?  search:
summary | log | graphiclog1 | graphiclog2 | commit | commitdiff | tree | refs | edit | fork
blame | history | raw | HEAD
merge the formfield patch from ooo-build
[ooovba.git] / vcl / source / gdi / outmap.cxx
blob3a3d8fec31317cbb640653793f3365a5342de8a5
1 /*************************************************************************
2 *
3 * DO NOT ALTER OR REMOVE COPYRIGHT NOTICES OR THIS FILE HEADER.
4 *
5 * Copyright 2008 by Sun Microsystems, Inc.
6 *
7 * OpenOffice.org - a multi-platform office productivity suite
8 *
9 * $RCSfile: outmap.cxx,v $
10 * $Revision: 1.29 $
11 *
12 * This file is part of OpenOffice.org.
13 *
14 * OpenOffice.org is free software: you can redistribute it and/or modify
15 * it under the terms of the GNU Lesser General Public License version 3
16 * only, as published by the Free Software Foundation.
17 *
18 * OpenOffice.org is distributed in the hope that it will be useful,
19 * but WITHOUT ANY WARRANTY; without even the implied warranty of
20 * MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the
21 * GNU Lesser General Public License version 3 for more details
22 * (a copy is included in the LICENSE file that accompanied this code).
23 *
24 * You should have received a copy of the GNU Lesser General Public License
25 * version 3 along with OpenOffice.org. If not, see
26 * <http://www.openoffice.org/license.html>
27 * for a copy of the LGPLv3 License.
28 *
29 ************************************************************************/
30
31 // MARKER(update_precomp.py): autogen include statement, do not remove
32 #include "precompiled_vcl.hxx"
33
34 #include <limits.h>
35
36 #ifndef _SV_SVSYS_HXX
37 #include <svsys.h>
38 #endif
39 #include <tools/bigint.hxx>
40 #include <tools/debug.hxx>
41 #include <vcl/virdev.hxx>
42 #include <vcl/svdata.hxx>
43 #include <tools/poly.hxx>
44 #include <vcl/region.hxx>
45 #include <vcl/region.h>
46 #include <vcl/window.h>
47 #include <vcl/wrkwin.hxx>
48 #include <vcl/cursor.hxx>
49 #include <vcl/metaact.hxx>
50 #include <vcl/gdimtf.hxx>
51 #include <vcl/lineinfo.hxx>
52 #include <vcl/outdev.hxx>
53 #include <vcl/outdev.h>
54 #include <vcl/salgdi.hxx>
55 #include <basegfx/matrix/b2dhommatrix.hxx>
56 #include <basegfx/polygon/b2dpolypolygon.hxx>
57
58 #define USE_64BIT_INTS
59
60 // =======================================================================
61
62 DBG_NAMEEX( OutputDevice )
63 DBG_NAMEEX( Polygon )
64 DBG_NAMEEX( PolyPolygon )
65 DBG_NAMEEX( Region )
66
67 // =======================================================================
68
69 static long aImplNumeratorAry[MAP_PIXEL+1] =
70 { 1, 1, 5, 50, 1, 1, 1, 1, 1, 1, 1 };
71 static long aImplDenominatorAry[MAP_PIXEL+1] =
72 { 2540, 254, 127, 127, 1000, 100, 10, 1, 72, 1440, 1 };
73
74 // -----------------------------------------------------------------------
75
76 /*
77 Reduziert die Genauigkeit bis eine Fraction draus wird (sollte mal
78 ein Fraction ctor werden) koennte man dann auch mit BigInts machen
79 */
80
81 static Fraction ImplMakeFraction( long nN1, long nN2, long nD1, long nD2 )
82 {
83 long i = 1;
84
85 if ( nN1 < 0 ) { i = -i; nN1 = -nN1; }
86 if ( nN2 < 0 ) { i = -i; nN2 = -nN2; }
87 if ( nD1 < 0 ) { i = -i; nD1 = -nD1; }
88 if ( nD2 < 0 ) { i = -i; nD2 = -nD2; }
89 // alle positiv; i Vorzeichen
90
91 Fraction aF( i*nN1, nD1 );
92 aF *= Fraction( nN2, nD2 );
93
94 if( nD1 == 0 || nD2 == 0 ) //under these bad circumstances the following while loop will be endless
95 {
96 DBG_ASSERT(false,"Invalid parameter for ImplMakeFraction");
97 return Fraction( 1, 1 );
98 }
99
100 while ( aF.GetDenominator() == -1 )
101 {
102 if ( nN1 > nN2 )
103 nN1 = (nN1 + 1) / 2;
104 else
105 nN2 = (nN2 + 1) / 2;
106 if ( nD1 > nD2 )
107 nD1 = (nD1 + 1) / 2;
108 else
109 nD2 = (nD2 + 1) / 2;
110
111 aF = Fraction( i*nN1, nD1 );
112 aF *= Fraction( nN2, nD2 );
113 }
114
115 return aF;
116 }
117
118 // -----------------------------------------------------------------------
119
120 // Fraction.GetNumerator()
121 // Fraction.GetDenominator() > 0
122 // rOutRes.nPixPerInch? > 0
123 // rMapRes.nMapScNum?
124 // rMapRes.nMapScDenom? > 0
125
126 static void ImplCalcBigIntThreshold( long nDPIX, long nDPIY,
127 const ImplMapRes& rMapRes,
128 ImplThresholdRes& rThresRes )
129 {
130 if ( nDPIX && (LONG_MAX / nDPIX < Abs( rMapRes.mnMapScNumX ) ) ) // #111139# avoid div by zero
131 {
132 rThresRes.mnThresLogToPixX = 0;
133 rThresRes.mnThresPixToLogX = 0;
134 }
135 else
136 {
137 // Schwellenwerte fuer BigInt Arithmetik berechnen
138 long nDenomHalfX = rMapRes.mnMapScDenomX / 2;
139 ULONG nDenomX = rMapRes.mnMapScDenomX;
140 long nProductX = nDPIX * rMapRes.mnMapScNumX;
141
142 if ( !nProductX )
143 rThresRes.mnThresLogToPixX = LONG_MAX;
144 else
145 rThresRes.mnThresLogToPixX = Abs( (LONG_MAX - nDenomHalfX) / nProductX );
146
147 if ( !nDenomX )
148 rThresRes.mnThresPixToLogX = LONG_MAX;
149 else if ( nProductX >= 0 )
150 rThresRes.mnThresPixToLogX = (long)(((ULONG)LONG_MAX - (ULONG)( nProductX/2)) / nDenomX);
151 else
152 rThresRes.mnThresPixToLogX = (long)(((ULONG)LONG_MAX + (ULONG)(-nProductX/2)) / nDenomX);
153 }
154
155 if ( nDPIY && (LONG_MAX / nDPIY < Abs( rMapRes.mnMapScNumY ) ) ) // #111139# avoid div by zero
156 {
157 rThresRes.mnThresLogToPixY = 0;
158 rThresRes.mnThresPixToLogY = 0;
159 }
160 else
161 {
162 // Schwellenwerte fuer BigInt Arithmetik berechnen
163 long nDenomHalfY = rMapRes.mnMapScDenomY / 2;
164 ULONG nDenomY = rMapRes.mnMapScDenomY;
165 long nProductY = nDPIY * rMapRes.mnMapScNumY;
166
167 if ( !nProductY )
168 rThresRes.mnThresLogToPixY = LONG_MAX;
169 else
170 rThresRes.mnThresLogToPixY = Abs( (LONG_MAX - nDenomHalfY) / nProductY );
171
172 if ( !nDenomY )
173 rThresRes.mnThresPixToLogY = LONG_MAX;
174 else if ( nProductY >= 0 )
175 rThresRes.mnThresPixToLogY = (long)(((ULONG)LONG_MAX - (ULONG)( nProductY/2)) / nDenomY);
176 else
177 rThresRes.mnThresPixToLogY = (long)(((ULONG)LONG_MAX + (ULONG)(-nProductY/2)) / nDenomY);
178 }
179
180 #ifdef USE_64BIT_INTS
181 rThresRes.mnThresLogToPixX /= 2;
182 rThresRes.mnThresLogToPixY /= 2;
183 rThresRes.mnThresPixToLogX /= 2;
184 rThresRes.mnThresPixToLogY /= 2;
185 #endif
186 }
187
188 // -----------------------------------------------------------------------
189
190 static void ImplCalcMapResolution( const MapMode& rMapMode,
191 long nDPIX, long nDPIY, ImplMapRes& rMapRes )
192 {
193 switch ( rMapMode.GetMapUnit() )
194 {
195 case MAP_RELATIVE:
196 break;
197 case MAP_100TH_MM:
198 rMapRes.mnMapScNumX = 1;
199 rMapRes.mnMapScDenomX = 2540;
200 rMapRes.mnMapScNumY = 1;
201 rMapRes.mnMapScDenomY = 2540;
202 break;
203 case MAP_10TH_MM:
204 rMapRes.mnMapScNumX = 1;
205 rMapRes.mnMapScDenomX = 254;
206 rMapRes.mnMapScNumY = 1;
207 rMapRes.mnMapScDenomY = 254;
208 break;
209 case MAP_MM:
210 rMapRes.mnMapScNumX = 5; // 10
211 rMapRes.mnMapScDenomX = 127; // 254
212 rMapRes.mnMapScNumY = 5; // 10
213 rMapRes.mnMapScDenomY = 127; // 254
214 break;
215 case MAP_CM:
216 rMapRes.mnMapScNumX = 50; // 100
217 rMapRes.mnMapScDenomX = 127; // 254
218 rMapRes.mnMapScNumY = 50; // 100
219 rMapRes.mnMapScDenomY = 127; // 254
220 break;
221 case MAP_1000TH_INCH:
222 rMapRes.mnMapScNumX = 1;
223 rMapRes.mnMapScDenomX = 1000;
224 rMapRes.mnMapScNumY = 1;
225 rMapRes.mnMapScDenomY = 1000;
226 break;
227 case MAP_100TH_INCH:
228 rMapRes.mnMapScNumX = 1;
229 rMapRes.mnMapScDenomX = 100;
230 rMapRes.mnMapScNumY = 1;
231 rMapRes.mnMapScDenomY = 100;
232 break;
233 case MAP_10TH_INCH:
234 rMapRes.mnMapScNumX = 1;
235 rMapRes.mnMapScDenomX = 10;
236 rMapRes.mnMapScNumY = 1;
237 rMapRes.mnMapScDenomY = 10;
238 break;
239 case MAP_INCH:
240 rMapRes.mnMapScNumX = 1;
241 rMapRes.mnMapScDenomX = 1;
242 rMapRes.mnMapScNumY = 1;
243 rMapRes.mnMapScDenomY = 1;
244 break;
245 case MAP_POINT:
246 rMapRes.mnMapScNumX = 1;
247 rMapRes.mnMapScDenomX = 72;
248 rMapRes.mnMapScNumY = 1;
249 rMapRes.mnMapScDenomY = 72;
250 break;
251 case MAP_TWIP:
252 rMapRes.mnMapScNumX = 1;
253 rMapRes.mnMapScDenomX = 1440;
254 rMapRes.mnMapScNumY = 1;
255 rMapRes.mnMapScDenomY = 1440;
256 break;
257 case MAP_PIXEL:
258 rMapRes.mnMapScNumX = 1;
259 rMapRes.mnMapScDenomX = nDPIX;
260 rMapRes.mnMapScNumY = 1;
261 rMapRes.mnMapScDenomY = nDPIY;
262 break;
263 case MAP_SYSFONT:
264 case MAP_APPFONT:
265 case MAP_REALAPPFONT:
266 {
267 ImplSVData* pSVData = ImplGetSVData();
268 if ( !pSVData->maGDIData.mnAppFontX )
269 {
270 if( pSVData->maWinData.mpFirstFrame )
271 Window::ImplInitAppFontData( pSVData->maWinData.mpFirstFrame );
272 else
273 {
274 WorkWindow* pWin = new WorkWindow( NULL, 0 );
275 Window::ImplInitAppFontData( pWin );
276 delete pWin;
277 }
278 }
279 if ( rMapMode.GetMapUnit() == MAP_REALAPPFONT )
280 rMapRes.mnMapScNumX = pSVData->maGDIData.mnRealAppFontX;
281 else
282 rMapRes.mnMapScNumX = pSVData->maGDIData.mnAppFontX;
283 rMapRes.mnMapScDenomX = nDPIX * 40;
284 rMapRes.mnMapScNumY = pSVData->maGDIData.mnAppFontY;;
285 rMapRes.mnMapScDenomY = nDPIY * 80;
286 }
287 break;
288 default:
289 DBG_ERROR( "unhandled MapUnit" );
290 break;
291 }
292
293 Fraction aScaleX = rMapMode.GetScaleX();
294 Fraction aScaleY = rMapMode.GetScaleY();
295
296 // Offset laut MapMode setzen
297 Point aOrigin = rMapMode.GetOrigin();
298 if ( rMapMode.GetMapUnit() != MAP_RELATIVE )
299 {
300 rMapRes.mnMapOfsX = aOrigin.X();
301 rMapRes.mnMapOfsY = aOrigin.Y();
302 }
303 else
304 {
305 BigInt aX( rMapRes.mnMapOfsX );
306 aX *= BigInt( aScaleX.GetDenominator() );
307 if ( rMapRes.mnMapOfsX >= 0 )
308 {
309 if ( aScaleX.GetNumerator() >= 0 )
310 aX += BigInt( aScaleX.GetNumerator()/2 );
311 else
312 aX -= BigInt( (aScaleX.GetNumerator()+1)/2 );
313 }
314 else
315 {
316 if ( aScaleX.GetNumerator() >= 0 )
317 aX -= BigInt( (aScaleX.GetNumerator()-1)/2 );
318 else
319 aX += BigInt( aScaleX.GetNumerator()/2 );
320 }
321 aX /= BigInt( aScaleX.GetNumerator() );
322 rMapRes.mnMapOfsX = (long)aX + aOrigin.X();
323 BigInt aY( rMapRes.mnMapOfsY );
324 aY *= BigInt( aScaleY.GetDenominator() );
325 if( rMapRes.mnMapOfsY >= 0 )
326 {
327 if ( aScaleY.GetNumerator() >= 0 )
328 aY += BigInt( aScaleY.GetNumerator()/2 );
329 else
330 aY -= BigInt( (aScaleY.GetNumerator()+1)/2 );
331 }
332 else
333 {
334 if ( aScaleY.GetNumerator() >= 0 )
335 aY -= BigInt( (aScaleY.GetNumerator()-1)/2 );
336 else
337 aY += BigInt( aScaleY.GetNumerator()/2 );
338 }
339 aY /= BigInt( aScaleY.GetNumerator() );
340 rMapRes.mnMapOfsY = (long)aY + aOrigin.Y();
341 }
342
343 // Scaling Faktor laut MapMode einberechnen
344 // aTemp? = rMapRes.mnMapSc? * aScale?
