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magic/database/DBcellsrch.c

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/*
* DBcellsearch.c --
*
* Area searching which spans cell boundaries.
*
* *********************************************************************
* * Copyright (C) 1985, 1990 Regents of the University of California. *
* * Permission to use, copy, modify, and distribute this *
* * software and its documentation for any purpose and without *
* * fee is hereby granted, provided that the above copyright *
* * notice appear in all copies. The University of California *
* * makes no representations about the suitability of this *
* * software for any purpose. It is provided "as is" without *
* * express or implied warranty. Export of this software outside *
* * of the United States of America may require an export license. *
* *********************************************************************
*/
#ifndef lint
static char rcsid[] __attribute__ ((unused)) = "$Header: /usr/cvsroot/magic-8.0/database/DBcellsrch.c,v 1.7 2010/09/15 21:53:22 tim Exp $";
#endif /* not lint */
#include <stdio.h>
#include "utils/magic.h"
#include "utils/malloc.h"
#include "utils/geometry.h"
#include "utils/geofast.h"
#include "tiles/tile.h"
#include "utils/hash.h"
#include "database/database.h"
#include "database/databaseInt.h"
#include "dbwind/dbwind.h"
#include "textio/textio.h"
#include "utils/signals.h"
#include "windows/windows.h"
#include "utils/main.h"
#include "mzrouter/mzrouter.h"
/* Quick hack for dbScalePlanes() access to the CIF/GDS paint table */
#ifdef CIF_MODULE
extern PaintResultType CIFPaintTable[];
#endif
/*
* The following structure is used to accumulate information about
* the types of tiles visible underneath a given point in the database.
*/
struct seeTypesArg
{
TileTypeBitMask *saa_mask; /* Mask of tile types seen in search */
Rect *saa_rect; /* Search area in root coordinates */
};
/*
*-----------------------------------------------------------------------------
*
* DBSrCellPlaneArea --
*
* Searches a CellDef's cell plane and calls function func() for each
* cell use found.
*
* func() must be in the form:
*
* int func(CellUse *use, ClientData cdata)
*
* and must return 0 to keep the search running, or 1 to end the search.
*
* Replaces the original TiSrArea() routine, but with the function's
* first argument as a CellUse pointer rather than a Tile pointer,
* since the tile plane has been replaced with the BPlane method.
*
* Returns 1 if the func() returns 1; otherwise returns 0 to keep the
* search alive.
*
*-----------------------------------------------------------------------------
*/
int
DBSrCellPlaneArea(BPlane *plane, Rect *rect, int (*func)(), ClientData arg)
{
BPEnum bpe;
CellUse *use;
int rval = 0;
BPEnumInit(&bpe, plane, rect, BPE_OVERLAP, "DBSrCellPlaneArea");
while (use = BPEnumNext(&bpe))
{
if ((*func)(use, arg))
{
rval = 1;
break;
}
}
BPEnumTerm(&bpe);
return rval;
}
/*
*-----------------------------------------------------------------------------
*
* DBTreeSrTiles --
*
* Recursively search downward from the supplied CellUse for
* all visible paint tiles matching the supplied type mask.
*
* The procedure should be of the following form:
* int
* func(tile, cxp)
* Tile *tile;
* TreeContext *cxp;
* {
* }
*
* The SearchContext is stored in cxp->tc_scx, and the user's arg is stored
* in cxp->tc_filter->tf_arg.
*
* In the above, the scx transform is the net transform from the coordinates
* of tile to "world" coordinates (or whatever coordinates the initial
* transform supplied to DBTreeSrTiles was a transform to). Func returns
* 0 under normal conditions. If 1 is returned, it is a request to
* abort the search.
*
* *** WARNING ***
*
* The client procedure should not modify any of the paint planes in
* the cells visited by DBTreeSrTiles, because we use DBSrPaintArea
* as our paint-tile enumeration function.
*
* Results:
* 0 is returned if the search finished normally. 1 is returned
* if the search was aborted.
*
* Side effects:
* Whatever side effects are brought about by applying the
* procedure supplied.
*
*-----------------------------------------------------------------------------
*/
int
DBTreeSrTiles(scx, mask, xMask, func, cdarg)
SearchContext *scx; /* Pointer to search context specifying
* a cell use to search, an area in the
* coordinates of the cell's def, and a
* transform back to "root" coordinates.
*/
TileTypeBitMask *mask; /* Only tiles with a type for which
* a bit in this mask is on are processed.
*/
int xMask; /* All subcells are visited recursively
* until we encounter uses whose flags,
* when anded with xMask, are not
* equal to xMask.
*/
int (*func)(); /* Function to apply at each qualifying tile */
ClientData cdarg; /* Client data for above function */
{
int dbCellPlaneSrFunc();
TreeFilter filter;
/* Set up the filter and call the recursive filter function */
filter.tf_func = func;
filter.tf_arg = cdarg;
filter.tf_mask = mask;
filter.tf_xmask = xMask;
filter.tf_dinfo = 0;
filter.tf_planes = DBTechTypesToPlanes(mask);
return dbCellPlaneSrFunc(scx, &filter);
}
/*
* DBTreeSrNMTiles --
* This is a variant of the above in which the search is over
* a non-Manhattan area.
*/
int
DBTreeSrNMTiles(scx, dinfo, mask, xMask, func, cdarg)
SearchContext *scx; /* Pointer to search context specifying
* a cell use to search, an area in the
* coordinates of the cell's def, and a
* transform back to "root" coordinates.
*/
TileType dinfo; /* Type containing information about the
* diagonal area to search.
*/
TileTypeBitMask *mask; /* Only tiles with a type for which
* a bit in this mask is on are processed.
*/
int xMask; /* All subcells are visited recursively
* until we encounter uses whose flags,
* when anded with xMask, are not
* equal to xMask.
*/
int (*func)(); /* Function to apply at each qualifying tile */
ClientData cdarg; /* Client data for above function */
{
int dbCellPlaneSrFunc();
TreeFilter filter;
/* Set up the filter and call the recursive filter function */
filter.tf_func = func;
filter.tf_arg = cdarg;
filter.tf_mask = mask;
filter.tf_xmask = xMask;
filter.tf_dinfo = dinfo;
filter.tf_planes = DBTechTypesToPlanes(mask);
return dbCellPlaneSrFunc(scx, &filter);
}
/*
* dbCellPlaneSrFunc --
*
* Recursive filter procedure applied to the cell by DBTreeSrTiles().
*/
int
dbCellPlaneSrFunc(scx, fp)
SearchContext *scx;
TreeFilter *fp;
{
TreeContext context;
CellDef *def = scx->scx_use->cu_def;
int pNum;
ASSERT(def != (CellDef *) NULL, "dbCellPlaneSrFunc");
if (!DBDescendSubcell(scx->scx_use, fp->tf_xmask))
return 0;
if ((def->cd_flags & CDAVAILABLE) == 0)
{
bool dereference = (def->cd_flags & CDDEREFERENCE) ? TRUE : FALSE;
if (!DBCellRead(def, (char *) NULL, TRUE, dereference, NULL)) return 0;
}
context.tc_scx = scx;
context.tc_filter = fp;
/*
* Apply the function first to any of the tiles in the planes
* for this CellUse's CellDef that match the mask.
*/
for (pNum = PL_PAINTBASE; pNum < DBNumPlanes; pNum++)
if (PlaneMaskHasPlane(fp->tf_planes, pNum))
{
context.tc_plane = pNum;
if (fp->tf_dinfo & TT_DIAGONAL)
{
// TileType dinfo = DBTransformDiagonal(fp->tf_dinfo, &scx->scx_trans);
TileType dinfo = DBInvTransformDiagonal(fp->tf_dinfo, &scx->scx_trans);
if (DBSrPaintNMArea((Tile *) NULL, def->cd_planes[pNum],
dinfo, &scx->scx_area, fp->tf_mask,
fp->tf_func, (ClientData) &context))
return 1;
}
else if (DBSrPaintArea((Tile *) NULL, def->cd_planes[pNum],
&scx->scx_area, fp->tf_mask,
fp->tf_func, (ClientData) &context))
return 1;
}
/*
* Now apply ourselves recursively to each of the CellUses
* in our cell plane.
