");
// dbg!(stream.enable_draw_reorder());
model.laser_streams.insert(dac.id(), stream);
// match save_config_file("./config.json", model.per_laser_config.clone().into()) {
// Err(err) => eprintln!("failed saving config: {}", err),
// Ok(_) => println!("Saved config"),
// };
}
// Check if any streams have dropped out (e.g network issues, DAC turned off) and attempt to
// start them again.
let mut dropped = vec![];
for (dac_id, stream) in model.laser_streams.iter() {
if stream.is_closed() {
dropped.push(dac_id.clone());
}
}
for dac_id in dropped.into_iter().rev() {
// let stream = ;
let s = model.laser_streams.remove(&dac_id);
// if model.selected_stream == Some(dac_id){
// model.selected_stream = None;
// }
if let Some(stream) = s{
let dac = stream
.dac()
.expect("`dac` returned `None` even though one was specified during stream creation");
let res = stream
.close()
.expect("stream was unexpectedly already closed from another stream handle")
.expect("failed to join stream thread");
if let Err(err) = res {
eprintln!("Stream closed due to an error: {}", err);
}
// TODO: keeps looping on disconnect.
println!("attempting to restart stream with DAC {:?}", dac.id());
let dac_id = dac.id();
let config = &model.per_laser_config[&dac.id()];
match model
.laser_api
.new_frame_stream(model.laser_model.with_config(config), laser_frame_producer)
.detected_dac(dac)
.build()
{
Err(err) => eprintln!("failed to restart stream: {}", err),
Ok(stream) => {
println!("Reinsert stream. {:?}", dac_id);
model.laser_streams.insert(dac_id, stream);
},
}
}
}
// check if new messages have arrived. Update the model with new data.
zmq_receive(model);
// Update the GUI.
let GuiModel {
ref mut egui,
ref mut laser_streams,
ref mut laser_model,
ref mut laser_settings,
ref mut per_laser_config,
ref mut selected_stream,
ref mut current_lines,
..
} = *model;
egui.set_elapsed_time(update.since_start);
let ctx = egui.begin_frame();
// The timeline area.
egui::containers::CentralPanel::default().show(&ctx, |ui| {
fn grid_min_col_width(ui: &egui::Ui, n_options: usize) -> f32 {
let gap_space = ui.spacing().item_spacing.x * (n_options as f32 - 1.0);
let grid_w = ui.available_width();
(grid_w - gap_space) / n_options as f32
}
ui.horizontal(|ui| {
ui.heading("Laser Points");
if ui.button("💾").clicked() {
save_config_file(CONFIG_FILE_PATH, per_laser_config.into());
}
});
ui.separator();
ui.add(egui::Label::new(format!("Lines {}", current_lines.lines.len())));
ui.add(egui::Label::new(format!("Points {}", current_lines.point_count())));
ui.heading("General settings");
if ui
.add(egui::Slider::new(&mut laser_settings.point_hz, 1_000..=50_000).text("DAC PPS"))
.changed()
{
let hz = laser_settings.point_hz;
for (_dac_id, stream) in laser_streams.iter() {
stream.set_point_hz(hz).ok();
}
}
if ui
.add(egui::Slider::new(&mut laser_settings.latency_points, 10..=1_500).text("Latency"))
.changed()
{
let latency = laser_settings.latency_points;
for (_dac_id, stream) in laser_streams.iter() {
stream.set_latency_points(latency).ok();
}
}
if ui
.add(egui::Slider::new(&mut laser_settings.frame_hz, 1..=120).text("Target FPS"))
.changed()
{
let hz = laser_settings.frame_hz;
for (_dac_id, stream) in laser_streams.iter() {
stream.set_frame_hz(hz).ok();
}
}
ui.separator();
ui.heading("Laser Path Interpolation");
if ui
.checkbox(&mut laser_settings.enable_optimisations, "Optimize Path")
.changed()
{
for (_dac_id, stream) in laser_streams.iter() {
stream
.enable_optimisations(laser_settings.enable_optimisations)
.ok();
}
}
if ui
.add_enabled(laser_settings.enable_optimisations,
egui::Checkbox::new(&mut laser_settings.enable_draw_reorder,"Reorder paths")
)
// .checkbox(&mut laser_settings.enable_draw_reorder, "Reorder paths")
.changed()
{
for (_dac_id, stream) in laser_streams.iter() {
stream
.enable_draw_reorder(laser_settings.enable_draw_reorder)
.ok();
}
}
if ui
.add_enabled(laser_settings.enable_optimisations,
egui::Slider::new(&mut laser_settings.distance_per_point, 0.01..=1.0)