345 Fraction aTempX = ImplMakeFraction( rMapRes.mnMapScNumX,
346 aScaleX.GetNumerator(),
347 rMapRes.mnMapScDenomX,
348 aScaleX.GetDenominator() );
349 Fraction aTempY = ImplMakeFraction( rMapRes.mnMapScNumY,
350 aScaleY.GetNumerator(),
351 rMapRes.mnMapScDenomY,
352 aScaleY.GetDenominator() );
353 rMapRes.mnMapScNumX = aTempX.GetNumerator();
354 rMapRes.mnMapScDenomX = aTempX.GetDenominator();
355 rMapRes.mnMapScNumY = aTempY.GetNumerator();
356 rMapRes.mnMapScDenomY = aTempY.GetDenominator();
357
358 // hack: 0/n ungef"ahr 1/max
359 if ( !rMapRes.mnMapScNumX )
360 {
361 rMapRes.mnMapScNumX = 1;
362 rMapRes.mnMapScDenomX = LONG_MAX;
363 }
364 if ( !rMapRes.mnMapScNumY )
365 {
366 rMapRes.mnMapScNumY = 1;
367 rMapRes.mnMapScDenomY = LONG_MAX;
368 }
369 }
370
371 // -----------------------------------------------------------------------
372
373 inline void ImplCalcMapResolution( const MapMode& rMapMode,
374 long nDPIX, long nDPIY,
375 ImplMapRes& rMapRes,
376 ImplThresholdRes& rThresRes )
377 {
378 ImplCalcMapResolution( rMapMode, nDPIX, nDPIY, rMapRes );
379 ImplCalcBigIntThreshold( nDPIX, nDPIY, rMapRes, rThresRes );
380 }
381
382 // -----------------------------------------------------------------------
383
384 static long ImplLogicToPixel( long n, long nDPI, long nMapNum, long nMapDenom,
385 long nThres )
386 {
387 // To "use" it...
388 (void) nThres;
389 #ifdef USE_64BIT_INTS
390 #if (SAL_TYPES_SIZEOFLONG < 8)
391 if( (+n < nThres) && (-n < nThres) )
392 {
393 n *= nMapNum * nDPI;
394 if( nMapDenom != 1 )
395 {
396 n = (2 * n) / nMapDenom;
397 if( n < 0 ) --n; else ++n;
398 n /= 2;
399 }
400 }
401 else
402 #endif
403 {
404 sal_Int64 n64 = n;
405 n64 *= nMapNum;
406 n64 *= nDPI;
407 if( nMapDenom == 1 )
408 n = (long)n64;
409 else
410 {
411 n = (long)(2 * n64 / nMapDenom);
412 if( n < 0 ) --n; else ++n;
413 n /= 2;
414 }
415 }
416 return n;
417 #else // USE_64BIT_INTS
418 if ( Abs( n ) < nThres )
419 {
420 n *= nDPI * nMapNum;
421 n += n >= 0 ? nMapDenom/2 : -((nMapDenom-1)/2);
422 return (n / nMapDenom);
423 }
424 else
425 {
426 BigInt aTemp( n );
427 aTemp *= BigInt( nDPI );
428 aTemp *= BigInt( nMapNum );
429
430 if ( aTemp.IsNeg() )
431 {
432 BigInt aMapScDenom2( (nMapDenom-1)/2 );
433 aTemp -= aMapScDenom2;
434 }
435 else
436 {
437 BigInt aMapScDenom2( nMapDenom/2 );
438 aTemp += aMapScDenom2;
439 }
440
441 aTemp /= BigInt( nMapDenom );
442 return (long)aTemp;
443 }
444 #endif
445 }
446
447 // -----------------------------------------------------------------------
448
449 static long ImplPixelToLogic( long n, long nDPI, long nMapNum, long nMapDenom,
450 long nThres )
451 {
452 // To "use" it...
453 (void) nThres;
454 #ifdef USE_64BIT_INTS
455 #if (SAL_TYPES_SIZEOFLONG < 8)
456 if( (+n < nThres) && (-n < nThres) )
457 n = (2 * n * nMapDenom) / (nDPI * nMapNum);
458 else
459 #endif
460 {
461 sal_Int64 n64 = n;
462 n64 *= nMapDenom;
463 long nDenom = nDPI * nMapNum;
464 n = (long)(2 * n64 / nDenom);
465 }
466 if( n < 0 ) --n; else ++n;
467 return (n / 2);
468 #else // USE_64BIT_INTS
469 if ( Abs( n ) < nThres )
470 {
471 long nDenom = nDPI * nMapNum;
472 long nNum = n * nMapDenom;
473 if( (nNum ^ nDenom) >= 0 )
474 nNum += nDenom/2;
475 else
476 nNum -= nDenom/2;
477 return (nNum / nDenom);
478 }
479 else
480 {
481 BigInt aDenom( nDPI );
482 aDenom *= BigInt( nMapNum );
483
484 BigInt aNum( n );
485 aNum *= BigInt( nMapDenom );
486
487 BigInt aDenom2( aDenom );
488 if ( aNum.IsNeg() )
489 {
490 if ( aDenom.IsNeg() )
491 {
492 aDenom2 /= BigInt(2);
493 aNum += aDenom2;
494 }
495 else
496 {
497 aDenom2 -= 1;
498 aDenom2 /= BigInt(2);
499 aNum -= aDenom2;
500 }
501 }
502 else
503 {
504 if ( aDenom.IsNeg() )
505 {
506 aDenom2 += 1;
507 aDenom2 /= BigInt(2);
508 aNum -= aDenom2;
509 }
510 else
511 {
512 aDenom2 /= BigInt(2);
513 aNum += aDenom2;
514 }
515 }
516
517 aNum /= aDenom;
518 return (long)aNum;
519 }
520 #endif
521 }
522
523 // -----------------------------------------------------------------------
524
525 long OutputDevice::ImplLogicXToDevicePixel( long nX ) const
526 {
527 if ( !mbMap )
528 return nX+mnOutOffX;
529
530 return ImplLogicToPixel( nX + maMapRes.mnMapOfsX, mnDPIX,
531 maMapRes.mnMapScNumX, maMapRes.mnMapScDenomX,
532 maThresRes.mnThresLogToPixX )+mnOutOffX+mnOutOffOrigX;
533 }
534
535 // -----------------------------------------------------------------------
536
537 long OutputDevice::ImplLogicYToDevicePixel( long nY ) const
538 {
539 if ( !mbMap )
540 return nY+mnOutOffY;
541
542 return ImplLogicToPixel( nY + maMapRes.mnMapOfsY, mnDPIY,
543 maMapRes.mnMapScNumY, maMapRes.mnMapScDenomY,
544 maThresRes.mnThresLogToPixY )+mnOutOffY+mnOutOffOrigY;
545 }
546
547 // -----------------------------------------------------------------------
548
549 long OutputDevice::ImplLogicWidthToDevicePixel( long nWidth ) const
550 {
551 if ( !mbMap )
552 return nWidth;
553
554 return ImplLogicToPixel( nWidth, mnDPIX,
555 maMapRes.mnMapScNumX, maMapRes.mnMapScDenomX,
556 maThresRes.mnThresLogToPixX );
557 }
558
559 float OutputDevice::ImplFloatLogicWidthToDevicePixel( float fLogicWidth) const
560 {
561 if( !mbMap)
562 return fLogicWidth;
563 // TODO: consolidate the calculation into one multiplication
564 float fPixelWidth = (fLogicWidth * mnDPIX * maMapRes.mnMapScNumX) / maMapRes.mnMapScDenomX;
565 return fPixelWidth;
566 }
567
568 // -----------------------------------------------------------------------
569
570 long OutputDevice::ImplLogicHeightToDevicePixel( long nHeight ) const
571 {
572 if ( !mbMap )
573 return nHeight;
574
575 return ImplLogicToPixel( nHeight, mnDPIY,
576 maMapRes.mnMapScNumY, maMapRes.mnMapScDenomY,
577 maThresRes.mnThresLogToPixY );
578 }
579
580 float OutputDevice::ImplFloatLogicHeightToDevicePixel( float fLogicHeight) const
581 {
582 if( !mbMap)
583 return fLogicHeight;
584 float fPixelHeight = (fLogicHeight * mnDPIY * maMapRes.mnMapScNumY) / maMapRes.mnMapScDenomY;
585 return fPixelHeight;
586 }
587
588 // -----------------------------------------------------------------------
589
590 long OutputDevice::ImplDevicePixelToLogicWidth( long nWidth ) const
591 {
592 if ( !mbMap )
593 return nWidth;
594
595 return ImplPixelToLogic( nWidth, mnDPIX,
596 maMapRes.mnMapScNumX, maMapRes.mnMapScDenomX,
597 maThresRes.mnThresPixToLogX );
598 }
599
600 float OutputDevice::ImplFloatDevicePixelToLogicWidth( float fPixelWidth) const
601 {
602 if( !mbMap)
603 return fPixelWidth;
604 float fLogicHeight = (fPixelWidth * maMapRes.mnMapScDenomX) / (mnDPIX * maMapRes.mnMapScNumX);
605 return fLogicHeight;
606 }
607
608 // -----------------------------------------------------------------------
609
610 long OutputDevice::ImplDevicePixelToLogicHeight( long nHeight ) const
611 {
612 if ( !mbMap )
613 return nHeight;
614
615 return ImplPixelToLogic( nHeight, mnDPIY,
616 maMapRes.mnMapScNumY, maMapRes.mnMapScDenomY,
617 maThresRes.mnThresPixToLogY );
618 }
619
620 float OutputDevice::ImplFloatDevicePixelToLogicHeight( float fPixelHeight) const
621 {
622 if( !mbMap)
623 return fPixelHeight;
624 float fLogicHeight = (fPixelHeight * maMapRes.mnMapScDenomY) / (mnDPIY * maMapRes.mnMapScNumY);
625 return fLogicHeight;
626 }
627
628
629 // -----------------------------------------------------------------------
630
631 Point OutputDevice::ImplLogicToDevicePixel( const Point& rLogicPt ) const
632 {
633 if ( !mbMap )
634 return Point( rLogicPt.X()+mnOutOffX, rLogicPt.Y()+mnOutOffY );
635
636 return Point( ImplLogicToPixel( rLogicPt.X() + maMapRes.mnMapOfsX, mnDPIX,
637 maMapRes.mnMapScNumX, maMapRes.mnMapScDenomX,
638 maThresRes.mnThresLogToPixX )+mnOutOffX+mnOutOffOrigX,
639 ImplLogicToPixel( rLogicPt.Y() + maMapRes.mnMapOfsY, mnDPIY,
640 maMapRes.mnMapScNumY, maMapRes.mnMapScDenomY,
641 maThresRes.mnThresLogToPixY )+mnOutOffY+mnOutOffOrigY );
642 }
643
644 // -----------------------------------------------------------------------
645
646 Size OutputDevice::ImplLogicToDevicePixel( const Size& rLogicSize ) const
647 {
648 if ( !mbMap )
649 return rLogicSize;
650
651 return Size( ImplLogicToPixel( rLogicSize.Width(), mnDPIX,
652 maMapRes.mnMapScNumX, maMapRes.mnMapScDenomX,
653 maThresRes.mnThresLogToPixX ),
654 ImplLogicToPixel( rLogicSize.Height(), mnDPIY,
655 maMapRes.mnMapScNumY, maMapRes.mnMapScDenomY,
656 maThresRes.mnThresLogToPixY ) );
657 }
658
659 // -----------------------------------------------------------------------
660
661 Rectangle OutputDevice::ImplLogicToDevicePixel( const Rectangle& rLogicRect ) const
662 {
663 if ( rLogicRect.IsEmpty() )
664 return rLogicRect;
665
666 if ( !mbMap )
667 {
668 return Rectangle( rLogicRect.Left()+mnOutOffX, rLogicRect.Top()+mnOutOffY,
669 rLogicRect.Right()+mnOutOffX, rLogicRect.Bottom()+mnOutOffY );
670 }
671
672 return Rectangle( ImplLogicToPixel( rLogicRect.Left()+maMapRes.mnMapOfsX, mnDPIX,
673 maMapRes.mnMapScNumX, maMapRes.mnMapScDenomX,