*/
if (DBCellSrArea(scx, dbCellPlaneSrFunc, (ClientData) fp))
return 1;
else return 0;
}
/*
*-----------------------------------------------------------------------------
*
* DBTreeSrUniqueTiles --
*
* Recursively search downward from the supplied CellUse for
* all visible paint tiles matching the supplied type mask.
* This routine is like DBTreeSrTiles, above, except that it will
* only call the specified routine ONCE for each contact type, in
* the home plane of that contact type. Stacked contact types will
* only be processed if the current search plane matches the home
* plane of one of the stacked contact type's residues.
*
* Results:
* 0 is returned if the search finished normally. 1 is returned
* if the search was aborted.
*
* Side effects:
* Whatever side effects are brought about by applying the
* procedure supplied.
*
*-----------------------------------------------------------------------------
*/
int
DBTreeSrUniqueTiles(scx, mask, xMask, func, cdarg)
SearchContext *scx; /* Pointer to search context specifying
* a cell use to search, an area in the
* coordinates of the cell's def, and a
* transform back to "root" coordinates.
*/
TileTypeBitMask *mask; /* Only tiles with a type for which
* a bit in this mask is on are processed.
*/
int xMask; /* All subcells are visited recursively
* until we encounter uses whose flags,
* when anded with xMask, are not
* equal to xMask.
*/
int (*func)(); /* Function to apply at each qualifying tile */
ClientData cdarg; /* Client data for above function */
{
int dbCellPlaneSrFunc();
TreeFilter filter;
/* Set up the filter and call the recursive filter function */
filter.tf_func = func;
filter.tf_arg = cdarg;
filter.tf_mask = mask;
filter.tf_xmask = xMask;
filter.tf_planes = DBTechTypesToPlanes(mask);
return dbCellUniqueTileSrFunc(scx, &filter);
}
/*
* dbCellUniqueTileSrFunc --
*
* Recursive filter procedure applied to the cell by DBTreeSrUniqueTiles().
* This is similar to dbCellPlaneSrFunc, except that for each plane searched,
* only the tile types having that plane as their home plane will be passed
* to the filter function. Contacts will therefore be processed only once.
*/
int
dbCellUniqueTileSrFunc(scx, fp)
SearchContext *scx;
TreeFilter *fp;
{
TreeContext context;
TileTypeBitMask uMask;
CellDef *def = scx->scx_use->cu_def;
int pNum;
ASSERT(def != (CellDef *) NULL, "dbCellUniqueTileSrFunc");
if (!DBDescendSubcell(scx->scx_use, fp->tf_xmask))
return 0;
if ((def->cd_flags & CDAVAILABLE) == 0)
{
bool dereference = (def->cd_flags & CDDEREFERENCE) ? TRUE : FALSE;
if (!DBCellRead(def, (char *) NULL, TRUE, dereference, NULL)) return 0;
}
context.tc_scx = scx;
context.tc_filter = fp;
/*
* Apply the function first to any of the tiles in the planes
* for this CellUse's CellDef that match the mask.
*/
for (pNum = PL_PAINTBASE; pNum < DBNumPlanes; pNum++)
if (PlaneMaskHasPlane(fp->tf_planes, pNum))
{
uMask = DBHomePlaneTypes[pNum];
TTMaskAndMask(&uMask, fp->tf_mask);
if (!TTMaskIsZero(&uMask))
{
context.tc_plane = pNum;
if (DBSrPaintArea((Tile *) NULL, def->cd_planes[pNum],
&scx->scx_area, &uMask, fp->tf_func,
(ClientData) &context))
return 1;
}
}
/*
* Now apply ourselves recursively to each of the CellUses
* in our tile plane.
*/
if (DBCellSrArea(scx, dbCellUniqueTileSrFunc, (ClientData) fp))
return 1;
else return 0;
}
/*
*-----------------------------------------------------------------------------
*
* DBNoTreeSrTiles --
*
* NOTE: THIS PROCEDURE IS EXACTLY LIKE DBTreeSrTiles EXCEPT THAT IT DOES
* NOT SEARCH SUBCELLS.
*
* Searches the supplied CellUse (if expanded) for
* all visible paint tiles matching the supplied type mask.
*
* The procedure should be of the following form:
* int
* func(tile, cxp)
* Tile *tile;
* TreeContext *cxp;
* {
* }
*
* The SearchContext is stored in cxp->tc_scx, and the user's arg is stored
* in cxp->tc_filter->tf_arg.
*
* In the above, the scx transform is the net transform from the coordinates
* of tile to "world" coordinates (or whatever coordinates the initial
* transform supplied to DBTreeSrTiles was a transform to). Func returns
* 0 under normal conditions. If 1 is returned, it is a request to
* abort the search.
*
* *** WARNING ***
*
* The client procedure should not modify any of the paint planes in
* the cells visited by DBTreeSrTiles, because we use DBSrPaintArea
* as our paint-tile enumeration function.
*
* Results:
* 0 is returned if the search finished normally. 1 is returned
* if the search was aborted.
*
* Side effects:
* Whatever side effects are brought about by applying the
* procedure supplied.
*
*-----------------------------------------------------------------------------
*/
int
DBNoTreeSrTiles(scx, mask, xMask, func, cdarg)
SearchContext *scx; /* Pointer to search context specifying
* a cell use to search, an area in the
* coordinates of the cell's def, and a
* transform back to "root" coordinates.
*/
TileTypeBitMask *mask; /* Only tiles with a type for which
* a bit in this mask is on are processed.
*/
int xMask; /* All subcells are visited recursively
* until we encounter uses whose flags,
* when anded with xMask, are not
* equal to xMask.
*/
int (*func)(); /* Function to apply at each qualifying tile */
ClientData cdarg; /* Client data for above function */
{
TreeContext context;
TreeFilter filter;
CellUse *cellUse = scx->scx_use;
CellDef *def = cellUse->cu_def;
int pNum;
ASSERT(def != (CellDef *) NULL, "DBNoTreeSrTiles");
if (!DBDescendSubcell(cellUse, xMask))
return 0;
if ((def->cd_flags & CDAVAILABLE) == 0)
{
bool dereference = (def->cd_flags & CDDEREFERENCE) ? TRUE : FALSE;
if (!DBCellRead(def, (char *) NULL, TRUE, dereference, NULL)) return 0;
}
filter.tf_func = func;
filter.tf_arg = cdarg;
filter.tf_mask = mask;
filter.tf_xmask = xMask;
filter.tf_planes = DBTechTypesToPlanes(mask);
context.tc_scx = scx;
context.tc_filter = &filter;
/*
* Apply the function first to any of the tiles in the planes
* for this CellUse's CellDef that match the mask.
*/
for (pNum = PL_PAINTBASE; pNum < DBNumPlanes; pNum++)
if (PlaneMaskHasPlane(filter.tf_planes, pNum))
{
if (DBSrPaintArea((Tile *) NULL, def->cd_planes[pNum],
&scx->scx_area, mask, func, (ClientData) &context))
return 1;
}
/* Return normally */
return 0;
}
/*
*-----------------------------------------------------------------------------
*
* DBTreeSrLabels --
*
* Recursively search downward from the supplied CellUse for
* all visible labels attached to layers matching the supplied
* type mask.
*
* The procedure should be of the following form:
* int
* func(scx, label, tpath, cdarg)
* SearchContext *scx;
* Label *label;
* TerminalPath *tpath;
* ClientData cdarg;
* {
* }
*
* In the above, the use associated with scx is the parent of the
* CellDef containing the tile which contains the label, and the
* transform associated is the net transform from the coordinates
* of the tile to "root" coordinates. Func normally returns 0. If
* func returns 1, it is a request to abort the search without finding
* any more labels.
*
* Results:
* 0 is returned if the search terminated normally. 1 is returned
* if the search was aborted.
*
* Side effects:
* Whatever side effects are brought about by applying the
* procedure supplied.
