[_CD4_]<datools7.0>CDPDPlot25>CDPDPlotImpl.mesa!10

CDPDPlotImpl.mesa

History

Black and white versatec plot written by: E. McCreight, August 1, 1983

Changed for color Versatec by: Kim Rachmeler, 1983

Rewritten by: Christian Jacobi, April 11, 1985 3:21:48 pm PST

Last Edited by: Christian Jacobi, November 9, 1987 10:17:19 am PST

DIRECTORY

Atom,

CD,

CDBasics,

CDCells,

CDDefaultProcs,

CDEnvironment,

CDImports,

CDInstances,

CDIO,

CDVArrow,

CDViewer,

CDCurves,

CDOps,

CDPDPlot,

CDProperties,

CDPropertyTools,

CDSequencer,

CDValue,

Commander,

CStitching,

IO,

PeachPrint,

PDFileFormat,

PDFileWriter,

Process,

Real,

Rope,

RuntimeError USING [UNCAUGHT],

TerminalIO,

ViewerClasses,

ViewerSpecs;

CDPDPlotImpl: CEDAR MONITOR

IMPORTS Atom, CD, CDBasics, CDCells, CDDefaultProcs, CDEnvironment, CDImports, CDInstances, CDIO, CDValue, CDVArrow, CDViewer, CDOps, CDProperties, CDPropertyTools, CDSequencer, Commander, CStitching, IO, PDFileWriter, PeachPrint, Process, Real, Rope, RuntimeError, TerminalIO

EXPORTS CDPDPlot =

BEGIN

--MONITOR: to protect the stipples

retry: CONDITION;

plottingInProgress: BOOL ← FALSE;

Enter: ENTRY PROC [d: CD.Design] = {

ENABLE UNWIND => NULL;

BROADCAST retry; --to make others call CheckAborted

WHILE plottingInProgress DO

WAIT retry;

CDSequencer.CheckAborted[d]; --UNWIND IS CATCHED !!!

ENDLOOP;

plottingInProgress ← TRUE

};

Leave: ENTRY PROC [] = {

ENABLE UNWIND => NULL;

plottingInProgress ← FALSE;

BROADCAST retry

};

lastTechPropKey: REF ← $CDxLastTechnology; --a property of the dd.stippleKey

abortPlot: REF BOOL ← NEW[BOOL ← FALSE];

--handling colors

Toner: TYPE = PDFileFormat.Toner; -- {black, cyan, magenta, yellow, .. 15};

TonerKeys: TYPE = ARRAY Toner OF REF;

LoadArray: TYPE = ARRAY Toner OF PDFileWriter.LoadReference;

ColorDescription: TYPE = ARRAY CD.Layer OF REF LoadArray ← ALL[NIL];

noColor: PDFileWriter.LoadReference = LAST[PDFileWriter.LoadReference];

-- used to identify tiles without toner so that you can avoid recording them

fullColor: PDFileWriter.LoadReference = noColor-1;

-- used to identify tiles with full toner so that you can avoid recording them

tonerToKeyKeys: REF TonerKeys = NEW[TonerKeys ← ALL[NIL]];

--gives a key to get the keys to get the color stipple as property of the layers

--device description

DeviceDesc: TYPE = CDPDPlot.DeviceDesc;

TaskDesc: TYPE = CDPDPlot.TaskDesc;

PageMode: TYPE = {fixedPage, finiteStripe, anyStripe};

Stipple4: TYPE = ARRAY[0..4) OF [0..16);

Stipple8: TYPE = ARRAY[0..8) OF [0..256);

Stipple16: TYPE = ARRAY[0..16) OF CARDINAL;

fiddleDevice: PUBLIC REF DeviceDesc ← NIL;

error: ERROR = CODE;

MakeDevice: PUBLIC PROC [key: ATOM] RETURNS [dd: REF DeviceDesc] = {

ColorVersatec: PROC [dd: REF DeviceDesc] = {

dd.deviceCode ← last; --does not yet has an assigned value, use "last"

dd.sResolution ← 200; -- resolution (slow directition), pixels / inch

dd.fResolution ← 200; -- resolution (fast direction), pixels / inch

dd.imageFSize ← 8000; --for the wide-bed Versatec, length in the "fast" direction;

dd.toners ← ALL[FALSE];

dd.toners[black] ← TRUE;

dd.toners[cyan] ← TRUE;

dd.toners[magenta] ← TRUE;

dd.toners[yellow] ← TRUE;

dd.bandSSize ← 64; -- number chosen because of buffer-size of versatec

dd.overlap ← 300; -- number of pixels by which to overlap strips

dd.maxPixPerLambda ← 20; -- maximum # of pixels to make lambda

dd.pageMode ← anyStripe;

dd.leftOverMode ← FALSE;

dd.stippleKey ← $CDxVersatec;

dd.name ← "color versatec";

};

