e0b1c4e31f
Major routing improvements: - Refactor depth-first routing algorithm for better path optimization - Reimplemented outline, roughing, pocket, and trace as area operation wrappers - Add pocket shadow travel routing with optimized descent using travel bounds - Improve contour routing with arc detection and polyEmit arc strategy - Add area smoothing and ease-down options - Fix outline handling with thru holes and surface reversal on tip2tip - Move widget shadow methods into widget class for faster hole detection - Better camInnerFirst support and proper feed/plunge defaults Tool system improvements: - Implement taper ball tool type with full support - Add renderTool2() for profile-based visualization - Convert tool menu to init code with bound vars - Fix auto tool and auto spindle for prep operations - Update tool profile generation for taperball geometry - Add calcTaperBallExtent() for proper ball tangency calculations Code cleanup: - Remove duplicated slicer code from specialized slicers - Asyncify shadowAt operations - Deprecate pocket engrave operation - Simplify upNover implementation - Fix animation with new tool+settings requirements
750 lines
27 KiB
JavaScript
750 lines
27 KiB
JavaScript
/** Copyright Stewart Allen <sa@grid.space> -- All Rights Reserved */
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import { arcToPath } from '../../geo/paths.js';
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import { consts } from './consts.js';
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import { newPoint } from '../../geo/point.js';
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import { util } from '../../geo/base.js';
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const { numOrDefault } = util;
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const { beltfact } = consts;
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const XAXIS = new THREE.Vector3(1,0,0);
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const DEG2RAD = Math.PI / 180;
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class Print {
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constructor(settings, widgets, id) {
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this.id = id || new Date().getTime().toString(36);
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this.settings = settings;
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this.widgets = widgets;
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this.lastPoint = null;
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this.lastPoly = null;
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this.lastEmit = null;
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this.lastOut = null;
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this.lastPos = null;
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this.tools = {};
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// set to 1 to enable flow rate analysis (console)
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this.debugE = settings ? (settings.controller.devel ? 1 : 0) : 0;
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}
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setType(type) {
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this.nextType = type;
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}
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// allows for gcode object id annotations enabling
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// discrete object cancellation during print (bambu)
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setWidget(widget) {
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this.widget = widget;
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}
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/**
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* addOutput - add a new point to the output gcode array
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* @param {any[]} array - the output gcode array
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* @param {Point} point - the new point
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* @param {number} emit - the extrusion value
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* @param {number} speed - the feed rate
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* @param {string} tool - the tool id
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* @param {"lerp"|string} opts.type - the output type
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* @param {Point} opts.center - the center of the arc
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* @param {Point[]} opts.arcPoints - point based approximation of arc used for rendering
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* @param {unknown} opts.retract - the retraction value used for FDM
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* @return {Output} - the new output object
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*/
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addOutput(array, point, emit, speed, tool, opts) {
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const { type, retract, center, arcPoints} = opts ?? {};
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let { lastPoint, lastEmit, lastOut } = this;
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let arc = emit == 2 || emit == 3;
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// drop duplicates (usually intruced by FDM bisections)
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if (lastPoint && point && !arc && type !== 'lerp') {
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// nested due to uglify confusing browser
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const { x, y, z, a } = lastPoint;
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if (point.x == x && point.y == y && point.z == z && point.a == z && lastEmit == emit) {
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return lastOut;
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}
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}
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// if (emit && emit < 1) console.log(emit);
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this.lastPoint = point;
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this.lastEmit = emit;
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this.lastOut = lastOut = new Output(point, emit, speed, tool, {
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type: type ?? this.nextType,
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center,
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arcPoints,
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});
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if (tool !== undefined) {
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this.tools[tool] = true;
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}
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lastOut.retract = retract;
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lastOut.widget = this.widget;
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array.push(lastOut);
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// console.log("addOutput Called", structuredClone({lastOut,array}))
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this.nextType = undefined;
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return lastOut;
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}
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addPrintPoints(input, output) {
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if (this.startPoint && input.length > 0) {
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this.lastPoint = this.startPoint;
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}
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output.appendAll(input);
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}
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/**
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* Prints a polygon to a given output array, possibly with a given extrude factor,
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* and starting from a given point. The last point is returned.