*
*-----------------------------------------------------------------------------
*/
int
DBTreeSrLabels(scx, mask, xMask, tpath, flags, func, cdarg)
SearchContext *scx; /* Pointer to search context specifying
* a cell use to search, an area in the
* coordinates of the cell's def, and a
* transform back to "root" coordinates.
* The area may have zero size. Labels
* need only touch the area.
*/
TileTypeBitMask * mask; /* Only visit labels attached to these types */
int xMask; /* All subcells are visited recursively
* until we encounter uses whose flags,
* when anded with xMask, are not
* equal to xMask.
*/
TerminalPath *tpath; /* Pointer to a structure describing a
* partially filled in terminal pathname.
* If this pointer is NULL, we don't bother
* filling it in further; otherwise, we add
* new pathname components as we encounter
* them.
*/
unsigned char flags; /* Flags to denote whether labels should be
* searched according to the area of the
* attachment, the area of the label itself,
* or both.
*/
int (*func)(); /* Function to apply at each qualifying tile */
ClientData cdarg; /* Client data for above function */
{
SearchContext scx2;
Label *lab;
Rect *r = &scx->scx_area;
CellUse *cellUse = scx->scx_use;
CellDef *def = cellUse->cu_def;
TreeFilter filter;
bool is_touching;
int dbCellLabelSrFunc();
ASSERT(def != (CellDef *) NULL, "DBTreeSrLabels");
if (!DBDescendSubcell(cellUse, xMask)) return 0;
if ((def->cd_flags & CDAVAILABLE) == 0)
{
bool dereference = (def->cd_flags & CDDEREFERENCE) ? TRUE : FALSE;
if (!DBCellRead(def, (char *) NULL, TRUE, dereference, NULL)) return 0;
}
for (lab = def->cd_labels; lab; lab = lab->lab_next)
{
if (SigInterruptPending) break;
is_touching = FALSE;
if ((lab->lab_font < 0) || (flags & TF_LABEL_ATTACH))
{
/* For non-manhattan searches, label must be in or */
/* touch the triangle. (to-do: needs a proper */
/* insideness test) */
if (flags & TF_LABEL_ATTACH_CORNER)
{
Rect r1 = *r;
Rect r2 = *r;
if (flags & TF_LABEL_ATTACH_NOT_NE)
{
r1.r_ytop = r->r_ybot;
r2.r_xtop = r->r_xbot;
}
else if (flags & TF_LABEL_ATTACH_NOT_NW)
{
r1.r_ytop = r->r_ybot;
r2.r_xbot = r->r_xtop;
}
else if (flags & TF_LABEL_ATTACH_NOT_SE)
{
r1.r_ybot = r->r_ytop;
r2.r_xtop = r->r_xbot;
}
else if (flags & TF_LABEL_ATTACH_NOT_SW)
{
r1.r_ybot = r->r_ytop;
r2.r_xbot = r->r_xtop;
}
is_touching = GEO_TOUCH(&lab->lab_bbox, &r1) ||
GEO_TOUCH(&lab->lab_bbox, &r2);
}
else
is_touching = GEO_TOUCH(&lab->lab_rect, r);
}
if (!is_touching && (flags & TF_LABEL_DISPLAY) && lab->lab_font >= 0)
{
/* Check against bounds of the rendered label text */
is_touching = GEO_TOUCH(&lab->lab_bbox, r);
}
if (is_touching && TTMaskHasType(mask, lab->lab_type))
if ((*func)(scx, lab, tpath, cdarg))
return (1);
}
filter.tf_func = func;
filter.tf_arg = cdarg;
filter.tf_mask = mask;
filter.tf_xmask = xMask;
filter.tf_tpath = tpath;
filter.tf_flags = flags;
/* filter.tf_planes is unused */
/* Visit each child CellUse recursively.
* This code is a bit tricky because the area can have zero size.
* This would cause subcells never to be examined. What we do is
* to expand the area by 1 here, then require the labels to OVERLAP
* instead of just TOUCH. Be careful when expanding: can't expand
* any coordinate past infinity.
*/
scx2 = *scx;
if (scx2.scx_area.r_xbot > TiPlaneRect.r_xbot) scx2.scx_area.r_xbot -= 1;
if (scx2.scx_area.r_ybot > TiPlaneRect.r_ybot) scx2.scx_area.r_ybot -= 1;
if (scx2.scx_area.r_xtop < TiPlaneRect.r_xtop) scx2.scx_area.r_xtop += 1;
if (scx2.scx_area.r_ytop < TiPlaneRect.r_ytop) scx2.scx_area.r_ytop += 1;
if (DBCellSrArea(&scx2, dbCellLabelSrFunc, (ClientData) &filter))
return 1;
return 0;
}
/*
* dbCellLabelSrFunc --
*
* Filter procedure applied to subcells by DBTreeSrLabels().
*/
int
dbCellLabelSrFunc(scx, fp)
SearchContext *scx;
TreeFilter *fp;
{
Label *lab;
Rect *r = &scx->scx_area;
TileTypeBitMask *mask = fp->tf_mask;
CellDef *def = scx->scx_use->cu_def;
char *tnext;
int result;
bool has_overlap;
ASSERT(def != (CellDef *) NULL, "dbCellLabelSrFunc");
if (!DBDescendSubcell(scx->scx_use, fp->tf_xmask)) return 0;
if ((def->cd_flags & CDAVAILABLE) == 0)
{
bool dereference = (def->cd_flags & CDDEREFERENCE) ? TRUE : FALSE;
if (!DBCellRead(def, (char *) NULL, TRUE, dereference, NULL)) return 0;
}
if (fp->tf_tpath != (TerminalPath *) NULL)
{
TerminalPath *tp = fp->tf_tpath;
tnext = tp->tp_next;
tp->tp_next = DBPrintUseId(scx, tp->tp_next, tp->tp_last-tp->tp_next,
FALSE);
if (tp->tp_next < tp->tp_last)
{
*(tp->tp_next++) = '/';
*(tp->tp_next) = '\0';
}
}
/* Apply the function first to any of the labels in this def. */
result = 0;
for (lab = def->cd_labels; lab; lab = lab->lab_next)
{
has_overlap = FALSE;
if ((lab->lab_font < 0) || (fp->tf_flags & TF_LABEL_ATTACH))
has_overlap = GEO_OVERLAP(&lab->lab_rect, r);
if (!has_overlap && (fp->tf_flags & TF_LABEL_DISPLAY) && (lab->lab_font >= 0))
has_overlap = GEO_OVERLAP(&lab->lab_bbox, r);
if (has_overlap && TTMaskHasType(mask, lab->lab_type))
{
if ((*fp->tf_func)(scx, lab, fp->tf_tpath, fp->tf_arg))
{
result = 1;
goto cleanup;
}
}
}
/* Now visit each child use recursively */
if (DBCellSrArea(scx, dbCellLabelSrFunc, (ClientData) fp))
result = 1;
cleanup:
/* Remove the trailing pathname component from the TerminalPath */
if (fp->tf_tpath != (TerminalPath *) NULL)
{
fp->tf_tpath->tp_next = tnext;
*tnext = '\0';
}
return (result);
}
/*
*-----------------------------------------------------------------------------
*
* DBTreeSrCells --
*
* Recursively search downward from the supplied CellUse for
* all CellUses whose parents are expanded but which themselves
* are unexpanded.
*
* The procedure should be of the following form:
* int
* func(scx, cdarg)
* SearchContext *scx;
* ClientData cdarg;
* {
* }
*
* In the above, the transform scx->scx_trans is from coordinates of
* the def of scx->scx_use to the "root". The array indices
* scx->scx_x and scx->scx_y identify this element if it is a
* component of an array. Func normally returns 0. If func returns
* 1, then the search is aborted. If func returns 2, then all
* remaining elements of the current array are skipped, but the
* search is not aborted.
*
* Each element of an array is returned separately.
*
* Results:
* 0 is returned if the search terminated normally. 1 is
* returned if it was aborted.
*
* Side effects:
* Whatever side effects are brought about by applying the
* procedure supplied.
*
*-----------------------------------------------------------------------------
*/
int
DBTreeSrCells(scx, xMask, func, cdarg)
SearchContext *scx; /* Pointer to search context specifying a cell use to
* search, an area in the coordinates of the cell's
* def, and a transform back to "root" coordinates.