InkJetC150: PROC [dd: REF DeviceDesc] = {

dd.deviceCode ← VAL[10];

dd.sResolution ← 120; -- resolution (slow directition), pixels / inch

dd.fResolution ← 120; -- resolution (fast direction), pixels / inch

dd.imageFSize ← 1020;

dd.toners ← ALL[FALSE];

dd.toners[black] ← TRUE;

dd.toners[cyan] ← TRUE;

dd.toners[magenta] ← TRUE;

dd.toners[yellow] ← TRUE;

dd.bandSSize ← 48; --

dd.overlap ← 30; -- number of pixels by which to overlap strips

dd.maxPixPerLambda ← 20; -- maximum # of pixels to make lambda

dd.pageMode ← finiteStripe;

dd.pageSlowSize ← 1020;

dd.leftOverMode ← FALSE;

dd.stippleKey ← $CDxVersatec;

dd.name ← "ink jet";

};

Color400: PROC [dd: REF DeviceDesc] = {

dd.deviceCode ← VAL[9];

dd.sResolution ← 400; -- resolution (slow directition), pixels / inch

dd.fResolution ← 400; -- resolution (fast direction), pixels / inch

dd.imageFSize ← 4096;

dd.toners ← ALL[FALSE];

dd.toners[black] ← TRUE;

dd.toners[cyan] ← TRUE;

dd.toners[magenta] ← TRUE;

dd.toners[yellow] ← TRUE;

dd.bandSSize ← 50; --

dd.overlap ← 30; -- number of pixels by which to overlap strips

dd.maxPixPerLambda ← 240; -- maximum # of pixels to make lambda

dd.pageMode ← fixedPage;

dd.pageSlowSize ← 5500;

dd.leftOverMode ← FALSE;

dd.stippleKey ← $CDxC400;

dd.name ← "Color400";

};

Puffin: PROC [dd: REF DeviceDesc] = {

dd.deviceCode ← PDFileFormat.DeviceCode[puffin];

dd.sResolution ← 384; -- resolution (slow directition), pixels / inch

dd.fResolution ← 384; -- resolution (fast direction), pixels / inch

dd.imageFSize ← dd.fResolution * 17 / 2;

dd.toners ← ALL[FALSE];

dd.toners[black] ← FALSE;

dd.toners[cyan] ← TRUE;

dd.toners[magenta] ← TRUE;

dd.toners[yellow] ← TRUE;

dd.bandSSize ← 16; --

dd.overlap ← 30; -- number of pixels by which to overlap strips

dd.maxPixPerLambda ← 20; -- maximum # of pixels to make lambda

dd.pageMode ← fixedPage;

dd.pageSlowSize ← dd.sResolution*11;

dd.leftOverMode ← TRUE;

dd.stippleKey ← $CDxPuffin;

dd.name ← "Puffin";

};

PlateMaker: PROC [dd: REF DeviceDesc] = {

dd.deviceCode ← PDFileFormat.DeviceCode[last];

dd.sResolution ← 1200; -- resolution (slow directition), pixels / inch

dd.fResolution ← 1200; -- resolution (fast direction), pixels / inch

dd.imageFSize ← dd.fResolution * 17 / 2;

dd.toners ← ALL[FALSE];

dd.toners[black] ← TRUE;

dd.bandSSize ← 16; --

dd.overlap ← 30; -- number of pixels by which to overlap strips

dd.maxPixPerLambda ← 20; -- maximum # of pixels to make lambda

dd.pageMode ← fixedPage;

dd.pageSlowSize ← dd.sResolution*11;

dd.leftOverMode ← TRUE;

dd.stippleKey ← $CDxPDPlotPlatemaker;

dd.name ← "platemaker [color separation]";

};

Raven384: PROC [dd: REF DeviceDesc] = {

dd.deviceCode ← PDFileFormat.DeviceCode[raven];

dd.sResolution ← 384; -- resolution (slow directition), pixels / inch

dd.fResolution ← 384; -- resolution (fast direction), pixels / inch

dd.imageFSize ← dd.fResolution * 17 / 2;

dd.toners ← ALL[FALSE];

dd.toners[black] ← TRUE;

dd.bandSSize ← 16; --

dd.overlap ← 30; -- number of pixels by which to overlap strips

dd.maxPixPerLambda ← 20; -- maximum # of pixels to make lambda

dd.pageMode ← fixedPage;

dd.pageSlowSize ← dd.sResolution*11;

dd.leftOverMode ← TRUE;

dd.stippleKey ← $CDxPDPlotRaven384;

dd.name ← "Raven384 [color separation]";

};

dd ← NEW[DeviceDesc];

dd.contextFilter ← NEW[CD.ContextFilter←ALL[TRUE]];

SELECT key FROM

$Versatec, $PDPlotVersatec => ColorVersatec[dd];

$C150, $PDPlotC150 => InkJetC150[dd];

$Puffin, $PDPlotPuffin => Puffin[dd];

$Platemaker, $PDPlotPlatemaker => PlateMaker[dd];

$Raven384, $PDPlotRaven384 => Raven384[dd];

$Color400, $PDPlotColor400 => Color400[dd];

$UserDevice, $PDPlotUserDevice => dd ← fiddleDevice;

ENDCASE => ERROR error;

};

--state of plot

PlotState: TYPE = REF PlotStateRec;

PlotStateRec: TYPE = RECORD [

tes: ARRAY CD.Layer OF CStitching.Tesselation ← ALL[NIL],

plotScale: REAL ← 1.0, -- pixels per CD.Number

plotClip: CD.Rect ← [0, 0, 0, 0], --in design space touching all geometry in plot

stripeClip: CD.Rect ← [0, 0, 0, 0],--in design space touching all geometry in stripe

bandClip: CD.Rect ← [0, 0, 0, 0],--in design space touching all geometry in band

--plot and stripe areas are defined in integral cd units

--the band is defined in pixel units;

-- bandClip contains at least all area contributing to the real band

pdState: PDFileWriter.PDState,

colorLoads: REF ColorDescription,

anouncedLayer: INT ← -1,

design: CD.Design,

band: CD.Rect ← [0, 0, 0, 0], -- in device pixel coordinates but y-sign inversion not yet done

-- low border points are legal pixels of band, high border points are not

dd: REF DeviceDesc

];

ToDeviceX: PROC[ps: PlotState, cdX: CD.Number] RETURNS [REAL] = INLINE {

--but not clipped!