674 maThresRes.mnThresLogToPixX )+mnOutOffX+mnOutOffOrigX,
675 ImplLogicToPixel( rLogicRect.Top()+maMapRes.mnMapOfsY, mnDPIY,
676 maMapRes.mnMapScNumY, maMapRes.mnMapScDenomY,
677 maThresRes.mnThresLogToPixY )+mnOutOffY+mnOutOffOrigY,
678 ImplLogicToPixel( rLogicRect.Right()+maMapRes.mnMapOfsX, mnDPIX,
679 maMapRes.mnMapScNumX, maMapRes.mnMapScDenomX,
680 maThresRes.mnThresLogToPixX )+mnOutOffX+mnOutOffOrigX,
681 ImplLogicToPixel( rLogicRect.Bottom()+maMapRes.mnMapOfsY, mnDPIY,
682 maMapRes.mnMapScNumY, maMapRes.mnMapScDenomY,
683 maThresRes.mnThresLogToPixY )+mnOutOffY+mnOutOffOrigY );
684 }
685
686 // -----------------------------------------------------------------------
687
688 Polygon OutputDevice::ImplLogicToDevicePixel( const Polygon& rLogicPoly ) const
689 {
690 if ( !mbMap && !mnOutOffX && !mnOutOffY )
691 return rLogicPoly;
692
693 USHORT i;
694 USHORT nPoints = rLogicPoly.GetSize();
695 Polygon aPoly( rLogicPoly );
696
697 // Pointer auf das Point-Array holen (Daten werden kopiert)
698 const Point* pPointAry = aPoly.GetConstPointAry();
699
700 if ( mbMap )
701 {
702 for ( i = 0; i < nPoints; i++ )
703 {
704 const Point* pPt = &(pPointAry[i]);
705 Point aPt;
706 aPt.X() = ImplLogicToPixel( pPt->X()+maMapRes.mnMapOfsX, mnDPIX,
707 maMapRes.mnMapScNumX, maMapRes.mnMapScDenomX,
708 maThresRes.mnThresLogToPixX )+mnOutOffX+mnOutOffOrigX;
709 aPt.Y() = ImplLogicToPixel( pPt->Y()+maMapRes.mnMapOfsY, mnDPIY,
710 maMapRes.mnMapScNumY, maMapRes.mnMapScDenomY,
711 maThresRes.mnThresLogToPixY )+mnOutOffY+mnOutOffOrigY;
712 aPoly[i] = aPt;
713 }
714 }
715 else
716 {
717 for ( i = 0; i < nPoints; i++ )
718 {
719 Point aPt = pPointAry[i];
720 aPt.X() += mnOutOffX;
721 aPt.Y() += mnOutOffY;
722 aPoly[i] = aPt;
723 }
724 }
725
726 return aPoly;
727 }
728
729 // -----------------------------------------------------------------------
730
731 PolyPolygon OutputDevice::ImplLogicToDevicePixel( const PolyPolygon& rLogicPolyPoly ) const
732 {
733 if ( !mbMap && !mnOutOffX && !mnOutOffY )
734 return rLogicPolyPoly;
735
736 PolyPolygon aPolyPoly( rLogicPolyPoly );
737 USHORT nPoly = aPolyPoly.Count();
738 for( USHORT i = 0; i < nPoly; i++ )
739 {
740 Polygon& rPoly = aPolyPoly[i];
741 rPoly = ImplLogicToDevicePixel( rPoly );
742 }
743 return aPolyPoly;
744 }
745
746 // -----------------------------------------------------------------------
747
748 LineInfo OutputDevice::ImplLogicToDevicePixel( const LineInfo& rLineInfo ) const
749 {
750 LineInfo aInfo( rLineInfo );
751
752 if( aInfo.GetStyle() == LINE_DASH )
753 {
754 if( aInfo.GetDotCount() && aInfo.GetDotLen() )
755 aInfo.SetDotLen( Max( ImplLogicWidthToDevicePixel( aInfo.GetDotLen() ), 1L ) );
756 else
757 aInfo.SetDotCount( 0 );
758
759 if( aInfo.GetDashCount() && aInfo.GetDashLen() )
760 aInfo.SetDashLen( Max( ImplLogicWidthToDevicePixel( aInfo.GetDashLen() ), 1L ) );
761 else
762 aInfo.SetDashCount( 0 );
763
764 aInfo.SetDistance( ImplLogicWidthToDevicePixel( aInfo.GetDistance() ) );
765
766 if( ( !aInfo.GetDashCount() && !aInfo.GetDotCount() ) || !aInfo.GetDistance() )
767 aInfo.SetStyle( LINE_SOLID );
768 }
769
770 aInfo.SetWidth( ImplLogicWidthToDevicePixel( aInfo.GetWidth() ) );
771
772 return aInfo;
773 }
774
775 // -----------------------------------------------------------------------
776
777 Rectangle OutputDevice::ImplDevicePixelToLogic( const Rectangle& rPixelRect ) const
778 {
779 if ( rPixelRect.IsEmpty() )
780 return rPixelRect;
781
782 if ( !mbMap )
783 {
784 return Rectangle( rPixelRect.Left()-mnOutOffX, rPixelRect.Top()-mnOutOffY,
785 rPixelRect.Right()-mnOutOffX, rPixelRect.Bottom()-mnOutOffY );
786 }
787
788 return Rectangle( ImplPixelToLogic( rPixelRect.Left()-mnOutOffX-mnOutOffOrigX, mnDPIX,
789 maMapRes.mnMapScNumX, maMapRes.mnMapScDenomX,
790 maThresRes.mnThresPixToLogX )-maMapRes.mnMapOfsX,
791 ImplPixelToLogic( rPixelRect.Top()-mnOutOffY-mnOutOffOrigY, mnDPIY,
792 maMapRes.mnMapScNumY, maMapRes.mnMapScDenomY,
793 maThresRes.mnThresPixToLogY )-maMapRes.mnMapOfsY,
794 ImplPixelToLogic( rPixelRect.Right()-mnOutOffX-mnOutOffOrigX, mnDPIX,
795 maMapRes.mnMapScNumX, maMapRes.mnMapScDenomX,
796 maThresRes.mnThresPixToLogX )-maMapRes.mnMapOfsX,
797 ImplPixelToLogic( rPixelRect.Bottom()-mnOutOffY-mnOutOffOrigY, mnDPIY,
798 maMapRes.mnMapScNumY, maMapRes.mnMapScDenomY,
799 maThresRes.mnThresPixToLogY )-maMapRes.mnMapOfsY );
800 }
801
802 // -----------------------------------------------------------------------
803
804 Region OutputDevice::ImplPixelToDevicePixel( const Region& rRegion ) const
805 {
806 DBG_CHKOBJ( &rRegion, Region, ImplDbgTestRegion );
807
808 if ( !mnOutOffX && !mnOutOffY )
809 return rRegion;
810
811 Region aRegion( rRegion );
812 aRegion.Move( mnOutOffX+mnOutOffOrigX, mnOutOffY+mnOutOffOrigY );
813 return aRegion;
814 }
815
816 // -----------------------------------------------------------------------
817
818 void OutputDevice::EnableMapMode( BOOL bEnable )
819 {
820 mbMap = (bEnable != 0);
821
822 if( mpAlphaVDev )
823 mpAlphaVDev->EnableMapMode( bEnable );
824 }
825
826 // -----------------------------------------------------------------------
827
828 void OutputDevice::SetMapMode()
829 {
830 DBG_CHKTHIS( OutputDevice, ImplDbgCheckOutputDevice );
831
832 if ( mpMetaFile )
833 mpMetaFile->AddAction( new MetaMapModeAction( MapMode() ) );
834
835 if ( mbMap || !maMapMode.IsDefault() )
836 {
837 mbMap = FALSE;
838 maMapMode = MapMode();
839
840 // create new objects (clip region werden nicht neu skaliert)
841 mbNewFont = TRUE;
842 mbInitFont = TRUE;
843 if ( GetOutDevType() == OUTDEV_WINDOW )
844 {
845 if ( ((Window*)this)->mpWindowImpl->mpCursor )
846 ((Window*)this)->mpWindowImpl->mpCursor->ImplNew();
847 }
848
849 // #106426# Adapt logical offset when changing mapmode
850 mnOutOffLogicX = mnOutOffOrigX; // no mapping -> equal offsets
851 mnOutOffLogicY = mnOutOffOrigY;
852
853 // #i75163#
854 ImplInvalidateViewTransform();
855 }
856
857 if( mpAlphaVDev )
858 mpAlphaVDev->SetMapMode();
859 }
860
861 // -----------------------------------------------------------------------
862
863 void OutputDevice::SetMapMode( const MapMode& rNewMapMode )
864 {
865 DBG_CHKTHIS( OutputDevice, ImplDbgCheckOutputDevice );
866
867 BOOL bRelMap = (rNewMapMode.GetMapUnit() == MAP_RELATIVE);
868
869 if ( mpMetaFile )
870 {
871 mpMetaFile->AddAction( new MetaMapModeAction( rNewMapMode ) );
872 #ifdef DBG_UTIL
873 if ( GetOutDevType() != OUTDEV_PRINTER )
874 DBG_ASSERTWARNING( bRelMap, "Please record only relative MapModes!" );
875 #endif
876 }
877
878 // Ist der MapMode der gleiche wie vorher, dann mache nichts
879 if ( maMapMode == rNewMapMode )
880 return;
881
882 if( mpAlphaVDev )
883 mpAlphaVDev->SetMapMode( rNewMapMode );
884
885 // Ist Default-MapMode, dann bereche nichts
886 BOOL bOldMap = mbMap;
887 mbMap = !rNewMapMode.IsDefault();
888 if ( mbMap )
889 {
890 // Falls nur der Orign umgesetzt wird, dann scaliere nichts neu
891 if ( (rNewMapMode.GetMapUnit() == maMapMode.GetMapUnit()) &&
892 (rNewMapMode.GetScaleX() == maMapMode.GetScaleX()) &&
893 (rNewMapMode.GetScaleY() == maMapMode.GetScaleY()) &&
894 (bOldMap == mbMap) )
895 {
896 // Offset setzen
897 Point aOrigin = rNewMapMode.GetOrigin();
898 maMapRes.mnMapOfsX = aOrigin.X();
899 maMapRes.mnMapOfsY = aOrigin.Y();
900 maMapMode = rNewMapMode;
901
902 // #i75163#
903 ImplInvalidateViewTransform();
904
905 return;
906 }
907 if ( !bOldMap && bRelMap )
908 {
909 maMapRes.mnMapScNumX = 1;
910 maMapRes.mnMapScNumY = 1;
911 maMapRes.mnMapScDenomX = mnDPIX;
912 maMapRes.mnMapScDenomY = mnDPIY;
913 maMapRes.mnMapOfsX = 0;
914 maMapRes.mnMapOfsY = 0;
915 }
916
917 // Neue MapMode-Aufloesung berechnen
918 ImplCalcMapResolution( rNewMapMode, mnDPIX, mnDPIY, maMapRes, maThresRes );
919 }
920
921 // Neuen MapMode setzen
922 if ( bRelMap )
923 {
924 Point aOrigin( maMapRes.mnMapOfsX, maMapRes.mnMapOfsY );
925 // aScale? = maMapMode.GetScale?() * rNewMapMode.GetScale?()
926 Fraction aScaleX = ImplMakeFraction( maMapMode.GetScaleX().GetNumerator(),
927 rNewMapMode.GetScaleX().GetNumerator(),
928 maMapMode.GetScaleX().GetDenominator(),
929 rNewMapMode.GetScaleX().GetDenominator() );
930 Fraction aScaleY = ImplMakeFraction( maMapMode.GetScaleY().GetNumerator(),
931 rNewMapMode.GetScaleY().GetNumerator(),
932 maMapMode.GetScaleY().GetDenominator(),
933 rNewMapMode.GetScaleY().GetDenominator() );
934 maMapMode.SetOrigin( aOrigin );
935 maMapMode.SetScaleX( aScaleX );
936 maMapMode.SetScaleY( aScaleY );
937 }
938 else
939 maMapMode = rNewMapMode;
940
941 // create new objects (clip region werden nicht neu skaliert)
942 mbNewFont = TRUE;
943 mbInitFont = TRUE;
944 if ( GetOutDevType() == OUTDEV_WINDOW )
945 {
946 if ( ((Window*)this)->mpWindowImpl->mpCursor )
947 ((Window*)this)->mpWindowImpl->mpCursor->ImplNew();
948 }
949
950 // #106426# Adapt logical offset when changing mapmode
951 mnOutOffLogicX = ImplPixelToLogic( mnOutOffOrigX, mnDPIX,