*/
int xMask; /* All subcells are visited recursively until we
* encounter uses whose flags, when anded with
* xMask, are not equal to xMask. Func is called
* for these cells. A zero mask means all cells in
* the root use are considered not to be expanded,
* and hence are passed to func.
*/
int (*func)(); /* Function to apply to each qualifying cell */
ClientData cdarg; /* Client data for above function */
{
int dbTreeCellSrFunc();
CellUse *cellUse = scx->scx_use;
TreeContext context;
TreeFilter filter;
if (!DBDescendSubcell(cellUse, xMask))
return 0;
if ((cellUse->cu_def->cd_flags & CDAVAILABLE) == 0)
{
bool dereference = (cellUse->cu_def->cd_flags & CDDEREFERENCE) ? TRUE : FALSE;
if (!DBCellRead(cellUse->cu_def, (char *) NULL, TRUE, dereference, NULL))
return 0;
}
context.tc_scx = scx;
context.tc_filter = &filter;
filter.tf_func = func;
filter.tf_arg = cdarg;
filter.tf_xmask = xMask;
if (DBCellSrArea(scx, dbTreeCellSrFunc, (ClientData) &filter))
return 1;
else return 0;
}
/*
* dbTreeCellSrFunc --
*
* Filter procedure applied to subcells by DBTreeSrCells().
*/
/*ARGSUSED*/
int
dbTreeCellSrFunc(scx, fp)
SearchContext *scx; /* Pointer to context containing a
* CellUse and a transform from coord-
* inates of the def of the use to the
* "root" of the search.
*/
TreeFilter *fp;
{
CellUse *use = scx->scx_use;
int result;
/* DBDescendSubcell treats a zero expand mask as "expanded everywhere",
* whereas we want it to mean "expanded nowhere". Handle specially.
*/
if ((fp->tf_xmask == CU_DESCEND_NO_LOCK) && (use->cu_flags & CU_LOCKED))
return 2;
else if ((!DBDescendSubcell(use, fp->tf_xmask)) ||
(fp->tf_xmask == CU_DESCEND_ALL))
result = (*fp->tf_func)(scx, fp->tf_arg);
else
{
if ((use->cu_def->cd_flags & CDAVAILABLE) == 0)
{
bool dereference = (use->cu_def->cd_flags & CDDEREFERENCE) ? TRUE : FALSE;
if (!DBCellRead(use->cu_def, (char *) NULL, TRUE, dereference, NULL))
return 0;
}
result = DBCellSrArea(scx, dbTreeCellSrFunc, (ClientData) fp);
}
return result;
}
/*
*-----------------------------------------------------------------------------
*
* DBSeeTypesAll --
*
* Set a TileTypeBitMask of all visible tiles beneath the given rectangle.
* "Beneath" in this case means "completely containing".
* The search takes place recursively down to all expanded cells beneath
* rootUse.
*
* Results:
* None.
*
* Side effects:
* Sets the TileTypeBitMask pointed to by 'mask' to all types beneath
* the rectangle.
*
*-----------------------------------------------------------------------------
*/
void
DBSeeTypesAll(rootUse, rootRect, xMask, mask)
CellUse *rootUse; /* CellUse from which to begin search */
Rect *rootRect; /* Clipping rectangle in coordinates of CellUse's def */
int xMask; /* Expansion mask for DBTreeSrTiles() */
TileTypeBitMask *mask; /* Mask to set */
{
int dbSeeTypesAllSrFunc();
SearchContext scontext;
scontext.scx_use = rootUse;
scontext.scx_trans = GeoIdentityTransform;
scontext.scx_area = *rootRect;
TTMaskZero(mask);
(void) DBTreeSrTiles(&scontext, &DBAllTypeBits, xMask,
dbSeeTypesAllSrFunc, (ClientData) mask);
}
/*
* dbSeeTypesAllSrFunc --
*
* Filter procedure applied to tiles by DBSeeTypesAll() above.
*/
int
dbSeeTypesAllSrFunc(tile, cxp)
Tile *tile;
TreeContext *cxp;
{
Rect tileRect;
TileTypeBitMask *mask = (TileTypeBitMask *) cxp->tc_filter->tf_arg;
Rect *area = &cxp->tc_scx->scx_area;
TiToRect(tile, &tileRect);
if (GEO_OVERLAP((&tileRect), area))
{
if (IsSplit(tile))
TTMaskSetType(mask, SplitSide(tile) ?
SplitRightType(tile) : SplitLeftType(tile));
else
TTMaskSetType(mask, TiGetType(tile));
}
return 0;
}
/*
*-----------------------------------------------------------------------------
*
* DBSrRoots --
*
* Apply the supplied procedure to each CellUse that is a root of
* the given base CellDef. A root is a CellUse with no parent def.
*
* The procedure should be of the following form:
* int
* func(cellUse, transform, cdarg)
* CellUse *cellUse;
* Transform *transform;
* ClientData cdarg;
* {
* }
*
* Transform is from coordinates of baseDef to those of the def of cellUse.
* Func normally returns 0. If it returns 1 then the search is aborted.
*
* Results:
* 0 is returned if the search terminated normally. 1 is returned
* if it was aborted.
*
* Side effects:
* Whatever side effects are brought about by applying the
* procedure supplied.
*
*-----------------------------------------------------------------------------
*/
int
DBSrRoots(baseDef, transform, func, cdarg)
CellDef *baseDef; /* Base CellDef, all of whose ancestors are
* searched for.
*/
Transform *transform; /* Transform from original baseDef to current
* baseDef.
*/
int (*func)(); /* Function to apply at each root cellUse */
ClientData cdarg; /* Client data for above function */
{
CellUse *parentUse;
int xoff, yoff, x, y;
Transform baseToParent, t;
if (baseDef == (CellDef *) NULL)
return 0;
for (parentUse = baseDef->cd_parents; parentUse != NULL;
parentUse = parentUse->cu_nextuse)
{
if (SigInterruptPending) return 1;
if (parentUse->cu_parent == (CellDef *) NULL)
{
GeoTransTrans(transform, &parentUse->cu_transform, &baseToParent);
if ((*func)(parentUse, &baseToParent, cdarg)) return 1;
}
else
{
for (x = parentUse->cu_xlo; x <= parentUse->cu_xhi; x++)
for (y = parentUse->cu_ylo; y <= parentUse->cu_yhi; y++)
{
if (SigInterruptPending)
return 1;
xoff = (x - parentUse->cu_xlo) * parentUse->cu_xsep;
yoff = (y - parentUse->cu_ylo) * parentUse->cu_ysep;
GeoTranslateTrans(transform, xoff, yoff, &t);
GeoTransTrans(&t, &parentUse->cu_transform, &baseToParent);
if (DBSrRoots(parentUse->cu_parent, &baseToParent,
func, cdarg)) return 1;
}
}
}
return 0;
}
/*
*-----------------------------------------------------------------------------
*
* DBIsAncestor --
*
* Determine if cellDef1 is an ancestor of cellDef2.
*
* Results:
* TRUE if cellDef1 is an ancestor of cellDef2, FALSE if not.
*
* Side effects:
* None.
*
*-----------------------------------------------------------------------------
*/
bool
DBIsAncestor(cellDef1, cellDef2)
CellDef *cellDef1; /* Potential ancestor */
CellDef *cellDef2; /* Potential descendant -- this is where we
* start the search.
*/
{
CellUse *parentUse;
CellDef *parentDef;
if (cellDef1 == cellDef2)
return (TRUE);
for (parentUse = cellDef2->cd_parents; parentUse != NULL;
parentUse = parentUse->cu_nextuse)
{
if ((parentDef = parentUse->cu_parent) != (CellDef *) NULL)
if (DBIsAncestor(cellDef1, parentDef))
return (TRUE);
}
return (FALSE);
}
/*
*-----------------------------------------------------------------------------
*
* DBCellSrArea --
*
* Apply the supplied procedure to each of the cellUses found in the
* given area in the subcell plane of the child def of the supplied
* search context.