RETURN [(cdX-ps.stripeClip.x1)*ps.plotScale]

};

ToDeviceY: PROC[ps: PlotState, cdY: CD.Number] RETURNS [REAL] = INLINE {

--but not clipped!

RETURN [(cdY-ps.stripeClip.y1)*ps.plotScale]

};

ToDeviceR: PROC[ps: PlotState, r: CD.Rect] RETURNS [CD.Rect] = INLINE {

--but not clipped!

RETURN [[

x1: Real.Round[ToDeviceX[ps, r.x1]],

y1: Real.Round[ToDeviceY[ps, r.y1]],

x2: Real.Round[ToDeviceX[ps, r.x2]],

y2: Real.Round[ToDeviceY[ps, r.y2]]

]]

};

ConvertY2: PROC[ps: PlotState, y2: CD.Number] RETURNS [INT] = INLINE {

y2 in (non negated y) pixel coordinates; does the conversion of the y

RETURN [ps.dd.imageSSize-1-y2]

};

Plot: PUBLIC PROC [task: REF TaskDesc] = {

ps: PlotState;

clipSize: CD.Position;

dd: REF DeviceDesc ← task.dd;

design: CD.Design ← task.design;

instance: CD.Instance ← task.instance;

pageStep: CD.Position;

pageWidth: CD.Position;

dr: CD.DrawRef;

IF design=NIL OR dd=NIL THEN ERROR;

BEGIN

ENABLE { -- for ERRORs

UNWIND => {

CDVArrow.RemoveArrow[design];

TerminalIO.PutRope[" ** plot aborted **\n"];

Leave[];

};

Enter[design];

TRUSTED {Process.SetPriority[Process.priorityBackground]};

task.strips ← MAX[1, MIN[10, task.strips]];

IF task.abort=NIL THEN task.abort ← NEW[BOOL←FALSE];

IF ~CDBasics.NonEmpty[task.clip] THEN task.clip ← CDOps.BoundingBox[design];

clipSize ← CDBasics.SizeOfRect[task.clip];

dr ← CD.CreateDrawRef[[

design: design,

selections: FALSE,

borders: TRUE,

fontSubstitution: task.substituteFonts,

stopFlag: task.abort,

drawRect: NoteRectangle,

drawChildSel: CDDefaultProcs.IgnoreChild,

drawOutLine: DrawOutline,

contextFilter: dd.contextFilter

]];

SetStipples[dd, design.technology];

CheckSpecialScale[task];

--Center the x range of the selected area of the design on the plotter bed, with at most dd.maxPixPerLambda pixels per lambda. If multiple task.strips are called for, overlap adjacent ones by "dd.toners" pixels.

-- total number of pixels across plot = imageFSize+[imageFSize-overlap]*(strips-1))

ps ← NEW[PlotStateRec ← [

plotClip: task.clip,

colorLoads: NEW[ColorDescription ← ALL[NIL]],

design: design,

plotScale: task.scale,

dd: dd

]];

IF ps.plotScale<=0 THEN {

ps.plotScale ← MIN[

REAL[dd.maxPixPerLambda] / design.technology.lambda,

REAL[(dd.imageFSize-dd.overlap)*task.strips+dd.overlap] / clipSize.x

]

};

dd.imageSSize ← Real.InlineRoundC[clipSize.y*ps.plotScale]+1;

IF dd.pageMode=fixedPage THEN {

dd.imageSSize ← MIN[dd.imageSSize, dd.pageSlowSize];

ps.plotScale ← MIN[ps.plotScale, REAL[dd.pageSlowSize]/(clipSize.y+1)];

};

pageStep ← [(clipSize.x+task.strips-1)/task.strips, clipSize.y];

pageWidth ← [Real.Round[dd.imageFSize/ps.plotScale]+1, clipSize.y]; --larger to prevent rounding errors

dr.devicePrivate ← ps;

TerminalIO.PutRopes["start ploting\n"];

FOR strip: INT IN [0..task.strips) DO

fileName: Rope.ROPE ← MakeName[task.fileName, strip, task.strips];

ps.stripeClip ← [ --but not yet intersected with complete design clip

x1: ps.plotClip.x1+strip*pageStep.x,

y1: ps.plotClip.y1,

x2: ps.plotClip.x1+strip*pageStep.x+pageWidth.x,

y2: ps.plotClip.y2

];

ps.pdState ← PDFileWriter.Create[

fileName: fileName,

deviceCode: dd.deviceCode,

sResolution: dd.sResolution,

fResolution: dd.fResolution,

imageSSize: (IF dd.pageMode=fixedPage THEN dd.pageSlowSize ELSE dd.imageSSize),

imageFSize: dd.imageFSize,

bandSSize: dd.bandSSize,

leftOverMode: dd.leftOverMode,

maxLoadWords: dd.maxLoadWords,

copies: dd.copies

];

