xenocara/app/xkbcomp/compat.c

/* $Xorg: compat.c,v 1.3 2000/08/17 19:54:30 cpqbld Exp $ */
/************************************************************
 Copyright (c) 1994 by Silicon Graphics Computer Systems, Inc.

 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 and that both that copyright
 notice and this permission notice appear in supporting
 documentation, and that the name of Silicon Graphics not be 
 used in advertising or publicity pertaining to distribution 
 of the software without specific prior written permission.
 Silicon Graphics makes no representation about the suitability 
 of this software for any purpose. It is provided "as is"
 without any express or implied warranty.
 
 SILICON GRAPHICS DISCLAIMS ALL WARRANTIES WITH REGARD TO THIS 
 SOFTWARE, INCLUDING ALL IMPLIED WARRANTIES OF MERCHANTABILITY 
 AND FITNESS FOR A PARTICULAR PURPOSE. IN NO EVENT SHALL SILICON
 GRAPHICS BE LIABLE FOR ANY SPECIAL, INDIRECT OR CONSEQUENTIAL 
 DAMAGES OR ANY DAMAGES WHATSOEVER RESULTING FROM LOSS OF USE, 
 DATA OR PROFITS, WHETHER IN AN ACTION OF CONTRACT, NEGLIGENCE 
 OR OTHER TORTIOUS ACTION, ARISING OUT OF OR IN CONNECTION  WITH
 THE USE OR PERFORMANCE OF THIS SOFTWARE.

 ********************************************************/
/* $XFree86: xc/programs/xkbcomp/compat.c,v 3.3 2001/01/17 23:45:43 dawes Exp $ */

#include <X11/Xos.h>
#include "xkbcomp.h"
#include "tokens.h"
#include "expr.h"
#include "vmod.h"
#include "misc.h"
#include "indicators.h"
#include "action.h"

typedef struct _SymInterpInfo {
    CommonInfo		defs;
    XkbSymInterpretRec	interp;
} SymInterpInfo;

#define	_SI_VirtualMod		(1<<0)
#define	_SI_Action		(1<<1)
#define	_SI_AutoRepeat		(1<<2)
#define	_SI_LockingKey		(1<<3)
#define	_SI_LevelOneOnly	(1<<4)

typedef struct _GroupCompatInfo {
    unsigned char	fileID;
    unsigned char	merge;
    unsigned char	real_mods;
    unsigned short	vmods;
} GroupCompatInfo;

typedef struct _CompatInfo {
    char *		name;
    unsigned 		fileID;
    int			errorCount;
    int			nInterps;
    SymInterpInfo *	interps;
    SymInterpInfo 	dflt;
    LEDInfo		ledDflt;
    GroupCompatInfo	groupCompat[XkbNumKbdGroups];
    LEDInfo *		leds;
    VModInfo		vmods;
    ActionInfo *	act;
    XkbDescPtr		xkb;
} CompatInfo;

/***====================================================================***/

#define	ReportSINotArray(si,f,i) \
	ReportNotArray("symbol interpretation",(f),siText((si),(i)))
#define	ReportSIBadType(si,f,w,i) \
	ReportBadType("symbol interpretation",(f),siText((si),(i)),(w))

/***====================================================================***/

static char *
siText(SymInterpInfo *	si,CompatInfo *	info)
{
static char buf[128];

    if (si==&info->dflt) {
	sprintf(buf,"default");
    }
    else {
	sprintf(buf,"%s+%s(%s)",XkbKeysymText(si->interp.sym,XkbMessage),
				XkbSIMatchText(si->interp.match,XkbMessage),
				XkbModMaskText(si->interp.mods,XkbMessage));
    }
    return buf;
}

static void
InitCompatInfo(CompatInfo *info,XkbDescPtr xkb)
{
register int i;

    info->xkb= xkb;
    info->name= NULL;
    info->fileID= 0;
    info->errorCount= 0;
    info->nInterps= 0;
    info->interps= NULL;
    info->act= NULL;
    info->dflt.defs.fileID= info->fileID;
    info->dflt.defs.defined= 0;
    info->dflt.defs.merge= MergeOverride;
    info->dflt.interp.flags=	0;
    info->dflt.interp.virtual_mod= XkbNoModifier;
    info->dflt.interp.act.type= XkbSA_NoAction;
    for (i=0;i<XkbAnyActionDataSize;i++) {
	info->dflt.interp.act.data[i]= 0;
    }
    ClearIndicatorMapInfo(xkb->dpy,&info->ledDflt);
    info->ledDflt.defs.fileID= info->fileID;
    info->ledDflt.defs.defined= 0;
    info->ledDflt.defs.merge= MergeOverride;
    bzero((char *)&info->groupCompat[0],XkbNumKbdGroups*sizeof(GroupCompatInfo));
    info->leds= NULL;
    InitVModInfo(&info->vmods,xkb);
    return;
}