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* used for FDM and laser
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* @param {Polygon} poly - the polygon to print
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* @param {Point} startPoint - the point to start printing from
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* @param {Array} output - the array to print to
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* @param {Object} [options] - optional parameters
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* @param {boolean} [options.ccw] - set the polygon to be counter-clockwise
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* @param {boolean} [options.scarf] - scarf seam permitted
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* @param {number} [options.extrude] - extrude factor for the polygon
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* @param {number} [options.rate] - print speed in mm/s
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* @param {number} [options.coast] - distance to coast at the end of the polygon
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* @param {number} [options.simple] - if true, use the first point of the polygon
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* @param {number} [options.open] - if true, don't close the polygon
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* @param {number} [options.tool] - the tool to use
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* @param {function} [options.onfirst] - called with the first point of the polygon
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* @param {function} [options.onfirstout] - called with the first output point
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* @returns {Point} the last point of the polygon
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*/
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polyPrintPath(poly, startPoint, output, options = {}) {
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if (options.ccw) {
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poly.setCounterClockwise();
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} else {
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poly.setClockwise();
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}
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const scope = this;
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const { settings } = scope;
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const { process } = settings;
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let shellMult = numOrDefault(options.extrude, process.outputShellMult),
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printSpeed = options.rate || process.outputFeedrate,
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moveSpeed = process.outputSeekrate,
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minSpeed = process.outputMinSpeed,
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nozzleSize = options.nozzleSize,
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coastDist = options.coast || 0,
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closest = options.simple ? poly.first() : poly.findClosestPointTo(startPoint),
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perimeter = poly.perimeter(),
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close = !options.open,
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scarf = !poly.open ? (options.scarf ?? 0) : false,
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tool = options.tool,
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zmax = options.zmax,
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last = startPoint,
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first = true;
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// if short, use calculated print speed based on sliding scale
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if (perimeter < process.outputShortPoly) {
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printSpeed = minSpeed + (printSpeed - minSpeed) * (perimeter / process.outputShortPoly);
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}
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// if not starting at first point in poly, rotate to move start to index = 0
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let pp = poly.points;
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if (closest.index > 0) {
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let cio = pp.indexOf(closest.point);
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pp = poly.points = [ ...pp.slice(cio), ...pp.slice(0, cio) ];
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}
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// scarf sanity checks
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if (scarf) {
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// cancel scarf for thin wall polys
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if (pp.filter(p => p.skip || p.moved).length) {
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scarf = 0;
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} else {
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// cancel scarf if any point.z differs
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let z0 = pp[0].z;
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let zd = 0;
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for (let p of pp) zd += Math.abs(p.z - z0);
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if (zd) scarf = 0;
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}
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// console.log({ scarf });
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}
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// when creating scarf seams, segment poly up to seam length
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// create array of step up points at start of poly with increasing z
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// and increasing shellMult and then append the same points on the back
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// end of the poly with fixed z and decreasing shellMult
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if (scarf) {
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let epz = Math.max(...poly.points.map(p => p.z));
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let spz = startPoint.z;
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poly = poly.segment(options.nozzleSize ?? 0.4, false, false, scarf * 2);
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pp = poly.points;
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let lp, sp = [];
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for (let p of pp) {
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let d = lp?.distTo2D(p) ?? 0;
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sp.push(lp = p);
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scarf -= d;
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if (scarf <= 0) break;
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}
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let fcs = 1.0; // flow compensation seam
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let fco = (1 / sp.length) * 0.0; // flow compensation offset (- half step)
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let zd = (epz - spz) / sp.length;
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let zi = 1;
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for (let p of sp) {