CDDefaultProcs.ConvertContextsToDeviceRects[

pr: dr,

dDrawRect: NoteDeviceRectangle,

dOrigin: [ps.stripeClip.x1, ps.stripeClip.y1],

scale: ps.plotScale

];

ps.colorLoads^ ← ALL[NIL];

PDFileWriter.StartImage[pdState: ps.pdState, toners: dd.toners];

-- For each band in the strip

FOR bandYtop: INT ← dd.imageSSize, bandYtop-dd.bandSSize WHILE bandYtop>0 DO

--bandYtop is top pixel not plotted !

dc: CD.Rect; --task.clip for band in design coordinates; little larger than band

CDSequencer.CheckAborted[design];

-- Determine coordinate transformations

dc ← [

x1: ps.stripeClip.x1-1,

y1: ps.stripeClip.y1+Real.Round[(bandYtop-dd.bandSSize)/ps.plotScale]-2,

x2: ps.stripeClip.x1+pageWidth.x+1,

y2: ps.stripeClip.y1+Real.Round[bandYtop/ps.plotScale]+2

];

dr.interestClip ← ps.bandClip ← CDBasics.Intersection[ps.plotClip, dc];

ps.band ← [

x1: 0,

y1: MAX[0, bandYtop-dd.bandSSize],

x2: MIN[Real.Round[ToDeviceX[ps, ps.bandClip.x2]+1], ps.dd.imageFSize],

y2: bandYtop

];

--Display current band under consideration to pacify user

IF instance=NIL THEN CDVArrow.ShowArrow[design, CDBasics.Center[dr.interestClip]];

-- clear previous tessalations

ps.anouncedLayer ← -1;

FOR l: CD.Layer IN CD.Layer DO

IF ps.tes[l]#NIL THEN

CStitching.ChangeRect[plane: ps.tes[l], rect: CDBasics.universe, new: NIL];

ENDLOOP;

-- build tesselations of design rectangles

IF instance=NIL

THEN CDOps.DrawDesign[design, dr]

ELSE CD.DrawOb[dr, instance.ob, instance.trans, instance.properties];

AnalyzeTesselations[ps]; -- actually draw tesselations

TerminalIO.PutRope["."];

ENDLOOP; -- each band in the strip

PDFileWriter.EndPage[ps.pdState];

PDFileWriter.Close[ps.pdState];

TerminalIO.PutRopes["*\nrecorded strip on file ", fileName, "\n"];

ENDLOOP; -- each strip

TerminalIO.PutRope[" finished plot\n"];

CDVArrow.RemoveArrow[design: design];

Leave[];

END;

};

MaskRect: PROC [ps: PlotState, r: CD.Rect] = --INLINE-- {

--coordinates in devices pixel coordinates, but y not yet negated;

--plots inclusive low, exclusive high border pixels

debugBand: CD.Rect ← ps.band;

debugR: CD.Rect ← r;

IF CDBasics.Intersect[r, ps.band] THEN {

r ← CDBasics.Intersection[r, ps.band];

IF r.x2>r.x1 AND r.y2>r.y1 THEN

PDFileWriter.MaskRectangle[pdState: ps.pdState, sMin: ConvertY2[ps, r.y2-1], fMin: r.x1, sSize: r.y2-r.y1, fSize: r.x2-r.x1];

}

};

ProcessTile: PROC [tile: CStitching.Tile, data: REF ANY] = {

IF tile.value=$covered THEN {

ps: PlotState = NARROW[data];

MaskRect[ps, CStitching.Area[tile]]

};

AnalyzeTesselations: PROC [ps: PlotState] = {

FOR lev: CD.Layer IN CD.Layer DO

IF ps.tes[lev]#NIL THEN {

SetColor[ps, lev];

CStitching.EnumerateArea[plane: ps.tes[lev], rect: ps.band, eachTile: ProcessTile, data: ps, skip: NIL];

};

ENDLOOP;

};

NoteRectangle: PROC [pr: CD.DrawRef, r: CD.Rect, l: CD.Layer] = {

--r in cd coords

ps: PlotState = NARROW[pr.devicePrivate];

IF ps.dd.contextFilter[l] THEN {

r ← CDBasics.Intersection[r, pr.interestClip];

IF CDBasics.NonEmpty[r] THEN {

r ← ToDeviceR[ps, r];

IF ps.tes[l]=NIL THEN ps.tes[l] ← CStitching.NewTesselation[];

CStitching.ChangeRect[plane: ps.tes[l], rect: r, new: $covered];

};

NoteDeviceRectangle: PROC [pr: CD.DrawRef, r: CD.Rect, l: CD.Layer] = {

--r in device pixel coords; before changing y sign

ps: PlotState = NARROW[pr.devicePrivate];

IF ps.dd.contextFilter[l] THEN {

r ← CDBasics.Intersection[r, ps.band];

IF CDBasics.NonEmpty[r] THEN {

IF ps.tes[l]=NIL THEN ps.tes[l] ← CStitching.NewTesselation[];