static void
ClearCompatInfo(CompatInfo *info,XkbDescPtr xkb)
{
register int i;

    if (info->name!=NULL)
	uFree(info->name);
    info->name= NULL;
    info->dflt.defs.defined= 0;
    info->dflt.defs.merge= MergeAugment;
    info->dflt.interp.flags= 0;
    info->dflt.interp.virtual_mod= XkbNoModifier;
    info->dflt.interp.act.type= XkbSA_NoAction;
    for (i=0;i<XkbAnyActionDataSize;i++) {
	info->dflt.interp.act.data[i]= 0;
    }
    ClearIndicatorMapInfo(xkb->dpy,&info->ledDflt);
    info->nInterps= 0;
    info->interps= (SymInterpInfo *)ClearCommonInfo(&info->interps->defs);
    bzero((char *)&info->groupCompat[0],XkbNumKbdGroups*sizeof(GroupCompatInfo));
    info->leds= (LEDInfo *)ClearCommonInfo(&info->leds->defs);
    /* 3/30/94 (ef) -- XXX! Should free action info here */
    ClearVModInfo(&info->vmods,xkb);
    return;
}

static SymInterpInfo *
NextInterp(CompatInfo *info)
{
SymInterpInfo *	si;

    si= uTypedAlloc(SymInterpInfo);
    if (si) {
	bzero((char *)si,sizeof(SymInterpInfo));
	info->interps= (SymInterpInfo *)AddCommonInfo(&info->interps->defs,
							(CommonInfo *)si);
	info->nInterps++;
    }
    return si;
}

static SymInterpInfo *
FindMatchingInterp(CompatInfo *info,SymInterpInfo *new)
{
SymInterpInfo *	old;

    for (old= info->interps;old!=NULL;old=(SymInterpInfo *)old->defs.next) {
	if ((old->interp.sym==new->interp.sym)&&
				(old->interp.mods==new->interp.mods)&&
				(old->interp.match==new->interp.match)) {
	    return  old;
	}
    }
    return NULL;
}

static Bool
AddInterp(CompatInfo *info,SymInterpInfo *new)
{
unsigned		collide;
SymInterpInfo	*	old;

    collide= 0;
    old= FindMatchingInterp(info,new);
    if (old!=NULL) {
	if (new->defs.merge==MergeReplace) {
	    SymInterpInfo *next= (SymInterpInfo *)old->defs.next;
	    if (((old->defs.fileID==new->defs.fileID)&&(warningLevel>0))||
		    					(warningLevel>9)) {
		WARN1("Multiple definitions for \"%s\"\n",siText(new,info));
		ACTION("Earlier interpretation ignored\n");
	    }
	    *old= *new;
	    old->defs.next= &next->defs;
	    return True;
	}
	if (UseNewField(_SI_VirtualMod,&old->defs,&new->defs,&collide)) {
	    old->interp.virtual_mod= new->interp.virtual_mod;
	    old->defs.defined|= _SI_VirtualMod;
	}
	if (UseNewField(_SI_Action,&old->defs,&new->defs,&collide)) {
	    old->interp.act= new->interp.act;
	    old->defs.defined|= _SI_Action;
	}
	if (UseNewField(_SI_AutoRepeat,&old->defs,&new->defs,&collide)) {
	    old->interp.flags&= ~XkbSI_AutoRepeat;
	    old->interp.flags|= (new->interp.flags&XkbSI_AutoRepeat);
	    old->defs.defined|= _SI_AutoRepeat;
	}
	if (UseNewField(_SI_LockingKey,&old->defs,&new->defs,&collide)) {
	    old->interp.flags&= ~XkbSI_LockingKey;
	    old->interp.flags|= (new->interp.flags&XkbSI_LockingKey);
	    old->defs.defined|= _SI_LockingKey;
	}
	if (UseNewField(_SI_LevelOneOnly,&old->defs,&new->defs,&collide)) {
	    old->interp.match&= ~XkbSI_LevelOneOnly;
	    old->interp.match|= (new->interp.match&XkbSI_LevelOneOnly);
	    old->defs.defined|= _SI_LevelOneOnly;
	}
	if (collide) {
	    WARN1("Multiple interpretations of \"%s\"\n",siText(new,info));
	    ACTION1("Using %s definition for duplicate fields\n",
				(new->defs.merge!=MergeAugment?"last":"first"));
	}
	return True;
    }
    old= new;
    if ((new= NextInterp(info))==NULL)
	return False;
    *new= *old;
    new->defs.next= NULL;
    return True;
}