.text("Distance Per Point"),
)
.changed()
{
let distance = laser_settings.distance_per_point;
for (_dac_id, stream) in laser_streams.iter() {
stream.set_distance_per_point(distance).ok();
}
}
if ui
.add_enabled(laser_settings.enable_optimisations,
egui::Slider::new(&mut laser_settings.blank_delay_points, 0..=32)
.text("Blank Delay (Points)"),
)
.changed()
{
let delay = laser_settings.blank_delay_points;
for (_dac_id, stream) in laser_streams.iter() {
stream.set_blank_delay_points(delay).ok();
}
}
let mut degrees = rad_to_deg(laser_settings.radians_per_point);
if ui
.add_enabled(laser_settings.enable_optimisations,
egui::Slider::new(&mut degrees, 1.0..=180.0).text("Degrees Per Point")
)
.changed()
{
let radians = deg_to_rad(degrees);
laser_settings.radians_per_point = radians;
for (_dac_id, stream) in laser_streams.iter() {
stream.set_radians_per_point(radians).ok();
}
}
ui.separator();
ui.heading("Laser specific settings");
if per_laser_config.is_empty() {
ui.label("No dacs available");
} else {
ui.horizontal_wrapped(|ui| {
ui.selectable_value(
selected_stream,
None,
""
);
for (dac_id, _config) in per_laser_config.iter() {
let is_available = laser_streams.contains_key(&dac_id);
ui.style_mut().visuals.override_text_color = if is_available {Some(egui::Color32::GREEN)} else {None};
ui.style_mut().visuals.widgets.inactive.bg_stroke = if is_available {egui::Stroke::new(2.0, egui::Color32::GREEN)} else {egui::Stroke::NONE};
let name = if let Some(config) = per_laser_config.get(&dac_id) { config.name.clone() } else { "DAC".into() };
let indicator = if is_available{" 🔌"}else{""};
// egui::widgets::SelectableLabel cannot have border unless hovered/highlighted
// TODO: alternatively underscore with ui.painter().rect/hline(ui.selectable_value().rect.max/min, ....)
ui.selectable_value(
selected_stream,
Some(dac_id.clone()),
format!("{name}{indicator}")
);
}
// reset
ui.style_mut().visuals.override_text_color = None;
});
}
if let Some(selected_stream_value) = selected_stream {
ui.separator();
ui.add(egui::Label::new(format!("{:?}", selected_stream_value)));
let selected_config: &mut DacConfig = per_laser_config.get_mut(&selected_stream_value).unwrap();
ui.add(egui::TextEdit::singleline(&mut selected_config.name));
let selected_laser_stream = laser_streams.get(&selected_stream_value);
// let stream_config: &mut StreamConfig = laser_streams.get_mut(&selected_stream_value).expect("Selected stream not found in configs");
let source = &mut selected_config.source;
egui::ComboBox::from_label("Source")
.selected_text(format!("{source:?}"))
.show_ui(ui, |ui| {
for source_option in STREAM_SOURCES {
if ui.selectable_value(source, source_option.clone(), format!("{:?}", &source_option)).clicked() {
if let Some(stream) = selected_laser_stream {
// let source = source_option;
stream.send(move |laser_model: &mut LaserModel| {
laser_model.config.source = source_option;
}).unwrap();
}
};
}
});
if ui
.add(egui::Slider::new(&mut selected_config.filters.dim.intensity, 0.0..=1.).text("Dimming"))
.changed()
{
let factor = selected_config.filters.dim.intensity;
if let Some(stream) = selected_laser_stream {
stream.send(move |laser_model: &mut LaserModel| {
laser_model.config.filters.dim.intensity = factor;
}).unwrap();
}
}
if ui
.add(egui::Slider::new(&mut selected_config.filters.dim.intensity, 0.0..=1.).text("Dimming"))
.changed()
{
let factor = selected_config.filters.dim.intensity;
if let Some(stream) = selected_laser_stream {
stream.send(move |laser_model: &mut LaserModel| {
laser_model.config.filters.dim.intensity = factor;
}).unwrap();
}
}
if ui
.add(egui::Slider::new(&mut selected_config.filters.scale.factor, 0.0..=2.).text("Scale"))
.changed()
{
let factor = selected_config.filters.scale.factor;
if let Some(stream) = selected_laser_stream {
stream.send(move |laser_model: &mut LaserModel| {
laser_model.config.filters.scale.factor = factor;
}).unwrap();
}
}
// Pincushion / Pillow / Barrel distortion. Generally, only needed for the x-axis