*
* The procedure is applied to each array element in each cell use that
* overlaps the clipping rectangle. The scx_x and scx_y parts of
* the SearchContext passed to the filter function correspond to the
* array element being visited. The same CellUse is, of course, passed
* as scx_use for all elements of the array.
*
* The array elements are visited by varying the X coordinate fastest.
*
* The procedure should be of the following form:
* int
* func(scx, cdarg)
* SearchContext *scx;
* ClientData cdarg;
* {
* }
*
* Func normally returns 0. If it returns 1 then the search is
* aborted. If it returns 2, then any remaining elements in the
* current array are skipped.
*
* Results:
* 0 is returned if the search terminated normally. 1 is
* returned if it was aborted.
*
* Side effects:
* Whatever side effects are brought about by applying the
* procedure supplied.
*
*-----------------------------------------------------------------------------
*/
int
DBCellSrArea(scx, func, cdarg)
SearchContext *scx;
/* Pointer to search context specifying a cell use to
* search, an area in the coordinates of the cell's
* def, and a transform back to "root" coordinates.
* The area may have zero size.
*/
int (*func)(); /* Function to apply at every tile found */
ClientData cdarg; /* Argument to pass to function */
{
TreeFilter filter;
TreeContext context;
int dbCellSrFunc();
filter.tf_func = func;
filter.tf_arg = cdarg;
context.tc_filter = &filter;
context.tc_scx = scx;
if ((scx->scx_use->cu_def->cd_flags & CDAVAILABLE) == 0)
{
bool dereference = (scx->scx_use->cu_def->cd_flags & CDDEREFERENCE) ?
TRUE : FALSE;
if (!DBCellRead(scx->scx_use->cu_def, (char *) NULL, TRUE, dereference, NULL))
return 0;
}
if (DBSrCellPlaneArea(scx->scx_use->cu_def->cd_cellPlane,
&scx->scx_area, dbCellSrFunc, (ClientData) &context))
return 1;
return 0;
}
/*
*-----------------------------------------------------------------------------
*
* dbCellSrFunc --
*
* Filter procedure for DBCellSrArea. Applies the procedure given
* to DBCellSrArea to any of the CellUses in the given area.
*
* Results:
* 0 is normally returned, and 1 is returned if an abort occurred.
*
* Side effects:
* Whatever side effects are brought about by applying the
* procedure supplied.
*
*-----------------------------------------------------------------------------
*/
int
dbCellSrFunc(use, cxp)
CellUse *use;
TreeContext *cxp;
{
TreeFilter *fp = cxp->tc_filter;
SearchContext *scx = cxp->tc_scx;
Rect *bbox;
SearchContext newScx;
Transform t, tinv;
int xlo, xhi, ylo, yhi, xbase, ybase, xsep, ysep, clientResult;
bbox = &use->cu_bbox;
newScx.scx_use = use;
/* If not an array element, life is much simpler */
if (use->cu_xlo == use->cu_xhi && use->cu_ylo == use->cu_yhi)
{
newScx.scx_x = use->cu_xlo, newScx.scx_y = use->cu_yhi;
if (SigInterruptPending) return 1;
GEOINVERTTRANS(&use->cu_transform, &tinv);
GeoTransTrans(&use->cu_transform, &scx->scx_trans,
&newScx.scx_trans);
GEOTRANSRECT(&tinv, &scx->scx_area, &newScx.scx_area);
if ((*fp->tf_func)(&newScx, fp->tf_arg) == 1)
return 1;
return 0;
}
/*
* More than a single array element;
* check to see which ones overlap our search area.
*/
DBArrayOverlap(use, &scx->scx_area, &xlo, &xhi, &ylo, &yhi);
xsep = (use->cu_xlo > use->cu_xhi) ? -use->cu_xsep : use->cu_xsep;
ysep = (use->cu_ylo > use->cu_yhi) ? -use->cu_ysep : use->cu_ysep;
for (newScx.scx_y = ylo; newScx.scx_y <= yhi; newScx.scx_y++)
for (newScx.scx_x = xlo; newScx.scx_x <= xhi; newScx.scx_x++)
{
if (SigInterruptPending) return 1;
xbase = xsep * (newScx.scx_x - use->cu_xlo);
ybase = ysep * (newScx.scx_y - use->cu_ylo);
GeoTransTranslate(xbase, ybase, &use->cu_transform, &t);
GEOINVERTTRANS(&t, &tinv);
GeoTransTrans(&t, &scx->scx_trans, &newScx.scx_trans);
GEOTRANSRECT(&tinv, &scx->scx_area, &newScx.scx_area);
clientResult = (*fp->tf_func)(&newScx, fp->tf_arg);
if (clientResult == 2) return 0;
else if (clientResult == 1) return 1;
}
return 0;
}
/*
*-----------------------------------------------------------------------------
*
* DBCellEnum --
*
* Apply the supplied procedure once to each CellUse in the subcell
* plane of the supplied CellDef. This procedure is not a geometric
* search, but rather a hierarchical enumeration. Use DBSrCellPlaneArea()
* for geometric searches over an area.
*
* The procedure should be of the following form:
* int
* func(use, cdarg)
* CellUse *use;
* ClientData cdarg;
* {
* }
*
* Func returns 0 normally, 1 to abort the search.
*
* Results:
* 0 if search terminated normally, 1 if it aborted.
*
* Side effects:
* Whatever side effects are brought about by applying the
* procedure supplied.
*
*-----------------------------------------------------------------------------
*/
int
DBCellEnum(cellDef, func, cdarg)
CellDef *cellDef; /* Def whose subcell plane is to be searched */
int (*func)(); /* Function to apply at every tile found */
ClientData cdarg; /* Argument to pass to function */
{
TreeFilter filter;
int dbEnumFunc();
filter.tf_func = func;
filter.tf_arg = cdarg;
if ((cellDef->cd_flags & CDAVAILABLE) == 0)
{
bool dereference = (cellDef->cd_flags & CDDEREFERENCE) ? TRUE : FALSE;
if (!DBCellRead(cellDef, (char *) NULL, TRUE, dereference, NULL)) return 0;
}
if (DBSrCellPlaneArea(cellDef->cd_cellPlane,
&TiPlaneRect, dbEnumFunc, (ClientData) &filter))
return 1;
else return 0;
}
/*
*-----------------------------------------------------------------------------
*
* dbEnumFunc --
*
* Filter procedure for DBCellEnum. Applies the procedure given
* to DBCellEnum to the visited CellUse.
*
* Results:
* 0 normally, 1 if abort occurred.
*
* Side effects:
* Whatever side effects are brought about by applying the
* procedure supplied.
*
*-----------------------------------------------------------------------------
*/
int
dbEnumFunc(use, fp)
CellUse *use;
TreeFilter *fp;
{
Rect *bbox;
bbox = &use->cu_bbox;
if ((*fp->tf_func)(use, fp->tf_arg)) return 1;
return 0;
}
/*
* ----------------------------------------------------------------------------
*
* DBArraySr --
*
* Finds all elements of an array that fall in a particular area
* of the parent, and calls func for each element found.
*
* The procedure should be of the following form:
* int
* func(cellUse, trans, x, y, cdarg)
* CellUse *celluse;
* Transform *trans;
* int x, y;
* ClientData cdarg;
* {}
*
* In the above, cellUse is the original cellUse, trans is
* a transformation from the coordinates of the cell def to
* the coordinates of the use (for this array element), x and
* y are the indices of this array element, and cdarg is
* the ClientData supplied to us. If 1 is returned by func,
* it is a signal to abort the search.
*
* Results:
* 0 is returned if the search finished normally. 1 is returned
* if the search was aborted.
*
* Side effects:
* Whatever func does.
*
* ----------------------------------------------------------------------------
*/
int
DBArraySr(use, searchArea, func, cdarg)
CellUse *use; /* CellUse of array to be searched. */
Rect *searchArea; /* Area of interest, given in the
* coordinates of the parent (i.e. the
* cell use, not def). Must overlap
* the array bounding box.
*/
int (*func)(); /* Function to apply for each overlapping
* array element.