CStitching.ChangeRect[plane: ps.tes[l], rect: r, new: $covered];

};

DrawOutline: CD.DrawRectProc = { --PROC [r: Rect, l: Layer, pr: DrawRef]

delta: INT = 8;--doesn't cause overflow, plot scale is limited

ps: PlotState = NARROW[pr.devicePrivate];

--restrict outline to be only slightly larger than device, to prevent arithmetic overflow

r.x1 ← MAX[pr.interestClip.x1-delta, r.x1]; --r in cd Coordinates

r.y1 ← MAX[pr.interestClip.y1-delta, r.y1];

r.x2 ← MIN[pr.interestClip.x2+delta, r.x2];

r.y2 ← MIN[pr.interestClip.y2+delta, r.y2];

--convert to device pixel coordinates

r ← ToDeviceR[ps, r];

--draw [doesn't draw 2 border pixels]

NoteDeviceRectangle[pr, [r.x1, r.y1, r.x2+1, r.y1+1], l]; --bottom

NoteDeviceRectangle[pr, [r.x1, r.y2-1, r.x2+1, r.y2], l]; --top

NoteDeviceRectangle[pr, [r.x1, r.y1, r.x1+1, r.y2+1], l]; --left

NoteDeviceRectangle[pr, [r.x2-1, r.y1, r.x2, r.y2+1], l]; --right

};

--command level

CheckSpecialScale: PROC [task: REF TaskDesc] = {

micronsPerInch: REAL ~ 25400;

specialScale: REAL ← -1; --means microns on plotted device per lambda

WITH CDProperties.GetAtomProp[task.dd.stippleKey, $CDxPDPlotScale] SELECT FROM

ri: REF INT => specialScale ← ri^;

rr: REF REAL => specialScale ← rr^;

ENDCASE => specialScale ← -1;

IF specialScale>0 THEN {

size: CD.Position ← CDBasics.SizeOfRect[task.clip];

task.scale ← specialScale*task.dd.sResolution/micronsPerInch/task.design.technology.lambda;

TerminalIO.PutF["plotting at special scale %g microns/lambda [%g pixels/chipndaleUnit]\n", [real[specialScale]], [real[task.scale]]];

IF task.dd.pageMode=fixedPage THEN {

IF task.scale > REAL[task.dd.pageSlowSize]/(size.y+1) THEN

TerminalIO.PutRope["doesn't fit on page; must change scale\n"];

};

RequestClipRect: PROC [comm: CDSequencer.Command] RETURNS [clip: CD.Rect, inst: CD.Instance ← NIL] = {

n: INT;

n ← TerminalIO.RequestSelection[header: "plot area",

choice: LIST["plot complete design", "plot drawn rectangle", "plot like viewer", "plot area of selection", "plot selection only"]

];

SELECT n FROM

1 => {

clip ← CDBasics.Extend[CDOps.BoundingBox[comm.design], 2];

TerminalIO.PutRope["plot complete design\n"];

};

2 => {

clip ← CDBasics.ToRect[comm.pos, comm.sPos];

TerminalIO.PutRope["plot rectangle of command\n"];

};

3 => {

clip ← CDViewer.VisibleRect[CDViewer.GetViewer[comm]];

TerminalIO.PutRope["plot as viewed\n"];

};

4 => {

clip ← CDBasics.Extend[CDOps.BoundingBox[comm.design, TRUE], 2];

TerminalIO.PutRope["plot area of selection\n"];

};

5 => {

sel: CD.InstanceList ← NIL;

design: CD.Design ← comm.design;

TerminalIO.PutRope["plot selection only\n"];

FOR l: CD.InstanceList ← CDOps.InstList[design], l.rest WHILE l#NIL DO

IF l.first.selected THEN sel ← CONS[l.first, sel]

ENDLOOP;

IF sel=NIL THEN {

TerminalIO.PutRope["no selection\n"];

ERROR ABORTED

};

inst ← CDInstances.NewInst[CDCells.CreateCellXTransformed[il: sel]];

clip ← CDBasics.Extend[CDInstances.InstRectO[inst], 2];

};

ENDCASE => ERROR ABORTED;

IF ~CDBasics.NonEmpty[clip] THEN {

TerminalIO.PutRope["clip rectangle is empty\n"];

ERROR ABORTED

};

SubstituteFonts: PROC [] RETURNS [substituteFonts: BOOL] = {

n: INT;

n ← TerminalIO.RequestSelection[header: "substitute tioga fonts",

headerDoc: "do for schematics; don't for layout",

choice: LIST["yes", "no"]

];

substituteFonts ← n#2

};

IgnoreCommentLayer: PROC [] RETURNS [ignoreComment: BOOL] = {

n: INT;

n ← TerminalIO.RequestSelection[header: "suppress comment layer",

headerDoc: "do for large layouts; don't for anything else",

choice: LIST["yes", "no"]

];

ignoreComment ← n=1

};

Stripes: PROC [allowStripes: BOOL] RETURNS [n: INT𡤁] = {

IF allowStripes THEN {

choice: INT;

choice ← TerminalIO.RequestSelection[header: "plot multiple vertical strips",

headerDoc: "it's ok not to...",

choice: LIST["yes", "no"]