if ui
.add(egui::Slider::new(&mut selected_config.filters.pincushion.k_x, -0.5..=0.5).text("Pincushion x"))
.changed()
{
let factor = selected_config.filters.pincushion.k_x;
if let Some(stream) = selected_laser_stream {
stream.send(move |laser_model: &mut LaserModel| {
laser_model.config.filters.pincushion.k_x = factor;
}).unwrap();
}
}
if ui
.add(egui::Slider::new(&mut selected_config.filters.pincushion.k_x2, -0.2..=0.2).text("Higher order pincushion x"))
.changed()
{
let factor = selected_config.filters.pincushion.k_x2;
if let Some(stream) = selected_laser_stream {
stream.send(move |laser_model: &mut LaserModel| {
laser_model.config.filters.pincushion.k_x2 = factor;
}).unwrap();
}
}
if ui
.add(egui::Slider::new(&mut selected_config.filters.pincushion.k_y, -0.5..=0.5).text("Pincushion y"))
.changed()
{
let factor = selected_config.filters.pincushion.k_y;
if let Some(stream) = selected_laser_stream {
stream.send(move |laser_model: &mut LaserModel| {
laser_model.config.filters.pincushion.k_y = factor;
}).unwrap();
}
}
if ui
.add(egui::Slider::new(&mut selected_config.filters.pincushion.k_y2, -0.2..=0.2).text("Higher order pincushion y"))
.changed()
{
let factor = selected_config.filters.pincushion.k_y2;
if let Some(stream) = selected_laser_stream {
stream.send(move |laser_model: &mut LaserModel| {
laser_model.config.filters.pincushion.k_y2 = factor;
}).unwrap();
}
}
if ui
.checkbox(&mut selected_config.filters.crop.enabled ,"Crop")
.changed()
{
let enabled = selected_config.filters.crop.enabled;
if let Some(stream) = selected_laser_stream {
stream.send(move |laser_model: &mut LaserModel| {
laser_model.config.filters.crop.enabled = enabled;
}).unwrap();
}
}
} else {
ui.label("Select a DAC");
}
});
}
fn view_laser_settings(_app: &App, model: &GuiModel, frame: Frame) {
model.egui.draw_to_frame(&frame).unwrap();
}
fn view_line_canvas(app: &App, model: &GuiModel, frame: Frame) {
// get canvas to draw on
let draw = app.draw();
// set background to blue
let bgcolor = match model.current_lines.space {
CoordinateSpace::Laser => MEDIUMSLATEBLUE,
_ => match model.connected{
true => DARKGRAY,
false => LIGHTCORAL,
},
};
draw.background().color(bgcolor);
let win = app.window_rect();
let scale = 25.;
let translate_x = -300.;
let translate_y = 100.;
draw_grid(&draw, &win, scale, 1.);
// let t = app.time;
// let n_points = 10;
let thickness = 2.0;
// let hz = ((app.mouse.x + win.right()) / win.w()).powi(4) * 1000.0;
// TODO refactor to using euclid::point2D for scale
for line in &model.current_lines.lines{
let vertices = line.points.iter().map(|p| {
let color = srgba(p.color.red, p.color.green, p.color.blue, p.color.alpha);
let pos = [p.position[0] * scale + translate_x, p.position[1] * -scale + translate_y];
(pos, color)
});
draw.polyline()
.weight(thickness)
.join_round()
.points_colored(vertices);
}
// put everything on the frame
draw.to_frame(app, &frame).unwrap();
}
// preview the selected laser, to draw clip mask
fn view_laser_preview(app: &App, model: &GuiModel, frame: Frame) {
// get canvas to draw on
let draw = app.draw();
draw.background().color(DARKGRAY);
let win = app.window_rect();
let w = 1024.;
let h = 1024.;
let hh = h / 2.;
let hw = w / 2.;
let thickness = 2.0;
let win_rect = app.main_window().rect().pad(20.0);
match &model.selected_stream {
None => {
draw.text("Select a stream to preview")
.color(WHITE)
.font_size(24)
.wh(win_rect.wh());
},
Some(dac_id) => {
// let stream = model.laser_streams.get(&dac_id); //.expect("Selected stream not found in configs");
let config = model.per_laser_config.get(&dac_id).expect("Selected stream not found in configs");
draw.text(&format!("{:?}", dac_id))
.h(win_rect.h())
.font_size(10)
.align_text_bottom()
.left_justify()
.color(WHITE)
.w(win_rect.w());
let current_points: LaserPoints = (&model.current_lines).into();
let space = &model.current_lines.space;
// check which source should be used, and get points accordingly.