952 maMapRes.mnMapScNumX, maMapRes.mnMapScDenomX,
953 maThresRes.mnThresPixToLogX );
954 mnOutOffLogicY = ImplPixelToLogic( mnOutOffOrigY, mnDPIY,
955 maMapRes.mnMapScNumY, maMapRes.mnMapScDenomY,
956 maThresRes.mnThresPixToLogY );
957
958 // #i75163#
959 ImplInvalidateViewTransform();
960 }
961
962 // -----------------------------------------------------------------------
963
964 void OutputDevice::SetRelativeMapMode( const MapMode& rNewMapMode )
965 {
966 DBG_CHKTHIS( OutputDevice, ImplDbgCheckOutputDevice );
967
968 // Ist der MapMode der gleiche wie vorher, dann mache nichts
969 if ( maMapMode == rNewMapMode )
970 return;
971
972 MapUnit eOld = maMapMode.GetMapUnit();
973 MapUnit eNew = rNewMapMode.GetMapUnit();
974
975 // a?F = rNewMapMode.GetScale?() / maMapMode.GetScale?()
976 Fraction aXF = ImplMakeFraction( rNewMapMode.GetScaleX().GetNumerator(),
977 maMapMode.GetScaleX().GetDenominator(),
978 rNewMapMode.GetScaleX().GetDenominator(),
979 maMapMode.GetScaleX().GetNumerator() );
980 Fraction aYF = ImplMakeFraction( rNewMapMode.GetScaleY().GetNumerator(),
981 maMapMode.GetScaleY().GetDenominator(),
982 rNewMapMode.GetScaleY().GetDenominator(),
983 maMapMode.GetScaleY().GetNumerator() );
984
985 Point aPt( LogicToLogic( Point(), NULL, &rNewMapMode ) );
986 if ( eNew != eOld )
987 {
988 if ( eOld > MAP_PIXEL )
989 {
990 DBG_ERRORFILE( "Not implemented MapUnit" );
991 }
992 else if ( eNew > MAP_PIXEL )
993 {
994 DBG_ERRORFILE( "Not implemented MapUnit" );
995 }
996 else
997 {
998 Fraction aF( aImplNumeratorAry[eNew] * aImplDenominatorAry[eOld],
999 aImplNumeratorAry[eOld] * aImplDenominatorAry[eNew] );
1000
1001 // a?F = a?F * aF
1002 aXF = ImplMakeFraction( aXF.GetNumerator(), aF.GetNumerator(),
1003 aXF.GetDenominator(), aF.GetDenominator() );
1004 aYF = ImplMakeFraction( aYF.GetNumerator(), aF.GetNumerator(),
1005 aYF.GetDenominator(), aF.GetDenominator() );
1006 if ( eOld == MAP_PIXEL )
1007 {
1008 aXF *= Fraction( mnDPIX, 1 );
1009 aYF *= Fraction( mnDPIY, 1 );
1010 }
1011 else if ( eNew == MAP_PIXEL )
1012 {
1013 aXF *= Fraction( 1, mnDPIX );
1014 aYF *= Fraction( 1, mnDPIY );
1015 }
1016 }
1017 }
1018
1019 MapMode aNewMapMode( MAP_RELATIVE, Point( -aPt.X(), -aPt.Y() ), aXF, aYF );
1020 SetMapMode( aNewMapMode );
1021
1022 if ( eNew != eOld )
1023 maMapMode = rNewMapMode;
1024
1025 // #106426# Adapt logical offset when changing mapmode
1026 mnOutOffLogicX = ImplPixelToLogic( mnOutOffOrigX, mnDPIX,
1027 maMapRes.mnMapScNumX, maMapRes.mnMapScDenomX,
1028 maThresRes.mnThresPixToLogX );
1029 mnOutOffLogicY = ImplPixelToLogic( mnOutOffOrigY, mnDPIY,
1030 maMapRes.mnMapScNumY, maMapRes.mnMapScDenomY,
1031 maThresRes.mnThresPixToLogY );
1032
1033 if( mpAlphaVDev )
1034 mpAlphaVDev->SetRelativeMapMode( rNewMapMode );
1035 }
1036
1037 // -----------------------------------------------------------------------
1038
1039 // #i75163#
1040 basegfx::B2DHomMatrix OutputDevice::GetViewTransformation() const
1041 {
1042 if(mbMap)
1043 {
1044 // #i82615#
1045 if(!mpOutDevData)
1046 {
1047 const_cast< OutputDevice* >(this)->ImplInitOutDevData();
1048 }
1049
1050 if(!mpOutDevData->mpViewTransform)
1051 {
1052 mpOutDevData->mpViewTransform = new basegfx::B2DHomMatrix;
1053
1054 const double fScaleFactorX((double)mnDPIX * (double)maMapRes.mnMapScNumX / (double)maMapRes.mnMapScDenomX);
1055 const double fScaleFactorY((double)mnDPIY * (double)maMapRes.mnMapScNumY / (double)maMapRes.mnMapScDenomY);
1056 const double fZeroPointX(((double)maMapRes.mnMapOfsX * fScaleFactorX) + (double)mnOutOffOrigX);
1057 const double fZeroPointY(((double)maMapRes.mnMapOfsY * fScaleFactorY) + (double)mnOutOffOrigY);
1058
1059 mpOutDevData->mpViewTransform->set(0, 0, fScaleFactorX);
1060 mpOutDevData->mpViewTransform->set(1, 1, fScaleFactorY);
1061 mpOutDevData->mpViewTransform->set(0, 2, fZeroPointX);
1062 mpOutDevData->mpViewTransform->set(1, 2, fZeroPointY);
1063 }
1064
1065 return *mpOutDevData->mpViewTransform;
1066 }
1067 else
1068 {
1069 return basegfx::B2DHomMatrix();
1070 }
1071 }
1072
1073 // -----------------------------------------------------------------------
1074
1075 // #i75163#
1076 basegfx::B2DHomMatrix OutputDevice::GetInverseViewTransformation() const
1077 {
1078 if(mbMap)
1079 {
1080 // #i82615#
1081 if(!mpOutDevData)
1082 {
1083 const_cast< OutputDevice* >(this)->ImplInitOutDevData();
1084 }
1085
1086 if(!mpOutDevData->mpInverseViewTransform)
1087 {
1088 GetViewTransformation();
1089 mpOutDevData->mpInverseViewTransform = new basegfx::B2DHomMatrix(*mpOutDevData->mpViewTransform);
1090 mpOutDevData->mpInverseViewTransform->invert();
1091 }
1092
1093 return *mpOutDevData->mpInverseViewTransform;
1094 }
1095 else
1096 {
1097 return basegfx::B2DHomMatrix();
1098 }
1099 }
1100
1101 // -----------------------------------------------------------------------
1102
1103 basegfx::B2DHomMatrix OutputDevice::ImplGetDeviceTransformation() const
1104 {
1105 basegfx::B2DHomMatrix aTransformation = GetViewTransformation();
1106 // TODO: is it worth to cache the transformed result?
1107 if( mnOutOffX || mnOutOffY )
1108 aTransformation.translate( mnOutOffX, mnOutOffY );
1109 return aTransformation;
1110 }
1111
1112 // -----------------------------------------------------------------------
1113
1114 Point OutputDevice::LogicToPixel( const Point& rLogicPt ) const
1115 {
1116 DBG_CHKTHIS( OutputDevice, ImplDbgCheckOutputDevice );
1117
1118 if ( !mbMap )
1119 return rLogicPt;
1120
1121 return Point( ImplLogicToPixel( rLogicPt.X() + maMapRes.mnMapOfsX, mnDPIX,
1122 maMapRes.mnMapScNumX, maMapRes.mnMapScDenomX,
1123 maThresRes.mnThresLogToPixX )+mnOutOffOrigX,
1124 ImplLogicToPixel( rLogicPt.Y() + maMapRes.mnMapOfsY, mnDPIY,
1125 maMapRes.mnMapScNumY, maMapRes.mnMapScDenomY,
1126 maThresRes.mnThresLogToPixY )+mnOutOffOrigY );
1127 }
1128
1129 // -----------------------------------------------------------------------
1130
1131 Size OutputDevice::LogicToPixel( const Size& rLogicSize ) const
1132 {
1133 DBG_CHKTHIS( OutputDevice, ImplDbgCheckOutputDevice );
1134
1135 if ( !mbMap )
1136 return rLogicSize;
1137
1138 return Size( ImplLogicToPixel( rLogicSize.Width(), mnDPIX,
1139 maMapRes.mnMapScNumX, maMapRes.mnMapScDenomX,
1140 maThresRes.mnThresLogToPixX ),
1141 ImplLogicToPixel( rLogicSize.Height(), mnDPIY,
1142 maMapRes.mnMapScNumY, maMapRes.mnMapScDenomY,
1143 maThresRes.mnThresLogToPixY ) );
1144 }
1145
1146 // -----------------------------------------------------------------------
1147
1148 Rectangle OutputDevice::LogicToPixel( const Rectangle& rLogicRect ) const
1149 {
1150 DBG_CHKTHIS( OutputDevice, ImplDbgCheckOutputDevice );
1151
1152 if ( !mbMap || rLogicRect.IsEmpty() )
1153 return rLogicRect;
1154
1155 return Rectangle( ImplLogicToPixel( rLogicRect.Left() + maMapRes.mnMapOfsX, mnDPIX,
1156 maMapRes.mnMapScNumX, maMapRes.mnMapScDenomX,
1157 maThresRes.mnThresLogToPixX )+mnOutOffOrigX,
1158 ImplLogicToPixel( rLogicRect.Top() + maMapRes.mnMapOfsY, mnDPIY,
1159 maMapRes.mnMapScNumY, maMapRes.mnMapScDenomY,
1160 maThresRes.mnThresLogToPixY )+mnOutOffOrigY,
1161 ImplLogicToPixel( rLogicRect.Right() + maMapRes.mnMapOfsX, mnDPIX,
1162 maMapRes.mnMapScNumX, maMapRes.mnMapScDenomX,
1163 maThresRes.mnThresLogToPixX )+mnOutOffOrigX,
1164 ImplLogicToPixel( rLogicRect.Bottom() + maMapRes.mnMapOfsY, mnDPIY,
1165 maMapRes.mnMapScNumY, maMapRes.mnMapScDenomY,
1166 maThresRes.mnThresLogToPixY )+mnOutOffOrigY );
1167 }
1168
1169 // -----------------------------------------------------------------------
1170
1171 Polygon OutputDevice::LogicToPixel( const Polygon& rLogicPoly ) const
1172 {
1173 DBG_CHKTHIS( OutputDevice, ImplDbgCheckOutputDevice );
1174 DBG_CHKOBJ( &rLogicPoly, Polygon, NULL );
1175
1176 if ( !mbMap )
1177 return rLogicPoly;
1178
1179 USHORT i;
1180 USHORT nPoints = rLogicPoly.GetSize();
1181 Polygon aPoly( rLogicPoly );
1182
1183 // Pointer auf das Point-Array holen (Daten werden kopiert)
1184 const Point* pPointAry = aPoly.GetConstPointAry();
1185
1186 for ( i = 0; i < nPoints; i++ )
1187 {
1188 const Point* pPt = &(pPointAry[i]);
1189 Point aPt;
1190 aPt.X() = ImplLogicToPixel( pPt->X() + maMapRes.mnMapOfsX, mnDPIX,
1191 maMapRes.mnMapScNumX, maMapRes.mnMapScDenomX,
1192 maThresRes.mnThresLogToPixX )+mnOutOffOrigX;
1193 aPt.Y() = ImplLogicToPixel( pPt->Y() + maMapRes.mnMapOfsY, mnDPIY,
1194 maMapRes.mnMapScNumY, maMapRes.mnMapScDenomY,
1195 maThresRes.mnThresLogToPixY )+mnOutOffOrigY;
1196 aPoly[i] = aPt;
1197 }
1198
1199 return aPoly;
1200 }
1201
1202 // -----------------------------------------------------------------------
1203
1204 PolyPolygon OutputDevice::LogicToPixel( const PolyPolygon& rLogicPolyPoly ) const
1205 {
1206 DBG_CHKTHIS( OutputDevice, ImplDbgCheckOutputDevice );
1207 DBG_CHKOBJ( &rLogicPolyPoly, PolyPolygon, NULL );
1208
1209 if ( !mbMap )
1210 return rLogicPolyPoly;
1211
1212 PolyPolygon aPolyPoly( rLogicPolyPoly );