];

IF choice=1 THEN {

n ← TerminalIO.RequestInt["How many vertical strips? [1..10] "];

IF n<1 OR n>10 THEN {

TerminalIO.PutRope["unreasonable number of stripes\n"];

ERROR ABORTED

};

cnt: INT ← 0;

PDColorPlotComm: PROC [comm: CDSequencer.Command] = {

ENABLE error => {

SELECT TerminalIO.RequestSelection["ERROR", LIST["abort plot", "reset and abort plot", "debug"]] FROM

1 => GOTO tobad;

2 => {currTech ← NIL; GOTO tobad};

3 => REJECT;

ENDCASE => GOTO tobad;

};

clip: CD.Rect;

mustSendToDevice: BOOL ← FALSE;

server: Rope.ROPE; copies: INT ← 1;

task: REF TaskDesc ← NEW[TaskDesc ← [design: comm.design, abort: abortPlot, strips: 1]];

TerminalIO.PutRope["Color plot\n"];

task.dd ← MakeDevice[comm.key];

IF task.dd=NIL THEN {

TerminalIO.PutRope["no device specified\n"];

RETURN

};

TerminalIO.PutRopes[task.dd.name, "\n"];

IF CDImports.HasUnloadedImports[comm.design].yes THEN {

TerminalIO.PutRope["design has unloaded imports\n"];

IF ~TerminalIO.Confirm["unloaded imports, continue anyway", "you would better load imports first", 20] THEN ERROR ABORTED;

};

--plot parameters

[clip, task.instance] ← RequestClipRect[comm];

task.substituteFonts ← SubstituteFonts[];

IF IgnoreCommentLayer[] THEN task.dd.contextFilter[CD.commentLayer] ← FALSE;

task.strips ← Stripes[task.dd.pageMode=anyStripe];

--direct sending to servers

BEGIN

default: Rope.ROPE ← NIL;

choice: LIST OF Rope.ROPE ← LIST["no", "type name of server"];

IF comm.key=$PDPlotVersatec THEN default ← "Sleepy"

ELSE IF comm.key=$PDPlotColor400 THEN default ← "MtFuji";

IF default#NIL THEN choice.rest.rest ← LIST[default];

SELECT TerminalIO.RequestSelection["send immediately to server", choice] FROM

0, 1 => NULL;

2 => {

mustSendToDevice ← TRUE;

server ← TerminalIO.RequestRope["server name>"];

};

3 => {

mustSendToDevice ← TRUE;

server ← default;

};

ENDCASE => NULL;

IF mustSendToDevice THEN {

IF TerminalIO.Confirm["multiple copies"] THEN

copies ← TerminalIO.RequestInt["copies>"];

IF copies<1 OR copies>10 THEN {

TerminalIO.PutRope["unreasonable number of copies\n"];

ERROR ABORTED

};

END;

IF clip.x1>=clip.x2 OR clip.y1>=clip.y2 THEN {

TerminalIO.PutRope["**cannot plot empty area\n"];

ERROR ABORTED

};

task.clip ← clip;

IF mustSendToDevice THEN

task.fileName ← IO.PutFR["///temp/chipndale/pdplots/Plot%gX.pd", IO.int[cnt ← cnt+1]];

Plot[task];

IF mustSendToDevice THEN {

CDEnvironment.ExecFileEntry[key: "PeachPrint"]; --should load file; PeachPrint loaded only on demand

FOR strip: INT IN [0..task.strips) DO

PeachPrint.DoPeachPrintCommand[

server: server,

file: MakeName[task.fileName, strip, task.strips],

log: TerminalIO.TOS[],

copies: copies,

fork: TRUE

PeachPrint.PupAborted => {TerminalIO.PutRope["**Pup aborted plotting\n"]; CONTINUE};

RuntimeError.UNCAUGHT => {TerminalIO.PutRope["**Peach aborted plotting\n"]; CONTINUE};

];

ENDLOOP

};

EXITS tobad => NULL

};

MakeName: PROC [base: Rope.ROPE, strip, strips: INT𡤁] RETURNS [fileName: Rope.ROPE] = {

modifier: Rope.ROPE ← IF strips>1 THEN IO.PutFR["%d", IO.int[strip+1]] ELSE NIL;

IF Rope.IsEmpty[base] THEN base ← "PDPlot";

fileName ← CDIO.MakeName[wDir: "///temp/", base: base, modifier: modifier, ext: "pd"];

};

WaitPlotFinishedCommand: Commander.CommandProc = {

prio: Process.Priority = Process.GetPriority[];

IF ~plottingInProgress THEN {

IO.PutRope[cmd.out, " waiting for plot to start"];

WHILE ~plottingInProgress DO

Process.Pause[Process.SecondsToTicks[1]];

ENDLOOP;

IO.PutRope[cmd.out, ". plot started...\n"]

};

Process.SetPriority[Process.priorityBackground];

WHILE plottingInProgress DO

Process.Pause[Process.SecondsToTicks[2]];

ENDLOOP;

Process.SetPriority[prio];

IO.PutRope[cmd.out, " finished\n"]

};

--interpreter set up

blackX: REF ← NIL;

cyanX: REF ← NIL;

yellowX: REF ← NIL;

magentaX: REF ← NIL;

currTech: CD.Technology ← NIL;

currLayer: CD.Layer ← CD.undefLayer;