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p.z -= zd * (sp.length - zi);
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p.moved = (((zi++) / sp.length) * fcs) - 1 - fco;
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}
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let esp = sp.map(p => p.clone()); // ending scarf points
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for (let p of esp) {
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p.z = epz;
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p.moved = (((--zi) / esp.length) * fcs) - 1 - fco;
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}
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pp.push(...esp);
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scarf = true;
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}
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// scarf manages its own close point
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if (close && !scarf) {
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pp.push(pp[0]);
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}
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let lpo;
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for (let point of pp) {
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if (point.skip && lpo?.skip) {
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scope.addOutput(output, point, 0, moveSpeed, tool);
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} else if (first) {
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// if (point.skip) console.log({ skip: point });
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if (options.onfirst) {
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options.onfirst(point, output);
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}
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// move to first output point on poly
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let out = scope.addOutput(output, point, 0, moveSpeed, tool);
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if (options.onfirstout) {
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options.onfirstout(out);
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}
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first = false;
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} else {
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let seglen = last.distTo2D(point);
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// cancel coast when using scarf seam
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if (!scarf && coastDist && shellMult && perimeter - seglen <= coastDist) {
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let delta = perimeter - coastDist;
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let offset = seglen - delta;
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let offPoint = last.offsetPointFrom(point, offset)
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scope.addOutput(output, offPoint, shellMult, printSpeed, tool);
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shellMult = 0;
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}
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perimeter -= seglen;
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// increase mult by % of point moved relative to nozzle radius
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let multOut = shellMult + (point.moved ?? 0);
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// to increase shellMult when point.inc set for collapsed points
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scope.addOutput(output, point, multOut, printSpeed, tool);
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}
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last = lpo = point;
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}
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this.lastPoly = poly;
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return output.last().point;
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}
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constReplace(str, consts, start, pad, short) {
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function tryeval(str) {
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try {
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return eval(`{ ${str} }`)
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} catch (e) {
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console.log({ eval_error: e, str });
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return str;
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}
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}
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let cs = str.indexOf("{", start || 0),
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ce = str.indexOf("}", cs),
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tok, nutok, nustr;
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if (cs >=0 && ce > cs) {
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tok = str.substring(cs+1,ce);
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let eva = [];
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for (let [k,v] of Object.entries(consts)) {
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switch (typeof v) {
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case 'object':
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eva.push(`let ${k} = ${JSON.stringify(v)};`);
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break;
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case 'number':
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case 'boolean':
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eva.push(`let ${k} = ${v};`);
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break;
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default:
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if (v === undefined) v = '';
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eva.push(`let ${k} = "${v.replace(/\"/g,"\\\"")}";`);
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break;
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}
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}
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eva.push(`function range(a,b) { return (a + (layer / layers) * (b-a)).round(4) }`);
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eva.push(`try {( ${tok} )} catch (e) {console.log(e);0}`);
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let evl = tryeval(eva.join(''));
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nutok = evl;
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if (pad === 666) {
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return evl;
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}
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if (pad) {
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nutok = nutok.toString();
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let oldln = ce-cs+1;
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let tokln = nutok.length;
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if (tokln < oldln) {
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short = (short || 1) + (oldln - tokln);
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}
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}
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nustr = str.replace("{"+tok+"}",nutok);
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return this.constReplace(nustr, consts, ce+1+(nustr.length-str.length), pad, short);