static Bool
AddGroupCompat(CompatInfo *info,unsigned group,GroupCompatInfo *newGC)
{
GroupCompatInfo *	gc;
unsigned		merge;

    merge= newGC->merge;
    gc= &info->groupCompat[group];
    if ((newGC->fileID<0)||
	((gc->real_mods==newGC->real_mods)&&(gc->vmods==newGC->vmods))) {
	return True;
    }
    if (((gc->fileID==newGC->fileID)&&(warningLevel>0))||(warningLevel>9)) {
	WARN1("Compat map for group %d redefined\n",group+1);
	ACTION1("Using %s definition\n",(merge==MergeAugment?"old":"new"));
    }
    if (merge!=MergeAugment)
	*gc= *newGC;
    return True;
}

/***====================================================================***/

static Bool
ResolveStateAndPredicate(	ExprDef *	expr,
				unsigned *	pred_rtrn,
				unsigned *	mods_rtrn,
				CompatInfo *	info)
{
ExprResult	result;

    if (expr==NULL) {
	*pred_rtrn= XkbSI_AnyOfOrNone;
	*mods_rtrn= ~0;
	return True;
    }

    *pred_rtrn= XkbSI_Exactly;
    if (expr->op==ExprActionDecl) {
	char *pred_txt= XkbAtomText(NULL,expr->value.action.name,XkbMessage);
	if (uStrCaseCmp(pred_txt,"noneof")==0)
	     *pred_rtrn= XkbSI_NoneOf;
	else if (uStrCaseCmp(pred_txt,"anyofornone")==0)
	     *pred_rtrn= XkbSI_AnyOfOrNone;
	else if (uStrCaseCmp(pred_txt,"anyof")==0)
	     *pred_rtrn= XkbSI_AnyOf;
	else if (uStrCaseCmp(pred_txt,"allof")==0)
	     *pred_rtrn= XkbSI_AllOf;
	else if (uStrCaseCmp(pred_txt,"exactly")==0)
	     *pred_rtrn= XkbSI_Exactly;
	else {
	     ERROR1("Illegal modifier predicate \"%s\"\n",pred_txt);
	     ACTION("Ignored\n");
	     return False;
	}
	expr= expr->value.action.args;
    }
    else if (expr->op==ExprIdent) {
	char *pred_txt= XkbAtomText(NULL,expr->value.str,XkbMessage);
	if ((pred_txt)&&(uStrCaseCmp(pred_txt,"any")==0)) {
	    *pred_rtrn= XkbSI_AnyOf;
	    *mods_rtrn= 0xff;
	    return True;
	}
    }

    if (ExprResolveModMask(expr,&result,NULL,NULL)) {
	*mods_rtrn= result.uval;
	return True;
    }
    return False;
}

/***====================================================================***/

static void
MergeIncludedCompatMaps(	CompatInfo *	into,
				CompatInfo *	from,
				unsigned	merge)
{
SymInterpInfo * 	si;
LEDInfo *		led,*rtrn,*next;
GroupCompatInfo *	gcm;
register int		i;

    if (from->errorCount>0) {
	into->errorCount+= from->errorCount;
	return;
    }
    if (into->name==NULL) {
	into->name= from->name;
	from->name= NULL;
    }
    for (si=from->interps;si;si=(SymInterpInfo *)si->defs.next) {
	if (merge!=MergeDefault)
	    si->defs.merge= merge;
	if (!AddInterp(into,si))
	    into->errorCount++;
    }
    for (i=0,gcm=&from->groupCompat[0];i<XkbNumKbdGroups;i++,gcm++) {
	if (merge!=MergeDefault)
	    gcm->merge= merge;
	if (!AddGroupCompat(into,i,gcm))
	    into->errorCount++;
    }
    for (led=from->leds;led!=NULL;led=next) {
	next= (LEDInfo *)led->defs.next;
	if (merge!=MergeDefault)
	    led->defs.merge= merge;
	rtrn= AddIndicatorMap(into->leds,led);
	if (rtrn!=NULL) 
	     into->leds= rtrn;
	else into->errorCount++;
    }
    return;
}

typedef void	(*FileHandler)(
	XkbFile *	/* rtrn */,
	XkbDescPtr	/* xkb */,
	unsigned	/* merge */,
	CompatInfo *	/* info */
);

static Bool
HandleIncludeCompatMap(	IncludeStmt *	  stmt,
			XkbDescPtr	  xkb,
			CompatInfo *	  info,
			FileHandler	  hndlr)
{
unsigned 	newMerge;
XkbFile	*	rtrn;
CompatInfo	included;
Bool		haveSelf;