Forgett: PROC [l: CD.Layer] = {

IF blackX#NIL THEN CDProperties.PutLayerProp[onto: l, prop: blackX, val: NIL];

IF cyanX#NIL THEN CDProperties.PutLayerProp[onto: l, prop: cyanX, val: NIL];

IF magentaX#NIL THEN CDProperties.PutLayerProp[onto: l, prop: magentaX, val: NIL];

IF yellowX#NIL THEN CDProperties.PutLayerProp[onto: l, prop: yellowX, val: NIL];

};

Start: PUBLIC PROC[tech, device, b, c, m, y: ATOM, text: Rope.ROPE←NIL, invert: BOOL←FALSE] = {

IF currTech#NIL THEN ERROR error;

CDPropertyTools.RemoveProperties[$CDxPDPlotScale];

CDPropertyTools.RemoveProperties[device];

CDProperties.PutAtomProp[device, $CDxPDPlotScale, NIL]; --might be not associated

IF b#NIL THEN CDPropertyTools.RemoveProperties[b];

IF c#NIL THEN CDPropertyTools.RemoveProperties[c];

IF m#NIL THEN CDPropertyTools.RemoveProperties[m];

IF y#NIL THEN CDPropertyTools.RemoveProperties[y];

currTech ← CD.FetchTechnology[tech];

blackX ← b;

cyanX ← c;

yellowX ← y;

magentaX ← m;

CDValue.Store[currTech, device, text];

IF invert THEN {

CDProperties.PutAtomProp[device, tonerToKeyKeys[black], yellowX];

CDProperties.PutAtomProp[device, tonerToKeyKeys[cyan], magentaX];

CDProperties.PutAtomProp[device, tonerToKeyKeys[yellow], blackX];

CDProperties.PutAtomProp[device, tonerToKeyKeys[magenta], cyanX];

}

ELSE {

CDProperties.PutAtomProp[device, tonerToKeyKeys[black], blackX];

CDProperties.PutAtomProp[device, tonerToKeyKeys[cyan], cyanX];

CDProperties.PutAtomProp[device, tonerToKeyKeys[yellow], yellowX];

CDProperties.PutAtomProp[device, tonerToKeyKeys[magenta], magentaX];

};

CDProperties.PutAtomProp[device, $CDxLastTechnology, currTech.key];

FOR l: CD.Layer IN CD.Layer DO Forgett[l] ENDLOOP;

};

End: PUBLIC PROC [] = {

currTech ← NIL

};

Layer: PUBLIC PROC [uniqueKey: ATOM] = {

currLayer ← CD.FetchLayer[t: currTech, uniqueKey: uniqueKey];

Forgett[currLayer]

};

LayerNumber: PUBLIC PROC [layer: NAT] = {

currLayer ← layer;

Forgett[currLayer]

};

Color1: PUBLIC PROC [key: ATOM] = {

CDProperties.PutLayerProp[onto: currLayer, prop: key, val: $ink]

};

Color4: PUBLIC PROC [key: ATOM, i0, i1, i2, i3: [0..16)] = {

CDProperties.PutLayerProp[onto: currLayer, prop: key,

val:

IF i0=0 AND i1=0 AND i2=0 AND i3=0 THEN NIL

ELSE IF i0=15 AND i1=15 AND i2=15 AND i3=15 THEN $ink

ELSE NEW[Stipple4 ← [i0, i1, i2, i3]]

]

};

Color8: PUBLIC PROC [key: ATOM, i0, i1, i2, i3, i4, i5, i6, i7: [0..256)] = {

CDProperties.PutLayerProp[onto: currLayer, prop: key,

val:

IF i0=0 AND i1=0 AND i2=0 AND i3=0 AND i4=0 AND i5=0 AND i6=0 AND i7=0 THEN NIL

ELSE IF i0=255 AND i1=i0 AND i2=i0 AND i3=i0 AND i4=i0 AND i5=i0 AND i6=i0 AND i7=i0 THEN $ink

ELSE NEW[Stipple8 ← [i0, i1, i2, i3, i4, i5, i6, i7]]

]

};

--initializations

Init: PROC [] = {

CDPropertyTools.Associate[$CDxPDPlotScale, $CDxPDPlotScale];

tonerToKeyKeys[black] ← $CDxPDPlotBlack;

tonerToKeyKeys[cyan] ← $CDxPDPlotCyan;

tonerToKeyKeys[magenta] ← $CDxPDPlotMagenta;

tonerToKeyKeys[yellow] ← $CDxPDPlotYellow;

CDSequencer.ImplementCommand[key: $PDPlotVersatec, proc: PDColorPlotComm, queue: doQueue];

CDSequencer.ImplementCommand[key: $PDPlotC150, proc: PDColorPlotComm, queue: doQueue];

CDSequencer.ImplementCommand[key: $PDPlotColor400, proc: PDColorPlotComm, queue: doQueue];

CDSequencer.ImplementCommand[key: $PDPlotUserDevice, proc: PDColorPlotComm, queue: doQueue];

Commander.Register[

key: "///Commands/CDWaitPlotFinished",

proc: WaitPlotFinishedCommand,

doc: "waits until ChipNDale pd plotting is finished once"

