split fdm and sla drivers

This commit is contained in:
Stewart Allen 2020-11-05 18:29:04 -05:00
commit 3ef015287a
14 changed files with 2975 additions and 2895 deletions

372
src/mode/fdm/slice.js Normal file
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/** Copyright Stewart Allen <sa@grid.space> -- All Rights Reserved */
"use strict";
(function() {
let KIRI = self.kiri,
BASE = self.base,
UTIL = BASE.util,
CONF = BASE.config,
FDM = KIRI.driver.FDM,
SLICER = KIRI.slicer;
/**
* DRIVER SLICE CONTRACT
*
* Given a widget and settings object, call functions necessary to produce
* slices and then the computations using those slices. This function is
* designed to run client or server-side and provides all output via
* callback functions.
*
* @param {Object} settings
* @param {Widget} Widget
* @param {Function} onupdate (called with % complete and optional message)
* @param {Function} ondone (called when complete with an array of Slice objects)
*/
FDM.slice = function(settings, widget, onupdate, ondone) {
FDM.fixExtruders(settings);
let spro = settings.process,
sdev = settings.device,
update_start = Date.now(),
minSolid = spro.sliceSolidMinArea,
solidLayers = spro.sliceSolidLayers,
vaseMode = spro.sliceFillType === 'vase',
doSolidLayers = solidLayers && !vaseMode,
metadata = settings.widget[widget.id] || {},
extruder = metadata.extruder || 0,
sliceHeight = spro.sliceHeight,
nozzleSize = sdev.extruders[extruder].extNozzle,
firstOffset = nozzleSize / 2,
shellOffset = nozzleSize,
fillOffsetMult = 1.0 - bound(spro.sliceFillOverlap, 0, 0.8),
fillSpacing = nozzleSize,
fillOffset = nozzleSize * fillOffsetMult,
sliceFillAngle = spro.sliceFillAngle,
view = widget.mesh && widget.mesh.newGroup ? widget.mesh.newGroup() : null;
if (!(sliceHeight > 0 && sliceHeight < 100)) {
return ondone("invalid slice height");
}
if (!(nozzleSize >= 0.01 && nozzleSize < 100)) {
return ondone("invalid nozzle size");
}
if (spro.firstSliceHeight === 0) {
spro.firstSliceHeight = sliceHeight;
}
if (spro.firstSliceHeight < sliceHeight) {
DBUG.log("invalid first layer height < slice height");
DBUG.log("reverting to slice height");
spro.firstSliceHeight = sliceHeight;
}
SLICER.sliceWidget(widget, {
height: sliceHeight,
minHeight: sliceHeight > spro.sliceMinHeight ? spro.sliceMinHeight : 0,
firstHeight: spro.firstSliceHeight,
view: view
}, onSliceDone, onSliceUpdate);
function onSliceUpdate(update) {
return onupdate(0.0 + update * 0.5);
}
function onSliceDone(slices) {
// slices = slices.filter(slice => slice.tops.length);
// remove all empty slices above part but leave below
// for multi-part (multi-extruder) setups where the void is ok
let found = false;
slices = slices.reverse().filter(slice => {
if (slice.tops.length) {
return found = true;
} else {
return found;
}
}).reverse();
widget.slices = slices;
if (!slices) return;
// calculate % complete and call onupdate()
function doupdate(index, from, to, msg) {
onupdate(0.5 + (from + ((index/slices.length) * (to-from))) * 0.5, msg);
}
// for each slice, performe a function and call doupdate()
function forSlices(from, to, fn, msg) {
slices.forEach(function(slice) {
fn(slice);
doupdate(slice.index, from, to, msg)
});
}
// do not hint polygin fill longer than a max span length