    haveSelf= False;
    if ((stmt->file==NULL)&&(stmt->map==NULL)) {
	haveSelf= True;
	included= *info;
	bzero(info,sizeof(CompatInfo));
    }
    else if (ProcessIncludeFile(stmt,XkmCompatMapIndex,&rtrn,&newMerge)) {
	InitCompatInfo(&included,xkb);
	included.fileID= rtrn->id;
	included.dflt= info->dflt;
	included.dflt.defs.fileID= rtrn->id;
	included.dflt.defs.merge= newMerge;
	included.ledDflt.defs.fileID= rtrn->id;
	included.ledDflt.defs.merge= newMerge;
	included.act= info->act;
	(*hndlr)(rtrn,xkb,MergeOverride,&included);
	if (stmt->stmt!=NULL) {
	    if (included.name!=NULL)
		uFree(included.name);
	    included.name= stmt->stmt;
	    stmt->stmt= NULL;
	}
    }
    else {
	info->errorCount+= 10;
	return False;
    }
    if ((stmt->next!=NULL)&&(included.errorCount<1)) {
	IncludeStmt *	next;
	unsigned	op;
	CompatInfo	next_incl;

	for (next=stmt->next;next!=NULL;next=next->next) {
	    if ((next->file==NULL)&&(next->map==NULL)) {
		haveSelf= True;
		MergeIncludedCompatMaps(&included,info,next->merge);
		ClearCompatInfo(info,xkb);
	    }
	    else if (ProcessIncludeFile(next,XkmCompatMapIndex,&rtrn,&op)) {
		InitCompatInfo(&next_incl,xkb);
		next_incl.fileID= rtrn->id;
		next_incl.dflt= info->dflt;
		next_incl.dflt.defs.fileID= rtrn->id;
		next_incl.dflt.defs.merge= op;
		next_incl.ledDflt.defs.fileID= rtrn->id;
		next_incl.ledDflt.defs.merge= op;
		next_incl.act= info->act;
		(*hndlr)(rtrn,xkb,MergeOverride,&next_incl);
		MergeIncludedCompatMaps(&included,&next_incl,op);
		ClearCompatInfo(&next_incl,xkb);
	    }
	    else {
		info->errorCount+= 10;
		return False;
	    }
	}
    }
    if (haveSelf)
	*info= included;
    else {
	MergeIncludedCompatMaps(info,&included,newMerge);
	ClearCompatInfo(&included,xkb);
    }
    return (info->errorCount==0);
}

static LookupEntry useModMapValues[] = {
	{	"levelone",	1	},
	{	"level1",	1	},
	{	"anylevel",	0	},
	{	"any",		0	},
	{	NULL,		0	}
};

static int
SetInterpField(	SymInterpInfo *	si,
		XkbDescPtr	xkb,
		char *		field,
		ExprDef *	arrayNdx,
		ExprDef *	value,
		CompatInfo *	info)
{
int 		ok= 1;
ExprResult	tmp;

    if (uStrCaseCmp(field,"action")==0) {
	if (arrayNdx!=NULL)
	    return ReportSINotArray(si,field,info);
	ok= HandleActionDef(value,xkb,&si->interp.act,si->defs.merge,info->act);
	if (ok) 
	     si->defs.defined|= _SI_Action;
    }
    else if ((uStrCaseCmp(field,"virtualmodifier")==0)||
	     (uStrCaseCmp(field,"virtualmod")==0)) {
	if (arrayNdx!=NULL)
	    return ReportSINotArray(si,field,info);
	ok= ResolveVirtualModifier(value,&tmp,&info->vmods);
	if (ok) {
	    si->interp.virtual_mod= tmp.uval;
	    si->defs.defined|= _SI_VirtualMod;
	}
	else return ReportSIBadType(si,field,"virtual modifier",info);
    }
    else if (uStrCaseCmp(field,"repeat")==0) {
	if (arrayNdx!=NULL)
	    return ReportSINotArray(si,field,info);
	ok= ExprResolveBoolean(value,&tmp,NULL,NULL);
	if (ok) {
	    if (tmp.uval)	si->interp.flags|= XkbSI_AutoRepeat;
	    else		si->interp.flags&= ~XkbSI_AutoRepeat;
	    si->defs.defined|= _SI_AutoRepeat;
	}
	else return ReportSIBadType(si,field,"boolean",info);
    }
    else if (uStrCaseCmp(field,"locking")==0) {
	if (arrayNdx!=NULL)
	    return ReportSINotArray(si,field,info);
	ok= ExprResolveBoolean(value,&tmp,NULL,NULL);
	if (ok) {
	    if (tmp.uval)	si->interp.flags|= XkbSI_LockingKey;
	    else		si->interp.flags&= ~XkbSI_LockingKey;
	    si->defs.defined|= _SI_LockingKey;
	}
	else return ReportSIBadType(si,field,"boolean",info);
    }
    else if ((uStrCaseCmp(field,"usemodmap")==0)||
	 	(uStrCaseCmp(field,"usemodmapmods")==0)) {
	if (arrayNdx!=NULL)
	    return ReportSINotArray(si,field,info);
	ok= ExprResolveEnum(value,&tmp,useModMapValues);
	if (ok) {
	    if (tmp.uval)	si->interp.match|= XkbSI_LevelOneOnly;
	    else		si->interp.match&= ~XkbSI_LevelOneOnly;
	    si->defs.defined|= _SI_LevelOneOnly;
	}
	else return ReportSIBadType(si,field,"level specification",info);
    }
    else {
	ok= ReportBadField("symbol interpretation",field,siText(si,info));
    }
    return ok;
}