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} else {
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// insert compensating spaces for accumulated replace string shortages
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if (short) {
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let si = str.indexOf(';');
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if (si > 0) {
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str = str.replace(';', ';'.padStart(short,' '));
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}
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}
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return str;
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}
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}
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parseSVG(code, offset) {
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let scope = this,
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svg = new DOMParser().parseFromString(code, 'text/xml'),
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lines = [...svg.getElementsByTagName('polyline')],
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output = scope.output = [],
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bounds = scope.bounds = {
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max: { x:-Infinity, y:-Infinity, z:-Infinity},
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min: { x:Infinity, y:Infinity, z:Infinity}
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};
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lines.forEach(line => {
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let seq = [];
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let points = [...line.points];
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points.forEach(point => {
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if (offset) {
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point.x += offset.x;
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point.y += offset.y;
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}
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if (point.x) bounds.min.x = Math.min(bounds.min.x, point.x);
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if (point.x) bounds.max.x = Math.max(bounds.max.x, point.x);
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if (point.y) bounds.min.y = Math.min(bounds.min.y, point.y);
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if (point.y) bounds.max.y = Math.max(bounds.max.y, point.y);
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if (point.z) bounds.min.z = Math.min(bounds.min.z, point.z);
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if (point.z) bounds.max.z = Math.max(bounds.max.z, point.z);
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const { x, y, z } = point; // SVGPoint is not serializable
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scope.addOutput(seq, { x, y, z }, seq.length > 0);
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});
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output.push(seq);
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});
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scope.imported = code;
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scope.lines = lines.length;
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scope.bytes = code.length;
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return scope.output;
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};
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parseGCode(gcode, offset, progress, done, opts = {}) {
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const fdm = opts.fdm;
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const cam = opts.cam;
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const belt = opts.belt;
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const lines = gcode
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.toUpperCase()
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.replaceAll("X", " X")
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.replaceAll("Y", " Y")
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.replaceAll("Z", " Z")
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.replaceAll("A", " A")
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.replaceAll("E", " E")
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.replaceAll("F", " F")
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.replaceAll("G", " G")
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.replaceAll("I", " I")
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.replaceAll("J", " J")
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.replaceAll(" ", " ")
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.split("\n");
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const scope = this,
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// morph = false,
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morph = true,
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bounds = scope.bounds = {
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max: { x:-Infinity, y:-Infinity, z:-Infinity},
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min: { x:Infinity, y:Infinity, z:Infinity}
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},
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pos = {
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X: 0.0,
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Y: 0.0,
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Z: 0.0,
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A: 0.0,
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F: 0.0,
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E: 0.0
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},
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off = {
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x: offset ? offset.x || 0 : 0,
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y: offset ? offset.y || 0 : 0,
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z: offset ? offset.z || 0 : 0
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},
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xoff = {
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x: 0,
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y: 0,
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z: 0
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};
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let dz = 0,
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abs = true,
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absE = true,
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defh = 0,
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height = 0,
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factor = 1,
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tool = 0,
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time = 0,
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minf = Infinity,
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maxf = 0,
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seq = [],
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autolayer = true,
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newlayer = false,
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hasmoved = false,
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lastG = 'G1';
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const output = scope.output = [ seq ];
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const beltaxis = { X: "X", Y: "Z", Z: "Y", E: "E", F: "F" };