*/
ClientData cdarg; /* Client-specific info to give to func. */
{
int xlo, xhi, ylo, yhi, x, y;
int xsep, ysep, xbase, ybase;
Transform t;
DBArrayOverlap(use, searchArea, &xlo, &xhi, &ylo, &yhi);
if (use->cu_xlo > use->cu_xhi) xsep = -use->cu_xsep;
else xsep = use->cu_xsep;
if (use->cu_ylo > use->cu_yhi) ysep = -use->cu_ysep;
else ysep = use->cu_ysep;
for (y = ylo; y <= yhi; y++)
for (x = xlo; x <= xhi; x++)
{
if (SigInterruptPending) return 1;
xbase = xsep * (x - use->cu_xlo);
ybase = ysep * (y - use->cu_ylo);
GeoTransTranslate(xbase, ybase, &use->cu_transform, &t);
if ((*func)(use, &t, x, y, cdarg)) return 1;
}
return 0;
}
/* Linked list structures for tile, celldef, and celluse enumeration */
typedef struct LT1 /* A linked tile record */
{
Tile *tile; /* Pointer to a tile */
struct LT1 *t_next; /* Pointer to another linked tile record */
} LinkedTile;
typedef struct LCD1 /* A linked celldef record */
{
CellDef *cellDef; /* Pointer to a celldef */
struct LCD1 *cd_next; /* Pointer to another linked celldef record */
} LinkedCellDef;
typedef struct LCU1 /* A linked celluse record */
{
CellUse *cellUse; /* Pointer to a celluse */
struct LCU1 *cu_next; /* Pointer to another linked celluse record */
} LinkedCellUse;
/*
* ----------------------------------------------------------------------------
*
* DBMovePoint ---
*
* Move a point by a position (origx, origy). Ignore positions which
* are marked as (M)INFINITY.
*
* Results:
* TRUE if the point was moved (point position was not infinite)
*
* Side effects:
* Point structure pointed to by the first argument is repositioned.
*
* ----------------------------------------------------------------------------
*/
bool
DBMovePoint(p, origx, origy)
Point *p;
int origx, origy;
{
int result = FALSE;
if ((p->p_x < (INFINITY - 2)) && (p->p_x > (MINFINITY + 2)))
{
p->p_x -= origx;
result = TRUE;
}
if ((p->p_y < (INFINITY + 2)) && (p->p_y > (MINFINITY + 2)))
{
p->p_y -= origy;
result = TRUE;
}
return result;
}
/*
* ----------------------------------------------------------------------------
*
* DBScaleValue ---
*
* Scale an integer by a factor of (scalen / scaled). Always round down.
* this requires correcting integer arithmetic for negative numbers on
* the division step. Values representing INFINITY are not scaled.
*
* Results:
* TRUE if the value does not scale exactly, FALSE otherwise.
*
* Side effects:
* Integer value passed as pointer is scaled, unless it represents
* an INFINITY measure.
*
* ----------------------------------------------------------------------------
*/
bool
DBScaleValue(v, n, d)
int *v, n, d;
{
dlong llv = (dlong)(*v);
if ((llv < (dlong)(INFINITY - 2)) && (llv > (dlong)(MINFINITY + 2)))
{
llv *= (dlong)n;
if (llv > 0)
llv /= (dlong)d;
else if (llv < 0)
llv = ((llv + 1) / (dlong)d) - 1;
*v = (int)llv;
/* Hopefully we do not reach this error. If we do, there's */
/* not much we can do about it except to increase Magic's */
/* internal Point structure to hold 8-byte integer values. */
if ((dlong)(*v) != llv)
TxError("ERROR: ARITHMETIC OVERFLOW in DBScaleValue()!\n");
}
return (((*v) % d) != 0);
}
/*
* ----------------------------------------------------------------------------
*
* DBScalePoint ---
*
* Scale a point by a factor of (scalen / scaled). Always round down.
* this requires correcting integer arithmetic for negative numbers on
* the division step.
*
* Results:
* TRUE if the point does not scale exactly, FALSE otherwise.
*
* Side effects:
* Point structure pointed to by the first argument is scaled.
*
* ----------------------------------------------------------------------------
*/
bool
DBScalePoint(p, n, d)
Point *p;
int n, d;
{
bool result;
result = DBScaleValue(&p->p_x, n, d);
result |= DBScaleValue(&p->p_y, n, d);
return result;
}
/*
* ----------------------------------------------------------------------------
*
* DBScaleEverything ---
*
* Scale all geometry by a factor of (scalen / scaled). This procedure
* cannot be undone!
*
* Results:
* None.
*
* Side Effects:
* Every single tile, label, and cell is altered.
* Geometry may be irrevocably distorted if transformed measurements
* would be sub-integer. The MODIFIED flag is set on any cell for
* which any internal geometry does not scale precisely.
*
* ----------------------------------------------------------------------------
*/
void
DBScaleEverything(scalen, scaled)
int scalen, scaled;
{
void ToolScaleBox();
int dbCellDefEnumFunc();
LinkedCellDef *lhead, *lcd;
// DBUpdateStamps();
SigDisableInterrupts();
lhead = NULL;
(void) DBCellSrDefs(0, dbCellDefEnumFunc, (ClientData) &lhead);
/* Apply scaling function to each CellDef */
lcd = lhead;
while (lcd != NULL)
{
dbScaleCell(lcd->cellDef, scalen, scaled);
lcd = lcd->cd_next;
}
/* Free the linked CellDef list */
lcd = lhead;
while (lcd != NULL)
{
freeMagic((char *)lcd);
lcd = lcd->cd_next;
}
/* Scale all elements */
DBWScaleElements(scalen, scaled);
/* Recovery of global plane pointers */
MZAttachHintPlanes();
/* Modify root box */
ToolScaleBox(scalen, scaled);
/* Modify crosshair position */
DBWScaleCrosshair(scalen, scaled);
SigEnableInterrupts();
}
/* Structure needed to hold information about the plane to copy */
struct scaleArg {
int scalen;
int scaled;
int pnum;
Plane *ptarget;
bool doCIF;
bool modified;
};
struct moveArg {
int origx;
int origy;
int pnum;
Plane *ptarget;
bool modified;
};
/*
* ----------------------------------------------------------------------------
*
* dbScalePlane --
*
* Scaling procedure called on a single plane. Copies paint into the
* new plane at a scalefactor according to ratio (scalen / scaled)
*
* ----------------------------------------------------------------------------
*/
bool
dbScalePlane(oldplane, newplane, pnum, scalen, scaled, doCIF)
Plane *oldplane, *newplane;
int pnum;
int scalen, scaled;
bool doCIF;
{
int dbTileScaleFunc(); /* forward declaration */
struct scaleArg arg;
arg.scalen = scalen;
arg.scaled = scaled;
arg.ptarget = newplane;
arg.pnum = pnum;
arg.doCIF = doCIF;
arg.modified = FALSE;
(void) DBSrPaintArea((Tile *) NULL, oldplane, &TiPlaneRect,
&DBAllButSpaceBits, dbTileScaleFunc, (ClientData) &arg);
return arg.modified;
}
/*
* ----------------------------------------------------------------------------
*
* dbTileScaleFunc --
*
* Scaling procedure called on each tile being copied from one plane to
* another. Scaling ratio (scalen / scaled) is stored inside the struct
* scaleArg before calling.