// potentially ignoring the points coming from the stream
let points = config.source.get_shape(current_points);
let pointno = points.points.len();
let new_points = config.filters.apply(&points);
// similar to map code:
let vertices = new_points.points.iter().map(|p| {
let color = srgba(p.color[0], p.color[1], p.color[0], 1.);
let pos = [p.position[0] * hw, p.position[1] * hh];
(pos, color)
});
draw.polyline()
.weight(thickness)
.join_round()
.points_colored(vertices);
}
}
draw.to_frame(app, &frame).unwrap();
}
fn laser_preview_mouse_pressed(app: &App, _model: &mut GuiModel, button: MouseButton) {
if button != MouseButton::Left {
// ignore
return;
}
let half_w = (1024 / 2) as f32;
let half_h = (1024 / 2) as f32;
let x = app.mouse.x / half_w;
let y = app.mouse.y / half_h;
if x > 1. || x < -1. || y > 1. || y < -1. {
println!("Click outside of canvas: {} {}", x, y);
return
}
}
fn draw_grid(draw: &Draw, win: &Rect, step: f32, weight: f32) {
let step_by = || (0..).map(|i| i as f32 * step);
let r_iter = step_by().take_while(|&f| f < win.right());
let l_iter = step_by().map(|f| -f).take_while(|&f| f > win.left());
let x_iter = r_iter.chain(l_iter);
for x in x_iter {
draw.line()
.weight(weight)
.points(pt2(x, win.bottom()), pt2(x, win.top()))
.color(GRAY);
}
let t_iter = step_by().take_while(|&f| f < win.top());
let b_iter = step_by().map(|f| -f).take_while(|&f| f > win.bottom());
let y_iter = t_iter.chain(b_iter);
for y in y_iter {
draw.line()
.weight(weight)
.points(pt2(win.left(), y), pt2(win.right(), y))
.color(GRAY);
}
}
fn style() -> egui::Style {
let mut style = egui::Style::default();
style.spacing = egui::style::Spacing {
item_spacing: egui::Vec2::splat(8.0),
// window_margin: egui::Vec2::new(6.0, 6.0),
button_padding: egui::Vec2::new(4.0, 2.0),
interact_size: egui::Vec2::new(56.0, 24.0),
indent: 10.0,
icon_width: 20.0,
icon_spacing: 1.0,
..style.spacing
};
style.visuals.widgets.inactive.fg_stroke.color = egui::Color32::WHITE;
style.visuals.extreme_bg_color = egui::Color32::from_gray(12);
style.visuals.faint_bg_color = egui::Color32::from_gray(24);
style.visuals.widgets.noninteractive.bg_fill = egui::Color32::from_gray(36);
style.visuals.widgets.noninteractive.bg_stroke.color = egui::Color32::BLACK;
style.visuals.widgets.noninteractive.fg_stroke.color = egui::Color32::WHITE;
style
}
fn mouse_moved(_app: &App, _model: &mut GuiModel, _pos: Point2) {
}
fn mouse_pressed(_app: &App, _model: &mut GuiModel, _button: MouseButton) {
// _model.dragging
}
fn mouse_released(_app: &App, _model: &mut GuiModel, _button: MouseButton) {}
fn mouse_wheel(_app: &App, _model: &mut GuiModel, _dt: MouseScrollDelta, _phase: TouchPhase) {
// canvas zoom
}