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function LOG() {
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console.log(...[...arguments].map(o => Object.clone(o)));
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}
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/**
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* @function processLine
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* @description parses a line of g-code into individual axis movements
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* @param {string[]} line - the line of g-code as an array of strings,
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* each representing a single axis movement
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* @param {Object} axes - an object to store the axis values
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* @returns {Object} an object containing the current and previous points
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*/
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function processLine(line, axes) {
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const prevPoint = newPoint(
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factor * pos.X ,
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factor * pos.Y ,
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factor * pos.Z + dz
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)
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.add(xoff)
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.add(off);
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// apply origin offset
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// for (let layer of output) {
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// for (let rec of layer) {
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// let point = rec.point;
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// point.x += off.X;
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// point.y += off.Y;
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// point.z += off.Z;
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// }
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// }
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const point = prevPoint.clone()
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line.forEach(tok => {
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let axis = tok.charAt(0).toUpperCase();
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if (morph && belt) {
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axis = beltaxis[axis];
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}
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// console.log("position updated",structuredClone(pos))
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let val = parseFloat(tok.substring(1));
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axes[axis] = val;
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// if( axis == 'I' || axis == "J") return
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if (abs) {
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pos[axis] = val;
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if (axis == "X") point.x = factor * pos.X + xoff.x + off.x
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else if (axis == "Y") point.y = factor * pos.Y + xoff.y + off.y
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else if (axis == "Z") point.z = factor * pos.Z + xoff.z + off.z + dz
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} else {
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// mov[axis] = val;
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pos[axis] += val;
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}
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// console.log("position updated",structuredClone(pos))
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});
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let center;
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if(axes.I !== undefined && axes.J !== undefined) {
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center = newPoint(
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factor* axes.I+ xoff.x,
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factor* axes.J+ xoff.y,
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0,
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);
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}else if(axes.R !== undefined) {
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center = newPoint(
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factor* Math.cos(axes.R * DEG2RAD),
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factor* Math.sin(axes.R * DEG2RAD),
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0,
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);
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}
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if(center){
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center = center.add(prevPoint);
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center.setZ((prevPoint.z+point.z)/2+dz);
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}
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return {
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center,
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point,
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prevPoint
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};
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}
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function outputPoint(point,lastP,emit,{retract}) {
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// non-move in a new plane means burp out
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// the old sequence and start a new one
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if (newlayer || (autolayer && seq.z != point.z)) {
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newlayer = false;
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let dz = point.z - seq.z;
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let nh = dz > 0 ? dz : defh;
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seq = [];
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seq.height = height = nh;
|
|
if (fdm) dz = -height / 2;
|
|
output.push(seq);
|
|
}
|
|
|
|
if (!hasmoved) {
|
|
seq.height = seq.z = pos.Z;
|
|
hasmoved = true;
|
|
}
|
|
|
|
// debug extrusion rate
|
|
const lastPos = scope.lastPos;
|
|
if (scope.debugE && fdm && lastPos && pos.E) {
|
|
// extruder move
|
|
let dE = (absE ? pos.E - scope.lastPosE : pos.E);
|
|
// distance moved in XY
|
|
let dV = point.distTo2D(lastP);
|
|
// debug print time
|
|
time += (dV * pos.F) / 1000;
|
|
// filament per mm
|
|
let dR = (dE / dV);
|
|
if (dV > 2 && dE > 0.001) {
|
|
let lab = (absE ? 'aA' : 'rR')[scope.debugE++ % 2];
|
|
console.log(lab, height.toFixed(2), dV.toFixed(2), dE.toFixed(3), dR.toFixed(4), pos.F.toFixed(0));
|
|
}
|
|
}
|
|
// add point to current sequence
|
|
scope.addOutput(seq, point, emit, pos.F, tool, {retract});
|
|
scope.lastPos = Object.assign({}, pos);
|
|
scope.lastPosE = pos.E;
|
|
}
|
|
|
|
/**
|
|
* Handles G2 and G3 arcs, which are circular arcs.
|
|
* @param {boolean} g2 - Whether this is a G2 or G3 arc. G2 is a clockwise arc, G3 is a counter-clockwise arc.
|
|
* @param {string[]} line - The line of the g-code file that contains the G2 or G3 command.
|
|
* @param {number} index - The line number of the g-code file that contains the G2 or G3 command.