1213 USHORT nPoly = aPolyPoly.Count();
1214 for( USHORT i = 0; i < nPoly; i++ )
1215 {
1216 Polygon& rPoly = aPolyPoly[i];
1217 rPoly = LogicToPixel( rPoly );
1218 }
1219 return aPolyPoly;
1220 }
1221
1222 // -----------------------------------------------------------------------
1223
1224 Region OutputDevice::LogicToPixel( const Region& rLogicRegion ) const
1225 {
1226 DBG_CHKTHIS( OutputDevice, ImplDbgCheckOutputDevice );
1227 DBG_CHKOBJ( &rLogicRegion, Region, ImplDbgTestRegion );
1228
1229 RegionType eType = rLogicRegion.GetType();
1230
1231 if ( !mbMap || (eType == REGION_EMPTY) || (eType == REGION_NULL) )
1232 return rLogicRegion;
1233
1234 Region aRegion;
1235 const ImplRegion& rImplRegion = *rLogicRegion.ImplGetImplRegion();
1236 const PolyPolygon* pPolyPoly = rImplRegion.mpPolyPoly;
1237 const basegfx::B2DPolyPolygon* pB2DPolyPoly = rImplRegion.mpB2DPolyPoly;
1238
1239 if ( pPolyPoly )
1240 aRegion = Region( LogicToPixel( *pPolyPoly ) );
1241 else if( pB2DPolyPoly )
1242 {
1243 basegfx::B2DPolyPolygon aTransformedPoly = *pB2DPolyPoly;
1244 const ::basegfx::B2DHomMatrix& rTransformationMatrix = GetViewTransformation();
1245 aTransformedPoly.transform( rTransformationMatrix );
1246 aRegion = Region( aTransformedPoly );
1247 }
1248 else
1249 {
1250 long nX;
1251 long nY;
1252 long nWidth;
1253 long nHeight;
1254 ImplRegionInfo aInfo;
1255 BOOL bRegionRect;
1256
1257 aRegion.ImplBeginAddRect();
1258 bRegionRect = rLogicRegion.ImplGetFirstRect( aInfo, nX, nY, nWidth, nHeight );
1259 while ( bRegionRect )
1260 {
1261 Rectangle aRect( Point( nX, nY ), Size( nWidth, nHeight ) );
1262 aRegion.ImplAddRect( LogicToPixel( aRect ) );
1263 bRegionRect = rLogicRegion.ImplGetNextRect( aInfo, nX, nY, nWidth, nHeight );
1264 }
1265 aRegion.ImplEndAddRect();
1266 }
1267
1268 return aRegion;
1269 }
1270
1271 // -----------------------------------------------------------------------
1272
1273 Point OutputDevice::LogicToPixel( const Point& rLogicPt,
1274 const MapMode& rMapMode ) const
1275 {
1276 DBG_CHKTHIS( OutputDevice, ImplDbgCheckOutputDevice );
1277
1278 if ( rMapMode.IsDefault() )
1279 return rLogicPt;
1280
1281 // MapMode-Aufloesung berechnen und Umrechnen
1282 ImplMapRes aMapRes;
1283 ImplThresholdRes aThresRes;
1284 ImplCalcMapResolution( rMapMode, mnDPIX, mnDPIY, aMapRes, aThresRes );
1285
1286 return Point( ImplLogicToPixel( rLogicPt.X() + aMapRes.mnMapOfsX, mnDPIX,
1287 aMapRes.mnMapScNumX, aMapRes.mnMapScDenomX,
1288 aThresRes.mnThresLogToPixX )+mnOutOffOrigX,
1289 ImplLogicToPixel( rLogicPt.Y() + aMapRes.mnMapOfsY, mnDPIY,
1290 aMapRes.mnMapScNumY, aMapRes.mnMapScDenomY,
1291 aThresRes.mnThresLogToPixY )+mnOutOffOrigY );
1292 }
1293
1294 // -----------------------------------------------------------------------
1295
1296 Size OutputDevice::LogicToPixel( const Size& rLogicSize,
1297 const MapMode& rMapMode ) const
1298 {
1299 DBG_CHKTHIS( OutputDevice, ImplDbgCheckOutputDevice );
1300
1301 if ( rMapMode.IsDefault() )
1302 return rLogicSize;
1303
1304 // MapMode-Aufloesung berechnen und Umrechnen
1305 ImplMapRes aMapRes;
1306 ImplThresholdRes aThresRes;
1307 ImplCalcMapResolution( rMapMode, mnDPIX, mnDPIY, aMapRes, aThresRes );
1308
1309 return Size( ImplLogicToPixel( rLogicSize.Width(), mnDPIX,
1310 aMapRes.mnMapScNumX, aMapRes.mnMapScDenomX,
1311 aThresRes.mnThresLogToPixX ),
1312 ImplLogicToPixel( rLogicSize.Height(), mnDPIY,
1313 aMapRes.mnMapScNumY, aMapRes.mnMapScDenomY,
1314 aThresRes.mnThresLogToPixY ) );
1315 }
1316
1317 // -----------------------------------------------------------------------
1318
1319 Rectangle OutputDevice::LogicToPixel( const Rectangle& rLogicRect,
1320 const MapMode& rMapMode ) const
1321 {
1322 DBG_CHKTHIS( OutputDevice, ImplDbgCheckOutputDevice );
1323
1324 if ( rMapMode.IsDefault() || rLogicRect.IsEmpty() )
1325 return rLogicRect;
1326
1327 // MapMode-Aufloesung berechnen und Umrechnen
1328 ImplMapRes aMapRes;
1329 ImplThresholdRes aThresRes;
1330 ImplCalcMapResolution( rMapMode, mnDPIX, mnDPIY, aMapRes, aThresRes );
1331
1332 return Rectangle( ImplLogicToPixel( rLogicRect.Left() + aMapRes.mnMapOfsX, mnDPIX,
1333 aMapRes.mnMapScNumX, aMapRes.mnMapScDenomX,
1334 aThresRes.mnThresLogToPixX )+mnOutOffOrigX,
1335 ImplLogicToPixel( rLogicRect.Top() + aMapRes.mnMapOfsY, mnDPIY,
1336 aMapRes.mnMapScNumY, aMapRes.mnMapScDenomY,
1337 aThresRes.mnThresLogToPixY )+mnOutOffOrigY,
1338 ImplLogicToPixel( rLogicRect.Right() + aMapRes.mnMapOfsX, mnDPIX,
1339 aMapRes.mnMapScNumX, aMapRes.mnMapScDenomX,
1340 aThresRes.mnThresLogToPixX )+mnOutOffOrigX,
1341 ImplLogicToPixel( rLogicRect.Bottom() + aMapRes.mnMapOfsY, mnDPIY,
1342 aMapRes.mnMapScNumY, aMapRes.mnMapScDenomY,
1343 aThresRes.mnThresLogToPixY )+mnOutOffOrigY );
1344 }
1345
1346 // -----------------------------------------------------------------------
1347
1348 Polygon OutputDevice::LogicToPixel( const Polygon& rLogicPoly,
1349 const MapMode& rMapMode ) const
1350 {
1351 DBG_CHKTHIS( OutputDevice, ImplDbgCheckOutputDevice );
1352 DBG_CHKOBJ( &rLogicPoly, Polygon, NULL );
1353
1354 if ( rMapMode.IsDefault() )
1355 return rLogicPoly;
1356
1357 // MapMode-Aufloesung berechnen und Umrechnen
1358 ImplMapRes aMapRes;
1359 ImplThresholdRes aThresRes;
1360 ImplCalcMapResolution( rMapMode, mnDPIX, mnDPIY, aMapRes, aThresRes );
1361
1362 USHORT i;
1363 USHORT nPoints = rLogicPoly.GetSize();
1364 Polygon aPoly( rLogicPoly );
1365
1366 // Pointer auf das Point-Array holen (Daten werden kopiert)
1367 const Point* pPointAry = aPoly.GetConstPointAry();
1368
1369 for ( i = 0; i < nPoints; i++ )
1370 {
1371 const Point* pPt = &(pPointAry[i]);
1372 Point aPt;
1373 aPt.X() = ImplLogicToPixel( pPt->X() + aMapRes.mnMapOfsX, mnDPIX,
1374 aMapRes.mnMapScNumX, aMapRes.mnMapScDenomX,
1375 aThresRes.mnThresLogToPixX )+mnOutOffOrigX;
1376 aPt.Y() = ImplLogicToPixel( pPt->Y() + aMapRes.mnMapOfsY, mnDPIY,
1377 aMapRes.mnMapScNumY, aMapRes.mnMapScDenomY,
1378 aThresRes.mnThresLogToPixY )+mnOutOffOrigY;
1379 aPoly[i] = aPt;
1380 }
1381
1382 return aPoly;
1383 }
1384
1385 // -----------------------------------------------------------------------
1386
1387 PolyPolygon OutputDevice::LogicToPixel( const PolyPolygon& rLogicPolyPoly,
1388 const MapMode& rMapMode ) const
1389 {
1390 DBG_CHKTHIS( OutputDevice, ImplDbgCheckOutputDevice );
1391 DBG_CHKOBJ( &rLogicPolyPoly, PolyPolygon, NULL );
1392
1393 if ( rMapMode.IsDefault() )
1394 return rLogicPolyPoly;
1395
1396 PolyPolygon aPolyPoly( rLogicPolyPoly );
1397 USHORT nPoly = aPolyPoly.Count();
1398 for( USHORT i = 0; i < nPoly; i++ )
1399 {
1400 Polygon& rPoly = aPolyPoly[i];
1401 rPoly = LogicToPixel( rPoly, rMapMode );
1402 }
1403 return aPolyPoly;
1404 }
1405
1406 // -----------------------------------------------------------------------
1407
1408 Region OutputDevice::LogicToPixel( const Region& rLogicRegion,
1409 const MapMode& rMapMode ) const
1410 {
1411 DBG_CHKTHIS( OutputDevice, ImplDbgCheckOutputDevice );
1412 DBG_CHKOBJ( &rLogicRegion, Region, ImplDbgTestRegion );
1413
1414 RegionType eType = rLogicRegion.GetType();
1415
1416 if ( rMapMode.IsDefault() || (eType == REGION_EMPTY) || (eType == REGION_NULL) )
1417 return rLogicRegion;
1418
1419 Region aRegion;
1420 PolyPolygon* pPolyPoly = rLogicRegion.ImplGetImplRegion()->mpPolyPoly;
1421
1422 if( pPolyPoly )
1423 aRegion = Region( LogicToPixel( *pPolyPoly, rMapMode ) );
1424 else
1425 {
1426 long nX;
1427 long nY;
1428 long nWidth;
1429 long nHeight;
1430 ImplRegionInfo aInfo;
1431 BOOL bRegionRect;
1432
1433 aRegion.ImplBeginAddRect();
1434 bRegionRect = rLogicRegion.ImplGetFirstRect( aInfo, nX, nY, nWidth, nHeight );
1435 while ( bRegionRect )
1436 {
1437 Rectangle aRect( Point( nX, nY ), Size( nWidth, nHeight ) );
1438 aRegion.ImplAddRect( LogicToPixel( aRect, rMapMode ) );
1439 bRegionRect = rLogicRegion.ImplGetNextRect( aInfo, nX, nY, nWidth, nHeight );
1440 }
1441 aRegion.ImplEndAddRect();
1442 }
1443
1444 return aRegion;
1445 }
1446
1447 // -----------------------------------------------------------------------
1448
1449 Point OutputDevice::PixelToLogic( const Point& rDevicePt ) const
1450 {
1451 DBG_CHKTHIS( OutputDevice, ImplDbgCheckOutputDevice );
1452
1453 if ( !mbMap )
1454 return rDevicePt;
1455
1456 return Point( ImplPixelToLogic( rDevicePt.X(), mnDPIX,
1457 maMapRes.mnMapScNumX, maMapRes.mnMapScDenomX,
1458 maThresRes.mnThresPixToLogX ) - maMapRes.mnMapOfsX - mnOutOffLogicX,
1459 ImplPixelToLogic( rDevicePt.Y(), mnDPIY,
1460 maMapRes.mnMapScNumY, maMapRes.mnMapScDenomY,
1461 maThresRes.mnThresPixToLogY ) - maMapRes.mnMapOfsY - mnOutOffLogicY );
1462 }
1463
1464 // -----------------------------------------------------------------------
1465
1466 Size OutputDevice::PixelToLogic( const Size& rDeviceSize ) const
1467 {
1468 DBG_CHKTHIS( OutputDevice, ImplDbgCheckOutputDevice );
1469
1470 if ( !mbMap )
1471 return rDeviceSize;