];

TerminalIO.PutRope["ChipNDale PD color plot program loaded\n"];

};

SetStipples: PROC [dd: REF DeviceDesc, technology: CD.Technology] = {

PrepareContextFilter: PROC [dd: REF DeviceDesc] = {

FOR l: CD.Layer IN CD.Layer DO

IF dd.contextFilter^[l] THEN {

color: BOOL ← FALSE;

FOR toner: Toner IN Toner DO

IF dd.tonerToKey[toner]#NIL THEN

IF CDProperties.GetLayerProp[l, dd.tonerToKey[toner]]#NIL THEN {

color ← TRUE; EXIT

};

ENDLOOP;

dd.contextFilter^[l] ← color

}

ENDLOOP;

};

IF dd.stippleKey=NIL THEN {

TerminalIO.PutRope["device has undefined stipple key\n"];

ERROR ABORTED

};

IF technology.key#CDProperties.GetAtomProp[dd.stippleKey, lastTechPropKey] THEN {

TerminalIO.PutRope["try to load the stipples\n"];

CDEnvironment.ExecFileEntry[Rope.Cat["PDPlot-stipples-", Atom.GetPName[dd.stippleKey], "-", technology.name], NIL, NIL];

TerminalIO.PutRope["stipples loaded; please check whether any errors occured\n"];

};

WITH CDValue.Fetch[technology, dd.stippleKey] SELECT FROM

r: Rope.ROPE => TerminalIO.PutRopes["color stipples used: [", r, "]\n"];

ENDCASE => {

TerminalIO.PutRope["**color stipples are not defined\n"];

ERROR ABORTED

};

IF technology.key#CDProperties.GetAtomProp[dd.stippleKey, lastTechPropKey] THEN {

TerminalIO.PutRope["**Warning: another technology registered in the meantime; the technology independent stipples are redefined\n"];

};

dd.tonerToKey ← NEW[TonerKeys ← ALL[NIL]];

FOR t: PDFileWriter.Toner IN PDFileWriter.Toner DO

dd.tonerToKey^[t] ← CDProperties.GetAtomProp[dd.stippleKey, tonerToKeyKeys[t]];

IF ~dd.toners[t] OR dd.tonerToKey^[t]=NIL THEN {

dd.toners[t] ← FALSE;

dd.tonerToKey^[t] ← NEW[INT];

}

ENDLOOP;

PrepareContextFilter[dd];

};

SetColor: PROC [ps: PlotState, lev: CD.Layer] = {

MakeLoadref: PROC [pattern: REF ANY] RETURNS [loadRef: PDFileWriter.LoadReference] = TRUSTED {

ToTexture: PROC [pattern: REF ANY] RETURNS [texture: Stipple16] = CHECKED {

--tries to convert pattern to a texture stipple

WITH pattern SELECT FROM

s16: REF Stipple16 => texture ← s16^;

s8: REF Stipple8 =>

FOR i: [0..8) IN [0..8) DO

texture[i] ← texture[i+8] ← (256+1)*s8[i];

ENDLOOP;

s4: REF Stipple4 =>

FOR i: [0..4) IN [0..4) DO

texture[i] ← texture[i+4] ← texture[i+8] ← texture[i+12] ← s4[i]*1111H;

ENDLOOP;

ENDCASE => RETURN[Stipple16[1,1,1,1,1,1,1,1,1,1,1,1,1,1,1,0FFFFH]]; -- error texture

RETURN [texture]

}; -- ToTexture

IF pattern=NIL THEN loadRef ← noColor

ELSE IF pattern=$ink THEN loadRef ← fullColor

ELSE {

texture: Stipple16 ← ToTexture[pattern];

loadRef ← PDFileWriter.LoadContiguousColorTile[pdState: ps.pdState, phase: 0, sMin: 0, fMin: 0, sSize: 16, fSize: 16, bitsPtr: @texture];

IF loadRef>=fullColor THEN ERROR;

};

}; -- MakeLoadref

MakeLoad: PROC [ps: PlotState, lev: CD.Layer] = INLINE {

--makes the load if it does not already exist

IF ps.colorLoads^[lev]=NIL THEN {

ps.colorLoads^[lev] ← NEW[LoadArray];

FOR toner: Toner IN Toner DO

tex: REF ← CDProperties.GetLayerProp[from: lev, prop: ps.dd.tonerToKey[toner]];

IF tex=NIL THEN ps.colorLoads^[lev][toner] ← noColor

ELSE ps.colorLoads^[lev][toner] ← MakeLoadref[tex]

ENDLOOP;

};

}; --MakeLoad

--SetColor

IF ps.anouncedLayer=lev THEN RETURN;

IF ps.colorLoads^[lev]=NIL THEN MakeLoad[ps, lev];

FOR toner: Toner IN Toner DO

IF ps.colorLoads^[lev][toner] = noColor THEN

PDFileWriter.SetColorOff[ps.pdState, toner]

ELSE IF ps.colorLoads^[lev][toner] = fullColor THEN

PDFileWriter.SetColorInk[ps.pdState, toner]

ELSE

PDFileWriter.SetColorTile[ps.pdState, toner, ps.colorLoads^[lev][toner], transparent];

ENDLOOP;

ps.anouncedLayer ← lev

};

Init[];

END.