|
|
*/
|
|
function G2G3(g2, line, index) {
|
|
let axes = {};
|
|
let { point, prevPoint, center } = processLine(line, axes);
|
|
let arcPoints = arcToPath(prevPoint, point, 64, { clockwise: g2, center }) ?? [];
|
|
for (let point of arcPoints) {
|
|
outputPoint(point, prevPoint, 1, {});
|
|
prevPoint = point;
|
|
}
|
|
outputPoint(point, prevPoint, 1, {});
|
|
}
|
|
|
|
function G0G1(g0, line) {
|
|
const mov = {};
|
|
const axes = {};
|
|
|
|
lastG = g0 ? 'G0' : 'G1';
|
|
const {point, prevPoint} = processLine(line,axes);
|
|
|
|
if (morph && belt) {
|
|
point.y -= point.z * beltfact;
|
|
point.z *= beltfact;
|
|
}
|
|
|
|
if (pos.A) {
|
|
let ip = new THREE.Vector3(pos.X, pos.Y, pos.Z)
|
|
.applyAxisAngle(XAXIS, -pos.A * DEG2RAD);
|
|
point.x = ip.x;
|
|
point.y = ip.y;
|
|
point.z = ip.z;
|
|
}
|
|
|
|
const retract = (fdm && pos.E < 0) || undefined;
|
|
const moving = g0 || (fdm && (pos.E <= 0 || !(axes.X || axes.Y || axes.Z)));
|
|
|
|
if (!moving && point.x) bounds.min.x = Math.min(bounds.min.x, point.x);
|
|
if (!moving && point.x) bounds.max.x = Math.max(bounds.max.x, point.x);
|
|
if (!moving && point.y) bounds.min.y = Math.min(bounds.min.y, point.y);
|
|
if (!moving && point.y) bounds.max.y = Math.max(bounds.max.y, point.y);
|
|
if (!moving && point.z) bounds.min.z = Math.min(bounds.min.z, point.z);
|
|
if (!moving && point.z) bounds.max.z = Math.max(bounds.max.z, point.z);
|
|
|
|
// update max speed
|
|
if (pos.F) minf = Math.min(minf, pos.F);
|
|
maxf = Math.max(maxf, pos.F);
|
|
|
|
// always add moves to the current sequence
|
|
if (moving) {
|
|
// console.log("move",structuredClone(point))
|
|
scope.addOutput(seq, point, 0, pos.F, tool,{retract})
|
|
scope.lastPos = Object.assign({}, pos);
|
|
return;
|
|
}
|
|
if (seq.z === undefined) {
|
|
seq.z = point.z;
|
|
}
|
|
if (fdm && height === 0) {
|
|
seq.height = defh = height = pos.Z;
|
|
}
|
|
|
|
outputPoint(point,prevPoint,1,{retract})
|
|
}
|
|
|
|
const linemod = cam ? Math.ceil(lines.length / 2500) : 0;
|
|
|
|
lines.forEach((line, idx) => {
|
|
if (linemod && idx % linemod === 0) {
|
|
newlayer = true;
|
|
autolayer = false;
|
|
}
|
|
if (line.indexOf(';LAYER:') === 0) {
|
|
newlayer = true;
|
|
autolayer = false;
|
|
}
|
|
if (line.indexOf('- LAYER ') > 0) {
|
|
seq.height = defh;
|
|
const hd = line.replace('(','').replace(')','').split(' ');
|
|
defh = parseFloat(hd[4]);
|
|
if (fdm) dz = -defh / 2;
|
|
newlayer = true;
|
|
autolayer = false;
|
|
}
|
|
// if (["X","Y","Z"].indexOf(line.charAt(0)) >= 0) {
|
|
// line = `G0${line}`;
|
|
// }
|
|
line = line.trim().split(";")[0].split(" ").filter(v => v);
|
|
if (!line.length) return;
|
|
const c0 = line[0].charAt(0);
|
|
let cmd = ["X","Y","Z"].indexOf(c0) >= 0 ? lastG : line.shift();
|
|
if (!cmd) return;
|
|
if (cmd.charAt(0) === 'T') {
|
|
let ext = scope.settings.device.extruders;
|
|
let pos = parseInt(cmd.charAt(1));
|
|
if (ext && ext[pos]) {