1472
1473 return Size( ImplPixelToLogic( rDeviceSize.Width(), mnDPIX,
1474 maMapRes.mnMapScNumX, maMapRes.mnMapScDenomX,
1475 maThresRes.mnThresPixToLogX ),
1476 ImplPixelToLogic( rDeviceSize.Height(), mnDPIY,
1477 maMapRes.mnMapScNumY, maMapRes.mnMapScDenomY,
1478 maThresRes.mnThresPixToLogY ) );
1479 }
1480
1481 // -----------------------------------------------------------------------
1482
1483 Rectangle OutputDevice::PixelToLogic( const Rectangle& rDeviceRect ) const
1484 {
1485 DBG_CHKTHIS( OutputDevice, ImplDbgCheckOutputDevice );
1486
1487 if ( !mbMap || rDeviceRect.IsEmpty() )
1488 return rDeviceRect;
1489
1490 return Rectangle( ImplPixelToLogic( rDeviceRect.Left(), mnDPIX,
1491 maMapRes.mnMapScNumX, maMapRes.mnMapScDenomX,
1492 maThresRes.mnThresPixToLogX ) - maMapRes.mnMapOfsX - mnOutOffLogicX,
1493 ImplPixelToLogic( rDeviceRect.Top(), mnDPIY,
1494 maMapRes.mnMapScNumY, maMapRes.mnMapScDenomY,
1495 maThresRes.mnThresPixToLogY ) - maMapRes.mnMapOfsY - mnOutOffLogicY,
1496 ImplPixelToLogic( rDeviceRect.Right(), mnDPIX,
1497 maMapRes.mnMapScNumX, maMapRes.mnMapScDenomX,
1498 maThresRes.mnThresPixToLogX ) - maMapRes.mnMapOfsX - mnOutOffLogicX,
1499 ImplPixelToLogic( rDeviceRect.Bottom(), mnDPIY,
1500 maMapRes.mnMapScNumY, maMapRes.mnMapScDenomY,
1501 maThresRes.mnThresPixToLogY ) - maMapRes.mnMapOfsY - mnOutOffLogicY );
1502 }
1503
1504 // -----------------------------------------------------------------------
1505
1506 Polygon OutputDevice::PixelToLogic( const Polygon& rDevicePoly ) const
1507 {
1508 DBG_CHKTHIS( OutputDevice, ImplDbgCheckOutputDevice );
1509 DBG_CHKOBJ( &rDevicePoly, Polygon, NULL );
1510
1511 if ( !mbMap )
1512 return rDevicePoly;
1513
1514 USHORT i;
1515 USHORT nPoints = rDevicePoly.GetSize();
1516 Polygon aPoly( rDevicePoly );
1517
1518 // Pointer auf das Point-Array holen (Daten werden kopiert)
1519 const Point* pPointAry = aPoly.GetConstPointAry();
1520
1521 for ( i = 0; i < nPoints; i++ )
1522 {
1523 const Point* pPt = &(pPointAry[i]);
1524 Point aPt;
1525 aPt.X() = ImplPixelToLogic( pPt->X(), mnDPIX,
1526 maMapRes.mnMapScNumX, maMapRes.mnMapScDenomX,
1527 maThresRes.mnThresPixToLogX ) - maMapRes.mnMapOfsX - mnOutOffLogicX;
1528 aPt.Y() = ImplPixelToLogic( pPt->Y(), mnDPIY,
1529 maMapRes.mnMapScNumY, maMapRes.mnMapScDenomY,
1530 maThresRes.mnThresPixToLogY ) - maMapRes.mnMapOfsY - mnOutOffLogicY;
1531 aPoly[i] = aPt;
1532 }
1533
1534 return aPoly;
1535 }
1536
1537 // -----------------------------------------------------------------------
1538
1539 PolyPolygon OutputDevice::PixelToLogic( const PolyPolygon& rDevicePolyPoly ) const
1540 {
1541 DBG_CHKTHIS( OutputDevice, ImplDbgCheckOutputDevice );
1542 DBG_CHKOBJ( &rDevicePolyPoly, PolyPolygon, NULL );
1543
1544 if ( !mbMap )
1545 return rDevicePolyPoly;
1546
1547 PolyPolygon aPolyPoly( rDevicePolyPoly );
1548 USHORT nPoly = aPolyPoly.Count();
1549 for( USHORT i = 0; i < nPoly; i++ )
1550 {
1551 Polygon& rPoly = aPolyPoly[i];
1552 rPoly = PixelToLogic( rPoly );
1553 }
1554 return aPolyPoly;
1555 }
1556
1557 // -----------------------------------------------------------------------
1558
1559 Region OutputDevice::PixelToLogic( const Region& rDeviceRegion ) const
1560 {
1561 DBG_CHKTHIS( OutputDevice, ImplDbgCheckOutputDevice );
1562 DBG_CHKOBJ( &rDeviceRegion, Region, ImplDbgTestRegion );
1563
1564 RegionType eType = rDeviceRegion.GetType();
1565
1566 if ( !mbMap || (eType == REGION_EMPTY) || (eType == REGION_NULL) )
1567 return rDeviceRegion;
1568
1569 Region aRegion;
1570 PolyPolygon* pPolyPoly = rDeviceRegion.ImplGetImplRegion()->mpPolyPoly;
1571
1572 if ( pPolyPoly )
1573 aRegion = Region( PixelToLogic( *pPolyPoly ) );
1574 else
1575 {
1576 long nX;
1577 long nY;
1578 long nWidth;
1579 long nHeight;
1580 ImplRegionInfo aInfo;
1581 BOOL bRegionRect;
1582
1583 aRegion.ImplBeginAddRect();
1584 bRegionRect = rDeviceRegion.ImplGetFirstRect( aInfo, nX, nY, nWidth, nHeight );
1585 while ( bRegionRect )
1586 {
1587 Rectangle aRect( Point( nX, nY ), Size( nWidth, nHeight ) );
1588 aRegion.ImplAddRect( PixelToLogic( aRect ) );
1589 bRegionRect = rDeviceRegion.ImplGetNextRect( aInfo, nX, nY, nWidth, nHeight );
1590 }
1591 aRegion.ImplEndAddRect();
1592 }
1593
1594 return aRegion;
1595 }
1596
1597 // -----------------------------------------------------------------------
1598
1599 Point OutputDevice::PixelToLogic( const Point& rDevicePt,
1600 const MapMode& rMapMode ) const
1601 {
1602 DBG_CHKTHIS( OutputDevice, ImplDbgCheckOutputDevice );
1603
1604 // Ist Default-MapMode, dann bereche nichts
1605 if ( rMapMode.IsDefault() )
1606 return rDevicePt;
1607
1608 // MapMode-Aufloesung berechnen und Umrechnen
1609 ImplMapRes aMapRes;
1610 ImplThresholdRes aThresRes;
1611 ImplCalcMapResolution( rMapMode, mnDPIX, mnDPIY, aMapRes, aThresRes );
1612
1613 return Point( ImplPixelToLogic( rDevicePt.X(), mnDPIX,
1614 aMapRes.mnMapScNumX, aMapRes.mnMapScDenomX,
1615 aThresRes.mnThresPixToLogX ) - aMapRes.mnMapOfsX - mnOutOffLogicX,
1616 ImplPixelToLogic( rDevicePt.Y(), mnDPIY,
1617 aMapRes.mnMapScNumY, aMapRes.mnMapScDenomY,
1618 aThresRes.mnThresPixToLogY ) - aMapRes.mnMapOfsY - mnOutOffLogicY );
1619 }
1620
1621 // -----------------------------------------------------------------------
1622
1623 Size OutputDevice::PixelToLogic( const Size& rDeviceSize,
1624 const MapMode& rMapMode ) const
1625 {
1626 DBG_CHKTHIS( OutputDevice, ImplDbgCheckOutputDevice );
1627
1628 // Ist Default-MapMode, dann bereche nichts
1629 if ( rMapMode.IsDefault() )
1630 return rDeviceSize;
1631
1632 // MapMode-Aufloesung berechnen und Umrechnen
1633 ImplMapRes aMapRes;
1634 ImplThresholdRes aThresRes;
1635 ImplCalcMapResolution( rMapMode, mnDPIX, mnDPIY, aMapRes, aThresRes );
1636
1637 return Size( ImplPixelToLogic( rDeviceSize.Width(), mnDPIX,
1638 aMapRes.mnMapScNumX, aMapRes.mnMapScDenomX,
1639 aThresRes.mnThresPixToLogX ),
1640 ImplPixelToLogic( rDeviceSize.Height(), mnDPIY,
1641 aMapRes.mnMapScNumY, aMapRes.mnMapScDenomY,
1642 aThresRes.mnThresPixToLogY ) );
1643 }
1644
1645 // -----------------------------------------------------------------------
1646
1647 Rectangle OutputDevice::PixelToLogic( const Rectangle& rDeviceRect,
1648 const MapMode& rMapMode ) const
1649 {
1650 DBG_CHKTHIS( OutputDevice, ImplDbgCheckOutputDevice );
1651
1652 // Ist Default-MapMode, dann bereche nichts
1653 if ( rMapMode.IsDefault() || rDeviceRect.IsEmpty() )
1654 return rDeviceRect;
1655
1656 // MapMode-Aufloesung berechnen und Umrechnen
1657 ImplMapRes aMapRes;
1658 ImplThresholdRes aThresRes;
1659 ImplCalcMapResolution( rMapMode, mnDPIX, mnDPIY, aMapRes, aThresRes );
1660
1661 return Rectangle( ImplPixelToLogic( rDeviceRect.Left(), mnDPIX,
1662 aMapRes.mnMapScNumX, aMapRes.mnMapScDenomX,
1663 aThresRes.mnThresPixToLogX ) - aMapRes.mnMapOfsX - mnOutOffLogicX,
1664 ImplPixelToLogic( rDeviceRect.Top(), mnDPIY,
1665 aMapRes.mnMapScNumY, aMapRes.mnMapScDenomY,
1666 aThresRes.mnThresPixToLogY ) - aMapRes.mnMapOfsY - mnOutOffLogicY,
1667 ImplPixelToLogic( rDeviceRect.Right(), mnDPIX,
1668 aMapRes.mnMapScNumX, aMapRes.mnMapScDenomX,
1669 aThresRes.mnThresPixToLogX ) - aMapRes.mnMapOfsX - mnOutOffLogicX,
1670 ImplPixelToLogic( rDeviceRect.Bottom(), mnDPIY,
1671 aMapRes.mnMapScNumY, aMapRes.mnMapScDenomY,
1672 aThresRes.mnThresPixToLogY ) - aMapRes.mnMapOfsY - mnOutOffLogicY );
1673 }
1674
1675 // -----------------------------------------------------------------------
1676
1677 Polygon OutputDevice::PixelToLogic( const Polygon& rDevicePoly,
1678 const MapMode& rMapMode ) const
1679 {
1680 DBG_CHKTHIS( OutputDevice, ImplDbgCheckOutputDevice );
1681 DBG_CHKOBJ( &rDevicePoly, Polygon, NULL );
1682
1683 // Ist Default-MapMode, dann bereche nichts
1684 if ( rMapMode.IsDefault() )
1685 return rDevicePoly;
1686
1687 // MapMode-Aufloesung berechnen und Umrechnen
1688 ImplMapRes aMapRes;
1689 ImplThresholdRes aThresRes;
1690 ImplCalcMapResolution( rMapMode, mnDPIX, mnDPIY, aMapRes, aThresRes );
1691
1692 USHORT i;
1693 USHORT nPoints = rDevicePoly.GetSize();
1694 Polygon aPoly( rDevicePoly );
1695
1696 // Pointer auf das Point-Array holen (Daten werden kopiert)
1697 const Point* pPointAry = aPoly.GetConstPointAry();
1698
1699 for ( i = 0; i < nPoints; i++ )
1700 {
1701 const Point* pPt = &(pPointAry[i]);
1702 Point aPt;
1703 aPt.X() = ImplPixelToLogic( pPt->X(), mnDPIX,
1704 aMapRes.mnMapScNumX, aMapRes.mnMapScDenomX,
1705 aThresRes.mnThresPixToLogX ) - aMapRes.mnMapOfsX - mnOutOffLogicX;
1706 aPt.Y() = ImplPixelToLogic( pPt->Y(), mnDPIY,
1707 aMapRes.mnMapScNumY, aMapRes.mnMapScDenomY,
1708 aThresRes.mnThresPixToLogY ) - aMapRes.mnMapOfsY - mnOutOffLogicY;
1709 aPoly[i] = aPt;
1710 }
1711
1712 return aPoly;
1713 }
1714
1715 // -----------------------------------------------------------------------
1716
1717 PolyPolygon OutputDevice::PixelToLogic( const PolyPolygon& rDevicePolyPoly,
1718 const MapMode& rMapMode ) const