CONF.hint_len_max = UTIL.sqr(spro.sliceBridgeMax);
// reset (if necessary) for solids and support projections
slices.forEach(function(slice) {
slice.extruder = extruder;
slice.invalidateFill();
slice.invalidateSolids();
slice.invalidateSupports();
});
let supportEnabled = spro.sliceSupportEnable && spro.sliceSupportDensity > 0.0,
supportMinArea = spro.sliceSupportArea;
// create shells and diff inner fillable areas
forSlices(0.0, 0.2, function(slice) {
let solid = (
slice.index < spro.sliceBottomLayers ||
slice.index > slices.length - spro.sliceTopLayers-1 ||
spro.sliceFillSparse > 0.95
) && !vaseMode;
slice.doShells(spro.sliceShells, firstOffset, shellOffset, fillOffset, {
vase: vaseMode,
thin: spro.detectThinWalls
});
if (solid) slice.doSolidLayerFill(fillSpacing, sliceFillAngle);
sliceFillAngle += 90.0;
}, "offsets");
// calculations only relevant when solid layers are used
if (doSolidLayers) {
forSlices(0.2, 0.34, function(slice) {
slice.doDiff(minSolid);
}, "diff");
forSlices(0.34, 0.35, function(slice) {
slice.projectFlats(solidLayers);
slice.projectBridges(solidLayers);
}, "solids");
forSlices(0.35, 0.5, function(slice) {
slice.doSolidsFill(fillSpacing, sliceFillAngle, minSolid);
sliceFillAngle += 90.0;
}, "solids");
}
// calculations only relevant when supports are enabled
if (supportEnabled) {
forSlices(0.5, 0.7, function(slice) {
slice.doSupport(spro.sliceSupportOffset, spro.sliceSupportSpan, spro.sliceSupportExtra, supportMinArea, spro.sliceSupportSize, spro.sliceSupportOffset, spro.sliceSupportGap);
}, "support");
forSlices(0.7, 0.8, function(slice) {
slice.doSupportFill(nozzleSize, spro.sliceSupportDensity, supportMinArea);
}, "support");
}
// sparse layers only present when non-vase mose and sparse % > 0
if (!vaseMode && spro.sliceFillSparse > 0.0) {
forSlices(0.8, 1.0, function(slice) {
slice.doSparseLayerFill({
settings: settings,
process: spro,
device: sdev,
lineWidth: nozzleSize,
spacing: fillOffset,
density: spro.sliceFillSparse,
bounds: widget.getBoundingBox(),
height: sliceHeight,
type: spro.sliceFillType
});
}, "infill");
}
// let polish = spro.polishLayers;
// // experimental polishing
// if (polish) {
// let polish_layer = Math.floor(polish);
// let polish_step = Math.max(polish - polish_layer || 1, 0.25);
// widget.polish = {};
// let px = [];
// let py = [];
// // compute x polishing slices
// SLICER.sliceWidget(widget, {
// height: nozzleSize * polish_step,
// swapX: true,
// swapY: false,
// simple: true
// }, (polish_done => {
// widget.polish.x = polish_done
// .filter(s => s.groups.length)
// .map(s => s.groups)
// .forEach(p => px.appendAll(p));
// }), (polish_update) => {
// // console.log({polish_update});
// });
// // compute y polishing slices
// SLICER.sliceWidget(widget, {
// height: nozzleSize * polish_step,
// swapX: false,
// swapY: true,
// simple: true
// }, (polish_done => {
// widget.polish.y = polish_done
// .filter(s => s.groups.length)
// .map(s => s.groups)
// .forEach(p => py.appendAll(p));
// }), (polish_update) => {
// // console.log({polish_update});
// });
// // apply polishing finishes to layers
// forSlices(1.0, 1.0, (slice) => {
// if (polish_layer >= 2) {
// let sai = (slice.index - polish_layer);