*
* ----------------------------------------------------------------------------
*/
int
dbTileScaleFunc(tile, scvals)
Tile *tile;
struct scaleArg *scvals;
{
TileType type;
Rect targetRect;
TileType exact;
TiToRect(tile, &targetRect);
if (DBScalePoint(&targetRect.r_ll, scvals->scalen, scvals->scaled))
scvals->modified = TRUE;
if (DBScalePoint(&targetRect.r_ur, scvals->scalen, scvals->scaled))
scvals->modified = TRUE;
/* Tile scaled out of existence! */
if ((targetRect.r_xtop - targetRect.r_xbot == 0) ||
(targetRect.r_ytop - targetRect.r_ybot == 0))
{
TxPrintf("Tile 0x%x at (%d, %d) has zero area after scaling: Removed.\n",
tile, targetRect.r_xbot, targetRect.r_ybot);
return 0;
}
type = TiGetTypeExact(tile);
exact = type;
if (IsSplit(tile))
type = (SplitSide(tile)) ? SplitRightType(tile) : SplitLeftType(tile);
DBNMPaintPlane(scvals->ptarget, exact, &targetRect,
((scvals->doCIF) ? CIFPaintTable :
DBStdPaintTbl(type, scvals->pnum)),
(PaintUndoInfo *)NULL);
return 0;
}
/*
* ----------------------------------------------------------------------------
*
* dbMovePlane --
*
* Relocation procedure called on a single plane. Copies paint into the
* new plane at a delta position (-origx, -origy)
*
* ----------------------------------------------------------------------------
*/
bool
dbMovePlane(oldplane, newplane, pnum, origx, origy)
Plane *oldplane, *newplane;
int pnum;
int origx, origy;
{
int dbTileMoveFunc(); /* forward declaration */
struct moveArg arg;
arg.origx = origx;
arg.origy = origy;
arg.ptarget = newplane;
arg.pnum = pnum;
arg.modified = FALSE;
(void) DBSrPaintArea((Tile *) NULL, oldplane, &TiPlaneRect,
&DBAllButSpaceBits, dbTileMoveFunc, (ClientData) &arg);
return arg.modified;
}
/*
* ----------------------------------------------------------------------------
*
* dbTileMoveFunc --
*
* Repositioning procedure called on each tile being copied from one plane
* to another. Delta position (-origx, -origy) is stored inside the struct
* moveArg before calling.
*
* ----------------------------------------------------------------------------
*/
int
dbTileMoveFunc(tile, mvvals)
Tile *tile;
struct moveArg *mvvals;
{
TileType type;
Rect targetRect;
TileType exact;
TiToRect(tile, &targetRect);
mvvals->modified = TRUE;
DBMovePoint(&targetRect.r_ll, mvvals->origx, mvvals->origy);
DBMovePoint(&targetRect.r_ur, mvvals->origx, mvvals->origy);
type = TiGetTypeExact(tile);
exact = type;
if (IsSplit(tile))
type = (SplitSide(tile)) ? SplitRightType(tile) : SplitLeftType(tile);
DBNMPaintPlane(mvvals->ptarget, exact, &targetRect,
DBStdPaintTbl(type, mvvals->pnum),
(PaintUndoInfo *)NULL);
return 0;
}
/*
* ----------------------------------------------------------------------------
*
* DBSrCellUses --
*
* Do function "func" for each cell use in cellDef, passing "arg" as
* client data. This routine first collects a linked list of cell uses,
* then performs the function on the list, so that the search cannot be
* corrupted by (specifically) removing the use structure from the cell
* def's bplane. Function "func" takes 2 arguments:
*
* int func(Celluse *use, ClientData arg) {}
*
* Results:
* 0 one successful completion of the search, 1 on error.
*
* Side Effects:
* Whatever "func" does.
*
* ----------------------------------------------------------------------------
*/
int
DBSrCellUses(cellDef, func, arg)
CellDef *cellDef; /* Pointer to CellDef to search for uses. */
int (*func)(); /* Function to apply for each cell use. */
ClientData arg; /* data to be passed to function func(). */
{
int dbCellUseEnumFunc();
int retval;
CellUse *use;
LinkedCellUse *luhead, *lu;
/* DBCellEnum() attempts to read unavailable celldefs. We don't */
/* want to do that here, so check CDAVAILABLE flag first. */
if ((cellDef->cd_flags & CDAVAILABLE) == 0) return 0;
/* Enumerate all unique cell uses, and scale their position, */
/* transform, and array information. */
luhead = NULL;
retval = DBCellEnum(cellDef, dbCellUseEnumFunc, (ClientData) &luhead);
lu = luhead;
while (lu != NULL)
{
use = lu->cellUse;
if ((*func)(use, arg)) {
retval = 1;
break;
}
lu = lu->cu_next;
}
/* Free this linked cellUse structure */
lu = luhead;
while (lu != NULL)
{
freeMagic((char *)lu);
lu = lu->cu_next;
}
return retval;
}
/*
* ----------------------------------------------------------------------------
*
* dbScaleCell --
*
* Scaling procedure called on each cell encountered in the search.
*
* ----------------------------------------------------------------------------
*/
int
dbScaleCell(cellDef, scalen, scaled)
CellDef *cellDef; /* Pointer to CellDef to be saved. This def might
* be an internal buffer; if so, we ignore it.
*/
int scalen, scaled; /* scale numerator and denominator. */
{
int dbCellScaleFunc(), dbCellUseEnumFunc();
Label *lab;
int pNum;
LinkedTile *lhead, *lt;
LinkedCellUse *luhead, *lu;
Plane *newplane;
BPlane *cellPlane, *cellPlaneOrig;
/* DBCellEnum() attempts to read unavailable celldefs. We don't */
/* want to do that here, so check CDAVAILABLE flag first. */
if ((cellDef->cd_flags & CDAVAILABLE) == 0)
goto donecell;
else
cellDef->cd_flags |= CDBOXESCHANGED;
/* Enumerate all unique cell uses, and scale their position, */
/* transform, and array information. */
luhead = NULL;
(void) DBCellEnum(cellDef, dbCellUseEnumFunc, (ClientData) &luhead);
cellPlane = BPNew();
lu = luhead;
while (lu != NULL)
{
CellUse *use;
Rect *bbox;
use = lu->cellUse;
bbox = &use->cu_bbox;
/* TxPrintf("CellUse: BBox is ll (%d, %d), transform [%d %d %d %d %d %d]\n",
bbox->r_xbot, bbox->r_ybot,
use->cu_transform.t_a, use->cu_transform.t_b, use->cu_transform.t_c,
use->cu_transform.t_d, use->cu_transform.t_e, use->cu_transform.t_f); */
DBScalePoint(&bbox->r_ll, scalen, scaled);
DBScalePoint(&bbox->r_ur, scalen, scaled);
bbox = &use->cu_extended;
DBScalePoint(&bbox->r_ll, scalen, scaled);
DBScalePoint(&bbox->r_ur, scalen, scaled);
DBScaleValue(&use->cu_transform.t_c, scalen, scaled);
DBScaleValue(&use->cu_transform.t_f, scalen, scaled);
DBScaleValue(&use->cu_array.ar_xsep, scalen, scaled);
DBScaleValue(&use->cu_array.ar_ysep, scalen, scaled);
BPAdd(cellPlane, use);
lu = lu->cu_next;
}
/* Swap the CellDef's cell plane */
cellPlaneOrig = cellDef->cd_cellPlane;
cellDef->cd_cellPlane = cellPlane;
BPFree(cellPlaneOrig);
/* Free this linked cellUse structure */
lu = luhead;
while (lu != NULL)
{
freeMagic((char *)lu);
lu = lu->cu_next;
}
/* Scale all of the paint tiles in this cell by creating a new plane */
/* and copying all tiles into the new plane at scaled dimensions. */
for (pNum = PL_PAINTBASE; pNum < DBNumPlanes; pNum++)
{
if (cellDef->cd_planes[pNum] == NULL) continue;
newplane = DBNewPlane((ClientData) TT_SPACE);
DBClearPaintPlane(newplane);
if (dbScalePlane(cellDef->cd_planes[pNum], newplane, pNum,
scalen, scaled, FALSE))
cellDef->cd_flags |= (CDMODIFIED | CDGETNEWSTAMP);
DBFreePaintPlane(cellDef->cd_planes[pNum]);
TiFreePlane(cellDef->cd_planes[pNum]);
cellDef->cd_planes[pNum] = newplane;
}
/* Also scale the position of all labels. */
/* If labels are the rendered-font type, scale the size as well */
if (cellDef->cd_labels)
{
int i;
for (lab = cellDef->cd_labels; lab; lab = lab->lab_next)
{
DBScalePoint(&lab->lab_rect.r_ll, scalen, scaled);
DBScalePoint(&lab->lab_rect.r_ur, scalen, scaled);
if (lab->lab_font >= 0)
{
DBScalePoint(&lab->lab_offset, scalen, scaled);
DBScaleValue(&lab->lab_size, scalen, scaled);
DBScalePoint(&lab->lab_bbox.r_ll, scalen, scaled);
DBScalePoint(&lab->lab_bbox.r_ur, scalen, scaled);
for (i = 0; i < 4; i++)
DBScalePoint(&lab->lab_corners[i], scalen, scaled);
}
}
}
donecell:
/* The cellDef bounding box gets expanded to match the new scale. */
DBScalePoint(&cellDef->cd_bbox.r_ll, scalen, scaled);
DBScalePoint(&cellDef->cd_bbox.r_ur, scalen, scaled);
DBScalePoint(&cellDef->cd_extended.r_ll, scalen, scaled);
DBScalePoint(&cellDef->cd_extended.r_ur, scalen, scaled);
/* If the cell is an abstract view with a fixed bounding box, then */
/* adjust the bounding box property to match the new scale. */
if ((cellDef->cd_flags & CDFIXEDBBOX) != 0)
{
Rect r;
bool found;
char *propval;
propval = (char *)DBPropGet(cellDef, "FIXED_BBOX", &found);
if (found)
{
if (sscanf(propval, "%d %d %d %d", &r.r_xbot, &r.r_ybot,
&r.r_xtop, &r.r_ytop) == 4)
{
DBScalePoint(&r.r_ll, scalen, scaled);
DBScalePoint(&r.r_ur, scalen, scaled);
propval = (char *)mallocMagic(40);
sprintf(propval, "%d %d %d %d", r.r_xbot, r.r_ybot,
r.r_xtop, r.r_ytop);
DBPropPut(cellDef, "FIXED_BBOX", propval);
}
}
}
return 0;
}
/*
* ----------------------------------------------------------------------------
*
* dbCellDefEnumFunc --
*
* Enumeration procedure called on each CellDef encountered in the search of
* cells in the hierarchy. Adds the CellDef to a linked list of celldefs.