1719 {
1720 DBG_CHKTHIS( OutputDevice, ImplDbgCheckOutputDevice );
1721 DBG_CHKOBJ( &rDevicePolyPoly, PolyPolygon, NULL );
1722
1723 if ( rMapMode.IsDefault() )
1724 return rDevicePolyPoly;
1725
1726 PolyPolygon aPolyPoly( rDevicePolyPoly );
1727 USHORT nPoly = aPolyPoly.Count();
1728 for( USHORT i = 0; i < nPoly; i++ )
1729 {
1730 Polygon& rPoly = aPolyPoly[i];
1731 rPoly = PixelToLogic( rPoly, rMapMode );
1732 }
1733 return aPolyPoly;
1734 }
1735
1736 // -----------------------------------------------------------------------
1737
1738 Region OutputDevice::PixelToLogic( const Region& rDeviceRegion,
1739 const MapMode& rMapMode ) const
1740 {
1741 DBG_CHKTHIS( OutputDevice, ImplDbgCheckOutputDevice );
1742 DBG_CHKOBJ( &rDeviceRegion, Region, ImplDbgTestRegion );
1743
1744 RegionType eType = rDeviceRegion.GetType();
1745
1746 if ( rMapMode.IsDefault() || (eType == REGION_EMPTY) || (eType == REGION_NULL) )
1747 return rDeviceRegion;
1748
1749 Region aRegion;
1750 PolyPolygon* pPolyPoly = rDeviceRegion.ImplGetImplRegion()->mpPolyPoly;
1751
1752 if ( pPolyPoly )
1753 aRegion = Region( PixelToLogic( *pPolyPoly, rMapMode ) );
1754 else
1755 {
1756 long nX;
1757 long nY;
1758 long nWidth;
1759 long nHeight;
1760 ImplRegionInfo aInfo;
1761 BOOL bRegionRect;
1762
1763 aRegion.ImplBeginAddRect();
1764 bRegionRect = rDeviceRegion.ImplGetFirstRect( aInfo, nX, nY, nWidth, nHeight );
1765 while ( bRegionRect )
1766 {
1767 Rectangle aRect( Point( nX, nY ), Size( nWidth, nHeight ) );
1768 aRegion.ImplAddRect( PixelToLogic( aRect, rMapMode ) );
1769 bRegionRect = rDeviceRegion.ImplGetNextRect( aInfo, nX, nY, nWidth, nHeight );
1770 }
1771 aRegion.ImplEndAddRect();
1772 }
1773
1774 return aRegion;
1775 }
1776
1777 // -----------------------------------------------------------------------
1778
1779 #define ENTER0( rSource, pMapModeSource, pMapModeDest ) \
1780 if ( !pMapModeSource ) \
1781 pMapModeSource = &maMapMode; \
1782 if ( !pMapModeDest ) \
1783 pMapModeDest = &maMapMode; \
1784 if ( *pMapModeSource == *pMapModeDest ) \
1785 return rSource
1786
1787 // -----------------------------------------------------------------------
1788
1789 #define ENTER1( rSource, pMapModeSource, pMapModeDest ) \
1790 ENTER0( rSource, pMapModeSource, pMapModeDest ); \
1791 \
1792 ImplMapRes aMapResSource; \
1793 ImplMapRes aMapResDest; \
1794 \
1795 if ( !mbMap || pMapModeSource != &maMapMode ) \
1796 { \
1797 if ( pMapModeSource->GetMapUnit() == MAP_RELATIVE ) \
1798 aMapResSource = maMapRes; \
1799 ImplCalcMapResolution( *pMapModeSource, \
1800 mnDPIX, mnDPIY, aMapResSource ); \
1801 } \
1802 else \
1803 aMapResSource = maMapRes; \
1804 if ( !mbMap || pMapModeDest != &maMapMode ) \
1805 { \
1806 if ( pMapModeDest->GetMapUnit() == MAP_RELATIVE ) \
1807 aMapResDest = maMapRes; \
1808 ImplCalcMapResolution( *pMapModeDest, \
1809 mnDPIX, mnDPIY, aMapResDest ); \
1810 } \
1811 else \
1812 aMapResDest = maMapRes
1813
1814 // -----------------------------------------------------------------------
1815
1816 #define ENTER2( eUnitSource, eUnitDest ) \
1817 DBG_ASSERT( eUnitSource != MAP_SYSFONT \
1818 && eUnitSource != MAP_APPFONT \
1819 && eUnitSource != MAP_RELATIVE, \
1820 "Source MapUnit nicht erlaubt" ); \
1821 DBG_ASSERT( eUnitDest != MAP_SYSFONT \
1822 && eUnitDest != MAP_APPFONT \
1823 && eUnitDest != MAP_RELATIVE, \
1824 "Destination MapUnit nicht erlaubt" ); \
1825 DBG_ASSERTWARNING( eUnitSource != MAP_PIXEL, \
1826 "MAP_PIXEL mit 72dpi angenaehert" ); \
1827 DBG_ASSERTWARNING( eUnitDest != MAP_PIXEL, \
1828 "MAP_PIXEL mit 72dpi angenaehert" )
1829
1830 // -----------------------------------------------------------------------
1831
1832 #define ENTER3( eUnitSource, eUnitDest ) \
1833 long nNumerator = 1; \
1834 long nDenominator = 1; \
1835 DBG_ASSERT( eUnitSource < MAP_LASTENUMDUMMY, "Invalid source map unit"); \
1836 DBG_ASSERT( eUnitDest < MAP_LASTENUMDUMMY, "Invalid destination map unit"); \
1837 if( (eUnitSource < MAP_LASTENUMDUMMY) && (eUnitDest < MAP_LASTENUMDUMMY) ) \
1838 { \
1839 nNumerator = aImplNumeratorAry[eUnitSource] * \
1840 aImplDenominatorAry[eUnitDest]; \
1841 nDenominator = aImplNumeratorAry[eUnitDest] * \
1842 aImplDenominatorAry[eUnitSource]; \
1843 } \
1844 if ( eUnitSource == MAP_PIXEL ) \
1845 nDenominator *= 72; \
1846 else if( eUnitDest == MAP_PIXEL ) \
1847 nNumerator *= 72
1848
1849 // -----------------------------------------------------------------------
1850
1851 #define ENTER4( rMapModeSource, rMapModeDest ) \
1852 ImplMapRes aMapResSource; \
1853 ImplMapRes aMapResDest; \
1854 \
1855 ImplCalcMapResolution( rMapModeSource, 72, 72, aMapResSource ); \
1856 ImplCalcMapResolution( rMapModeDest, 72, 72, aMapResDest )
1857
1858 // -----------------------------------------------------------------------
1859
1860 // return (n1 * n2 * n3) / (n4 * n5)
1861 static long fn5( const long n1,
1862 const long n2,
1863 const long n3,
1864 const long n4,
1865 const long n5 )
1866 {
1867 if ( n1 == 0 || n2 == 0 || n3 == 0 || n4 == 0 || n5 == 0 )
1868 return 0;
1869 if ( LONG_MAX / Abs(n2) < Abs(n3) )
1870 {
1871 // a6 wird "ubersprungen
1872 BigInt a7 = n2;
1873 a7 *= n3;
1874 a7 *= n1;
1875
1876 if ( LONG_MAX / Abs(n4) < Abs(n5) )
1877 {
1878 BigInt a8 = n4;
1879 a8 *= n5;
1880
1881 BigInt a9 = a8;
1882 a9 /= 2;
1883 if ( a7.IsNeg() )
1884 a7 -= a9;
1885 else
1886 a7 += a9;
1887
1888 a7 /= a8;
1889 } // of if
1890 else
1891 {
1892 long n8 = n4 * n5;
1893
1894 if ( a7.IsNeg() )
1895 a7 -= n8 / 2;
1896 else
1897 a7 += n8 / 2;
1898
1899 a7 /= n8;
1900 } // of else
1901 return (long)a7;
1902 } // of if
1903 else
1904 {
1905 long n6 = n2 * n3;
1906
1907 if ( LONG_MAX / Abs(n1) < Abs(n6) )
1908 {
1909 BigInt a7 = n1;
1910 a7 *= n6;
1911
1912 if ( LONG_MAX / Abs(n4) < Abs(n5) )
1913 {
1914 BigInt a8 = n4;
1915 a8 *= n5;
1916
1917 BigInt a9 = a8;
1918 a9 /= 2;
1919 if ( a7.IsNeg() )
1920 a7 -= a9;
1921 else
1922 a7 += a9;
1923
1924 a7 /= a8;
1925 } // of if
1926 else
1927 {
1928 long n8 = n4 * n5;
1929
1930 if ( a7.IsNeg() )
1931 a7 -= n8 / 2;
1932 else
1933 a7 += n8 / 2;
1934
1935 a7 /= n8;
1936 } // of else
1937 return (long)a7;
1938 } // of if
1939 else
1940 {
1941 long n7 = n1 * n6;
1942
1943 if ( LONG_MAX / Abs(n4) < Abs(n5) )
1944 {
1945 BigInt a7 = n7;
1946 BigInt a8 = n4;
1947 a8 *= n5;
1948
1949 BigInt a9 = a8;
1950 a9 /= 2;
1951 if ( a7.IsNeg() )
1952 a7 -= a9;
1953 else
1954 a7 += a9;
1955
1956 a7 /= a8;
1957 return (long)a7;
1958 } // of if
1959 else
1960 {
1961 const long n8 = n4 * n5;
1962 const long n8_2 = n8 / 2;
1963
1964 if( n7 < 0 )
1965 {
1966 if( ( n7 - LONG_MIN ) >= n8_2 )
1967 n7 -= n8_2;
1968 }
1969 else if( ( LONG_MAX - n7 ) >= n8_2 )
1970 n7 += n8_2;
1971
1972 return n7 / n8;
1973 } // of else
1974 } // of else
1975 } // of else
1976 }
1977
1978 // -----------------------------------------------------------------------
1979
1980 // return (n1 * n2) / n3
1981 static long fn3( const long n1, const long n2, const long n3 )
1982 {
1983 if ( n1 == 0 || n2 == 0 || n3 == 0 )
1984 return 0;
1985 if ( LONG_MAX / Abs(n1) < Abs(n2) )
1986 {
1987 BigInt a4 = n1;
1988 a4 *= n2;
1989
1990 if ( a4.IsNeg() )
1991 a4 -= n3 / 2;
1992 else
1993 a4 += n3 / 2;
1994
1995 a4 /= n3;
1996 return (long)a4;
1997 } // of if
1998 else
1999 {
2000 long n4 = n1 * n2;
2001 const long n3_2 = n3 / 2;
2002
2003 if( n4 < 0 )
2004 {
2005 if( ( n4 - LONG_MIN ) >= n3_2 )
2006 n4 -= n3_2;
2007 }
2008 else if( ( LONG_MAX - n4 ) >= n3_2 )
2009 n4 += n3_2;
2010
2011 return n4 / n3;
2012 } // of else
2013 }
2014
2015 // -----------------------------------------------------------------------
2016
2017 Point OutputDevice::LogicToLogic( const Point& rPtSource,
2018 const MapMode* pMapModeSource,
2019 const MapMode* pMapModeDest ) const
2020 {
2021 ENTER1( rPtSource, pMapModeSource, pMapModeDest );
2022
2023 return Point( fn5( rPtSource.X() + aMapResSource.mnMapOfsX,
2024 aMapResSource.mnMapScNumX, aMapResDest.mnMapScDenomX,
2025 aMapResSource.mnMapScDenomX, aMapResDest.mnMapScNumX ) -
2026 aMapResDest.mnMapOfsX,
2027 fn5( rPtSource.Y() + aMapResSource.mnMapOfsY,
2028 aMapResSource.mnMapScNumY, aMapResDest.mnMapScDenomY,
2029 aMapResSource.mnMapScDenomY, aMapResDest.mnMapScNumY ) -
2030 aMapResDest.mnMapOfsY );
2031 }
2032
2033 // -----------------------------------------------------------------------
2034
2035 Size OutputDevice::LogicToLogic( const Size& rSzSource,
2036 const MapMode* pMapModeSource,
2037 const MapMode* pMapModeDest ) const
2038 {
2039 ENTER1( rSzSource, pMapModeSource, pMapModeDest );
2040
2041 return Size( fn5( rSzSource.Width(),
2042 aMapResSource.mnMapScNumX, aMapResDest.mnMapScDenomX,
2043 aMapResSource.mnMapScDenomX, aMapResDest.mnMapScNumX ),
2044 fn5( rSzSource.Height(),
2045 aMapResSource.mnMapScNumY, aMapResDest.mnMapScDenomY,
2046 aMapResSource.mnMapScDenomY, aMapResDest.mnMapScNumY ) );
2047 }
2048