// if (sai % (polish_layer-1) !== 0) {
// return;
// }
// }
// if (slice.index >= polish_layer) {
// let sd = slice;
// for (let i=0; i<polish_layer; i++) {
// sd = sd.down;
// }
// let zb = sd.z;
// let zt = slice.z;
// let pout = [];
// let cont = 0;
// [px, py].forEach(pa => {
//
// let polys = [];
// pa.forEach(p => {
// // rotate and test for self-intersection (points under model)
// p.ensureXY();
// let ox = p._aligned == 'yz' ? 0.1 : 0;
// let oy = p._aligned == 'yz' ? 0 : 0.1;
// p.forEachPoint(pt => {
// let int = p.intersections(
// pt.offset(ox,oy,0),
// pt.offset(ox*10000,oy*10000,0));
// if (int.length > 0) {
// pt._under = true;
// }
// });
// p.restoreXY();
//
// let lastp = undefined;
// let poly = [];
// // look for qualifying segments
// p.forEachSegment((p1, p2) => {
// // eliminate segments that projected up
// // intersect with the polygon (bottom faces)
// if (p1._under || p2._under) {
// return;
// }
// // skip when both below layer range
// if (p1.z < zb && p2.z < zb) {
// return;
// }
// // skip when both above layer range
// if (p1.z > zt && p2.z > zt) {
// return;
// }
// // skip vertical
// if (p1.x === p2.x && p1.y === p2.y) {
// return;
// }
// // skip horizontal
// // if (p1.z === p2.z) {
// // return;
// // }
// // order points lowest to highest
// let swap = false;
// if (p1.z > p2.z) {
// let t = p2;
// p2 = p1;
// p1 = t;
// swap = true;
// }
// let trimlo = false;
// let trimhi = false;
// if (p1.z < zb) {
// trimlo = true;
// }
// if (p2.z > zt) {
// trimhi = true;
// }
// let xaxis = p1.x === p2.x;
// if (xaxis) {
// p1 = BASE.newPoint(p1.y,p1.z,p1.x);
// p2 = BASE.newPoint(p2.y,p2.z,p2.x);
// } else {
// p1 = BASE.newPoint(p1.x,p1.z,p1.y);
// p2 = BASE.newPoint(p2.x,p2.z,p2.y);
// }
// let slope = BASE.newSlope(p1, p2);
// let angle = slope.angle;
// if (angle > 80 && angle < 100) {
// return;
// }
// let len = p1.distTo2D(p2);
// let np1 = p1;
// if (trimlo) {
// let zunder = zb - p1.y;
// let zover = p2.y - zb;
// let zdelt = p2.y - p1.y;
// let pct = zunder / zdelt;
// np1 = p1.follow(slope, len * pct);
// }
// if (trimhi) {
// let zunder = zt - p1.y;
// let zover = p2.y - zt;
// let zdelt = p2.y - p1.y;
// let pct = zover / zdelt;
// p2 = p2.follow(slope.invert(), len * pct);
// }
// p1 = np1;
// if (xaxis) {
// p1 = BASE.newPoint(p1.z,p1.x,p1.y);
// p2 = BASE.newPoint(p2.z,p2.x,p2.y);
// } else {
// p1 = BASE.newPoint(p1.x,p1.z,p1.y);
// p2 = BASE.newPoint(p2.x,p2.z,p2.y);
// }
// if (!lastp) {
// poly.push(p1);
// poly.push(p2);
// } else if (p1.isMergable2D(lastp)) {
// // } else if (p1.isEqual(lastp)) {
// poly.push(p2);
// cont++;
// } else if (poly.length) {
// polys.push(poly);
// poly = [p1, p2];
// }
// lastp = p2;
// });
// if (poly.length) {
// polys.push(poly);
// }
// });
// pout.push(polys);
// polys = [];
// });
//
// if (pout.length && slice.tops.length) {
// slice.tops[0].polish = {
// x: pout[0]
// .map(a => BASE.newPolygon(a).setOpen())
// // .filter(p => p.perimeter() > nozzleSize)
// ,
// y: pout[1]
// .map(a => BASE.newPolygon(a).setOpen())
// // .filter(p => p.perimeter() > nozzleSize)
// };
// }
// }
// });
// }
// report slicing complete
ondone();
}
}
function bound(v,min,max) {
return Math.max(min,Math.min(max,v));
}
})();