|
|
xoff.X = -ext[pos].extOffsetX;
|
|
xoff.Y = -ext[pos].extOffsetY;
|
|
}
|
|
}
|
|
|
|
pos.E = 0.0;
|
|
switch (cmd) {
|
|
case 'M82':
|
|
absE = true;
|
|
break;
|
|
case 'M83':
|
|
absE = false;
|
|
break;
|
|
case 'G20':
|
|
factor = 25.4;
|
|
break;
|
|
case 'G21':
|
|
factor = 1;
|
|
break;
|
|
case 'G90':
|
|
// absolute positioning
|
|
abs = true;
|
|
break;
|
|
case 'G91':
|
|
// relative positioning
|
|
abs = false;
|
|
break;
|
|
case 'G92':
|
|
line.forEach(tok => {
|
|
pos[tok.charAt(0)] = parseFloat(tok.substring(1));
|
|
});
|
|
break;
|
|
case 'G10':
|
|
if (seq && seq.length) {
|
|
seq.last().retract = true;
|
|
}
|
|
break;
|
|
case 'G11':
|
|
break;
|
|
case 'G0':
|
|
G0G1(1, line);
|
|
break;
|
|
case 'G1':
|
|
G0G1(0, line);
|
|
break;
|
|
case 'G2':
|
|
// turn arc into a series of points
|
|
G2G3(true, line, idx)
|
|
break;
|
|
case 'G3':
|
|
// turn arc into a series of points
|
|
G2G3(false, line, idx);
|
|
break;
|
|
case 'M6':
|
|
tool = parseInt(line[0].substring(1));
|
|
break;
|
|
}
|
|
});
|
|
scope.imported = gcode;
|
|
scope.lines = lines.length;
|
|
scope.bytes = gcode.length;
|
|
scope.minSpeed = Math.floor(minf / 60);
|
|
scope.maxSpeed = Math.floor(maxf / 60);
|
|
scope.belt = belt;
|
|
|
|
if (scope.debugE) {
|
|
console.log({
|
|
bounds,
|
|
minf,
|
|
maxf,
|
|
print_time: time.round(2),
|
|
output: scope.output
|
|
});
|
|
}
|
|
|
|
done({ output: scope.output });
|
|
}
|
|
}
|
|
|
|
class Output {
|
|
/**
|
|
* Construct a new output element.
|
|
*
|
|
* in cam, emit is the G code number (G0, G1, G2, G3)
|
|
*
|
|
* @param {Point} point point to emit, with x, y, and z properties
|
|
* @param {number} emit emit (feed for printers, power for lasers, cut for cam)
|
|
* @param {number} speed speed in mm/min
|
|
* @param {number} tool tool id
|
|
* @param {Object} options options object
|
|
* @param {string} [options.type] type of point
|
|
* @param {Point} [options.center] the center of the arc
|
|
* @param {Point[]} [options.arcPoints] point based approximation of arc
|
|
*/
|
|
constructor(point, emit, speed, tool, options) {
|
|
|
|
const { type, center, arcPoints } = (options ?? {});
|
|
//speed, tool, type, center, arcPoints
|
|
this.point = point;
|
|
this.emit = Number(emit); //convert bools into 0/1
|
|
this.speed = speed;
|
|
this.tool = tool;
|
|
this.type = type;
|
|
this.center = center;
|
|
this.arcPoints = arcPoints;
|
|
// this.where = new Error().stack.split("\n");
|
|
}
|
|
|
|
clone(z) {
|
|
let o = new Output(
|
|
this.point.clone(),
|
|
this.emit,
|
|
this.speed,
|
|
this.tool,
|
|
this.type
|
|
);
|
|
if (z !== undefined) {
|
|
o.point.setZ(z);
|
|
}
|
|
return o;
|
|
}
|
|
|
|
set_retract() {
|
|
this.retract = true;
|
|
return this;
|
|
}
|
|
}
|
|
|
|
function newPrint(settings, widgets, id) {
|
|
return new Print(settings, widgets, id);
|
|
};
|
|
|
|
export {
|
|
Print,
|
|
newPrint
|
|
};
|