2049 // -----------------------------------------------------------------------
2050
2051 Rectangle OutputDevice::LogicToLogic( const Rectangle& rRectSource,
2052 const MapMode* pMapModeSource,
2053 const MapMode* pMapModeDest ) const
2054 {
2055 ENTER1( rRectSource, pMapModeSource, pMapModeDest );
2056
2057 return Rectangle( fn5( rRectSource.Left() + aMapResSource.mnMapOfsX,
2058 aMapResSource.mnMapScNumX, aMapResDest.mnMapScDenomX,
2059 aMapResSource.mnMapScDenomX, aMapResDest.mnMapScNumX ) -
2060 aMapResDest.mnMapOfsX,
2061 fn5( rRectSource.Top() + aMapResSource.mnMapOfsY,
2062 aMapResSource.mnMapScNumY, aMapResDest.mnMapScDenomY,
2063 aMapResSource.mnMapScDenomY, aMapResDest.mnMapScNumY ) -
2064 aMapResDest.mnMapOfsY,
2065 fn5( rRectSource.Right() + aMapResSource.mnMapOfsX,
2066 aMapResSource.mnMapScNumX, aMapResDest.mnMapScDenomX,
2067 aMapResSource.mnMapScDenomX, aMapResDest.mnMapScNumX ) -
2068 aMapResDest.mnMapOfsX,
2069 fn5( rRectSource.Bottom() + aMapResSource.mnMapOfsY,
2070 aMapResSource.mnMapScNumY, aMapResDest.mnMapScDenomY,
2071 aMapResSource.mnMapScDenomY, aMapResDest.mnMapScNumY ) -
2072 aMapResDest.mnMapOfsY );
2073 }
2074
2075 // -----------------------------------------------------------------------
2076
2077 long* OutputDevice::LogicToLogic( long* pX, USHORT nCount,
2078 const MapMode* pMapModeSource,
2079 const MapMode* pMapModeDest ) const
2080 {
2081 ENTER1( pX, pMapModeSource, pMapModeDest );
2082
2083 for( ; nCount; nCount--, pX++ )
2084 {
2085 *pX = fn5( *pX,
2086 aMapResSource.mnMapScNumX, aMapResDest.mnMapScDenomX,
2087 aMapResSource.mnMapScDenomX, aMapResDest.mnMapScNumX );
2088 }
2089
2090 return NULL;
2091 }
2092
2093 // -----------------------------------------------------------------------
2094
2095 Point OutputDevice::LogicToLogic( const Point& rPtSource,
2096 const MapMode& rMapModeSource,
2097 const MapMode& rMapModeDest )
2098 {
2099 if ( rMapModeSource == rMapModeDest )
2100 return rPtSource;
2101
2102 MapUnit eUnitSource = rMapModeSource.GetMapUnit();
2103 MapUnit eUnitDest = rMapModeDest.GetMapUnit();
2104 ENTER2( eUnitSource, eUnitDest );
2105
2106 if ( rMapModeSource.mpImplMapMode->mbSimple &&
2107 rMapModeDest.mpImplMapMode->mbSimple )
2108 {
2109 ENTER3( eUnitSource, eUnitDest );
2110
2111 return Point( fn3( rPtSource.X(), nNumerator, nDenominator ),
2112 fn3( rPtSource.Y(), nNumerator, nDenominator ) );
2113 }
2114 else
2115 {
2116 ENTER4( rMapModeSource, rMapModeDest );
2117
2118 return Point( fn5( rPtSource.X() + aMapResSource.mnMapOfsX,
2119 aMapResSource.mnMapScNumX, aMapResDest.mnMapScDenomX,
2120 aMapResSource.mnMapScDenomX, aMapResDest.mnMapScNumX ) -
2121 aMapResDest.mnMapOfsX,
2122 fn5( rPtSource.Y() + aMapResSource.mnMapOfsY,
2123 aMapResSource.mnMapScNumY, aMapResDest.mnMapScDenomY,
2124 aMapResSource.mnMapScDenomY, aMapResDest.mnMapScNumY ) -
2125 aMapResDest.mnMapOfsY );
2126 }
2127 }
2128
2129 // -----------------------------------------------------------------------
2130
2131 Size OutputDevice::LogicToLogic( const Size& rSzSource,
2132 const MapMode& rMapModeSource,
2133 const MapMode& rMapModeDest )
2134 {
2135 if ( rMapModeSource == rMapModeDest )
2136 return rSzSource;
2137
2138 MapUnit eUnitSource = rMapModeSource.GetMapUnit();
2139 MapUnit eUnitDest = rMapModeDest.GetMapUnit();
2140 ENTER2( eUnitSource, eUnitDest );
2141
2142 if ( rMapModeSource.mpImplMapMode->mbSimple &&
2143 rMapModeDest.mpImplMapMode->mbSimple )
2144 {
2145 ENTER3( eUnitSource, eUnitDest );
2146
2147 return Size( fn3( rSzSource.Width(), nNumerator, nDenominator ),
2148 fn3( rSzSource.Height(), nNumerator, nDenominator ) );
2149 }
2150 else
2151 {
2152 ENTER4( rMapModeSource, rMapModeDest );
2153
2154 return Size( fn5( rSzSource.Width(),
2155 aMapResSource.mnMapScNumX, aMapResDest.mnMapScDenomX,
2156 aMapResSource.mnMapScDenomX, aMapResDest.mnMapScNumX ),
2157 fn5( rSzSource.Height(),
2158 aMapResSource.mnMapScNumY, aMapResDest.mnMapScDenomY,
2159 aMapResSource.mnMapScDenomY, aMapResDest.mnMapScNumY ) );
2160 }
2161 }
2162
2163 // -----------------------------------------------------------------------
2164
2165 Rectangle OutputDevice::LogicToLogic( const Rectangle& rRectSource,
2166 const MapMode& rMapModeSource,
2167 const MapMode& rMapModeDest )
2168 {
2169 if ( rMapModeSource == rMapModeDest )
2170 return rRectSource;
2171
2172 MapUnit eUnitSource = rMapModeSource.GetMapUnit();
2173 MapUnit eUnitDest = rMapModeDest.GetMapUnit();
2174 ENTER2( eUnitSource, eUnitDest );
2175
2176 if ( rMapModeSource.mpImplMapMode->mbSimple &&
2177 rMapModeDest.mpImplMapMode->mbSimple )
2178 {
2179 ENTER3( eUnitSource, eUnitDest );
2180
2181 return Rectangle( fn3( rRectSource.Left(), nNumerator, nDenominator ),
2182 fn3( rRectSource.Top(), nNumerator, nDenominator ),
2183 fn3( rRectSource.Right(), nNumerator, nDenominator ),
2184 fn3( rRectSource.Bottom(), nNumerator, nDenominator ) );
2185 }
2186 else
2187 {
2188 ENTER4( rMapModeSource, rMapModeDest );
2189
2190 return Rectangle( fn5( rRectSource.Left() + aMapResSource.mnMapOfsX,
2191 aMapResSource.mnMapScNumX, aMapResDest.mnMapScDenomX,
2192 aMapResSource.mnMapScDenomX, aMapResDest.mnMapScNumX ) -
2193 aMapResDest.mnMapOfsX,
2194 fn5( rRectSource.Top() + aMapResSource.mnMapOfsY,
2195 aMapResSource.mnMapScNumY, aMapResDest.mnMapScDenomY,
2196 aMapResSource.mnMapScDenomY, aMapResDest.mnMapScNumY ) -
2197 aMapResDest.mnMapOfsY,
2198 fn5( rRectSource.Right() + aMapResSource.mnMapOfsX,
2199 aMapResSource.mnMapScNumX, aMapResDest.mnMapScDenomX,
2200 aMapResSource.mnMapScDenomX, aMapResDest.mnMapScNumX ) -
2201 aMapResDest.mnMapOfsX,
2202 fn5( rRectSource.Bottom() + aMapResSource.mnMapOfsY,
2203 aMapResSource.mnMapScNumY, aMapResDest.mnMapScDenomY,
2204 aMapResSource.mnMapScDenomY, aMapResDest.mnMapScNumY ) -
2205 aMapResDest.mnMapOfsY );
2206 }
2207 }
2208
2209 // -----------------------------------------------------------------------
2210
2211 long OutputDevice::LogicToLogic( long nLongSource,
2212 MapUnit eUnitSource, MapUnit eUnitDest )
2213 {
2214 if ( eUnitSource == eUnitDest )
2215 return nLongSource;
2216
2217 ENTER2( eUnitSource, eUnitDest );
2218 ENTER3( eUnitSource, eUnitDest );
2219
2220 return fn3( nLongSource, nNumerator, nDenominator );
2221 }
2222
2223 // -----------------------------------------------------------------------
2224
2225 void OutputDevice::SetPixelOffset( const Size& rOffset )
2226 {
2227 mnOutOffOrigX = rOffset.Width();
2228 mnOutOffOrigY = rOffset.Height();
2229
2230 mnOutOffLogicX = ImplPixelToLogic( mnOutOffOrigX, mnDPIX,
2231 maMapRes.mnMapScNumX, maMapRes.mnMapScDenomX,
2232 maThresRes.mnThresPixToLogX );
2233 mnOutOffLogicY = ImplPixelToLogic( mnOutOffOrigY, mnDPIY,
2234 maMapRes.mnMapScNumY, maMapRes.mnMapScDenomY,
2235 maThresRes.mnThresPixToLogY );
2236
2237 if( mpAlphaVDev )
2238 mpAlphaVDev->SetPixelOffset( rOffset );
2239 }
2240
2241 // -----------------------------------------------------------------------
2242
2243 Size OutputDevice::GetPixelOffset() const
2244 {
2245 return Size(mnOutOffOrigX, mnOutOffOrigY);
2246 }
2247
2248 // -----------------------------------------------------------------------
2249
2250 long Window::ImplLogicUnitToPixelX( long nX, MapUnit eUnit )
2251 {
2252 if ( eUnit != MAP_PIXEL )
2253 {
2254 ImplFrameData* pFrameData = mpWindowImpl->mpFrameData;
2255
2256 // Map-Einheit verschieden, dann neu berechnen
2257 if ( pFrameData->meMapUnit != eUnit )
2258 {
2259 pFrameData->meMapUnit = eUnit;
2260 ImplCalcMapResolution( MapMode( eUnit ), mnDPIX, mnDPIY,
2261 pFrameData->maMapUnitRes );
2262 }
2263
2264 // Es wird kein BigInt gebraucht, da diese Funktion nur zur Umrechnung
2265 // von Fensterposition benutzt wird
2266 nX = nX * mnDPIX * pFrameData->maMapUnitRes.mnMapScNumX;
2267 nX += nX >= 0 ? (pFrameData->maMapUnitRes.mnMapScDenomX/2) :
2268 -((pFrameData->maMapUnitRes.mnMapScDenomX-1)/2);
2269 nX /= pFrameData->maMapUnitRes.mnMapScDenomX;
2270 }
2271
2272 return nX;
2273 }
2274
2275 // -----------------------------------------------------------------------
2276
2277 long Window::ImplLogicUnitToPixelY( long nY, MapUnit eUnit )
2278 {
2279 if ( eUnit != MAP_PIXEL )
2280 {
2281 ImplFrameData* pFrameData = mpWindowImpl->mpFrameData;
2282
2283 // Map-Einheit verschieden, dann neu berechnen
2284 if ( pFrameData->meMapUnit != eUnit )
2285 {
2286 pFrameData->meMapUnit = eUnit;
2287 ImplCalcMapResolution( MapMode( eUnit ), mnDPIX, mnDPIY,
2288 pFrameData->maMapUnitRes );
2289 }
2290
2291 // Es wird kein BigInt gebraucht, da diese Funktion nur zur Umrechnung
2292 // von Fensterposition benutzt wird
2293 nY = nY * mnDPIY * pFrameData->maMapUnitRes.mnMapScNumY;
2294 nY += nY >= 0 ? (pFrameData->maMapUnitRes.mnMapScDenomY/2) :
2295 -((pFrameData->maMapUnitRes.mnMapScDenomY-1)/2);
2296 nY /= pFrameData->maMapUnitRes.mnMapScDenomY;
2297 }
2298
2299 return nY;
2300 }
vba interoperability for OOo