*
* ----------------------------------------------------------------------------
*/
int
dbCellDefEnumFunc(cellDef, arg)
CellDef *cellDef;
LinkedCellDef **arg;
{
LinkedCellDef *lcd;
lcd = (LinkedCellDef *) mallocMagic(sizeof(LinkedCellDef));
lcd->cellDef = cellDef;
lcd->cd_next = (*arg);
(*arg) = lcd;
return 0;
}
/*
* ----------------------------------------------------------------------------
*
* dbCellUseEnumFunc --
*
* Enumeration procedure called on each CellDef encountered in the search of
* cells in the hierarchy. Adds the CellDef to a linked list of celldefs.
*
* ----------------------------------------------------------------------------
*/
int
dbCellUseEnumFunc(cellUse, arg)
CellUse *cellUse;
LinkedCellUse **arg;
{
LinkedCellUse *lcu;
lcu = (LinkedCellUse *) mallocMagic(sizeof(LinkedCellUse));
lcu->cellUse = cellUse;
lcu->cu_next = (*arg);
(*arg) = lcu;
return 0;
}
/*
* ----------------------------------------------------------------------------
*
* DBMoveCell --
*
* Reposition a cell to a different origin. This routine is equivalent to
* unexpanding all contents of a cell, selecting everything, and issuing a
* move command. However, for very large layouts this becomes memory- and
* compute- intensive. The process of reorienting an entire layout to a
* new position can be done much more efficiently. This routine is
* essentially a copy of dbScaleCell() but changes only position and not
* scale.
*
* ----------------------------------------------------------------------------
*/
int
DBMoveCell(cellDef, origx, origy)
CellDef *cellDef; /* Pointer to CellDef to be saved. This def might
* be an internal buffer; if so, we ignore it.
*/
int origx, origy; /* Internal unit coordinates which will become the new origin */
{
int dbCellTileEnumFunc(), dbCellUseEnumFunc();
Label *lab;
int pNum;
LinkedTile *lhead, *lt;
LinkedCellUse *luhead, *lu;
Plane *newplane;
BPlane *cellPlane, *cellPlaneOrig;
/* Unlike dbScaleCell(), this routine is only run on valid edit defs */
cellDef->cd_flags |= CDBOXESCHANGED;
/* Enumerate all unique cell uses, and move their position in the */
/* bounding box and transform. */
luhead = NULL;
(void) DBCellEnum(cellDef, dbCellUseEnumFunc, (ClientData) &luhead);
cellPlane = BPNew();
lu = luhead;
while (lu != NULL)
{
CellUse *use;
Rect *bbox;
use = lu->cellUse;
bbox = &use->cu_bbox;
/* TxPrintf("CellUse: BBox is ll (%d, %d), transform [%d %d %d %d %d %d]\n",
bbox->r_xbot, bbox->r_ybot,
use->cu_transform.t_a, use->cu_transform.t_b, use->cu_transform.t_c,
use->cu_transform.t_d, use->cu_transform.t_e, use->cu_transform.t_f); */
DBMovePoint(&bbox->r_ll, origx, origy);
DBMovePoint(&bbox->r_ur, origx, origy);
bbox = &use->cu_extended;
DBMovePoint(&bbox->r_ll, origx, origy);
DBMovePoint(&bbox->r_ur, origx, origy);
use->cu_transform.t_c -= origx;
use->cu_transform.t_f -= origy;
BPAdd(cellPlane, use);
lu = lu->cu_next;
}
/* Swap the CellDef's cell plane */
cellPlaneOrig = cellDef->cd_cellPlane;
cellDef->cd_cellPlane = cellPlane;
BPFree(cellPlaneOrig);
/* Free this linked cellUse structure */
lu = luhead;
while (lu != NULL)
{
freeMagic((char *)lu);
lu = lu->cu_next;
}
/* Move all of the paint tiles in this cell by creating a new plane */
/* and copying all tiles into the new plane at the new position. */
for (pNum = PL_PAINTBASE; pNum < DBNumPlanes; pNum++)
{
if (cellDef->cd_planes[pNum] == NULL) continue;
newplane = DBNewPlane((ClientData) TT_SPACE);
DBClearPaintPlane(newplane);
if (dbMovePlane(cellDef->cd_planes[pNum], newplane, pNum,
origx, origy, FALSE))
cellDef->cd_flags |= (CDMODIFIED | CDGETNEWSTAMP);
DBFreePaintPlane(cellDef->cd_planes[pNum]);
TiFreePlane(cellDef->cd_planes[pNum]);
cellDef->cd_planes[pNum] = newplane;
}
/* Also move the position of all labels. */
if (cellDef->cd_labels)
{
for (lab = cellDef->cd_labels; lab; lab = lab->lab_next)
{
DBMovePoint(&lab->lab_rect.r_ll, origx, origy);
DBMovePoint(&lab->lab_rect.r_ur, origx, origy);
if (lab->lab_font >= 0)
{
DBMovePoint(&lab->lab_bbox.r_ll, origx, origy);
DBMovePoint(&lab->lab_bbox.r_ur, origx, origy);
}
}
}
donecell:
/* The cellDef bounding box gets moved to match the new position. */
DBMovePoint(&cellDef->cd_bbox.r_ll, origx, origy);
DBMovePoint(&cellDef->cd_bbox.r_ur, origx, origy);
DBMovePoint(&cellDef->cd_extended.r_ll, origx, origy);
DBMovePoint(&cellDef->cd_extended.r_ur, origx, origy);
/* If the cell is an abstract view with a fixed bounding box, then */
/* adjust the bounding box property to match the new scale. */
if ((cellDef->cd_flags & CDFIXEDBBOX) != 0)
{
Rect r;
bool found;
char *propval;
propval = (char *)DBPropGet(cellDef, "FIXED_BBOX", &found);
if (found)
{
if (sscanf(propval, "%d %d %d %d", &r.r_xbot, &r.r_ybot,
&r.r_xtop, &r.r_ytop) == 4)
{
DBMovePoint(&r.r_ll, origx, origy);
DBMovePoint(&r.r_ur, origx, origy);
propval = (char *)mallocMagic(40);
sprintf(propval, "%d %d %d %d", r.r_xbot, r.r_ybot,
r.r_xtop, r.r_ytop);
DBPropPut(cellDef, "FIXED_BBOX", propval);
}
}
}
return 0;
}
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