LookupEntry groupNames[]= {
	{	"group1",	0x01	},
	{	"group2",	0x02	},
	{	"group3",	0x04	},
	{	"group4",	0x08	},
	{	"group5",	0x10	},
	{	"group6",	0x20	},
	{	"group7",	0x40	},
	{	"group8",	0x80	},
	{	"none",		0x00	},
	{	"all",		0xff	},
	{	NULL,		0	}
};

static int
HandleInterpVar(VarDef *stmt,XkbDescPtr xkb,CompatInfo *info)
{
ExprResult	elem,field;
ExprDef *	ndx;

    if (ExprResolveLhs(stmt->name,&elem,&field,&ndx)==0) 
	return 0; /* internal error, already reported */
    if (elem.str&&(uStrCaseCmp(elem.str,"interpret")==0))
	return SetInterpField(&info->dflt,xkb,field.str,ndx,stmt->value,info);	
    if (elem.str&&(uStrCaseCmp(elem.str,"indicator")==0)) {
	return SetIndicatorMapField(&info->ledDflt,xkb,field.str,ndx,
								stmt->value);
    }
    return SetActionField(xkb,elem.str,field.str,ndx,stmt->value,&info->act);
}

static int
HandleInterpBody(VarDef *def,XkbDescPtr xkb,SymInterpInfo *si,CompatInfo *info)
{
int		ok= 1;
ExprResult	tmp,field;
ExprDef *	arrayNdx;

    for (;def!=NULL;def= (VarDef *)def->common.next) {
	if ((def->name)&&(def->name->type==ExprFieldRef)) {
	    ok= HandleInterpVar(def,xkb,info);
	    continue;
	}
	ok= ExprResolveLhs(def->name,&tmp,&field,&arrayNdx);
	if (ok)
	    ok= SetInterpField(si,xkb,field.str,arrayNdx,def->value,info);
    }
    return ok;
}

static int
HandleInterpDef(InterpDef *def,XkbDescPtr xkb,unsigned merge,CompatInfo *info)
{
unsigned		pred,mods;
SymInterpInfo		si;
 
    if (!ResolveStateAndPredicate(def->match,&pred,&mods,info)) {
	ERROR("Couldn't determine matching modifiers\n");
	ACTION("Symbol interpretation ignored\n");
	return False;
    }
    if (def->merge!=MergeDefault)
	merge= def->merge;

    si= info->dflt;
    si.defs.merge= merge;
    si.interp.sym= def->sym;
    si.interp.match= pred & XkbSI_OpMask;
    si.interp.mods= mods;
    if (!HandleInterpBody(def->def,xkb,&si,info)) {
	info->errorCount++;
	return False;
    }

    if (!AddInterp(info,&si)) {
	info->errorCount++;
	return False;
    }
    return True;
}

static int
HandleGroupCompatDef(	GroupCompatDef *	def,
			XkbDescPtr		xkb,
			unsigned 		merge,
			CompatInfo *		info)
{
ExprResult	val;
GroupCompatInfo	tmp;

    if (def->merge!=MergeDefault)
	merge= def->merge;
    if (!XkbIsLegalGroup(def->group-1)) {
	ERROR1("Keyboard group must be in the range 1..%d\n",XkbNumKbdGroups+1);
	ACTION1("Compatibility map for illegal group %d ignored\n",def->group);
	return False;
    }
    tmp.fileID= info->fileID;
    tmp.merge= merge;
    if (!ExprResolveModMask(def->def,&val,LookupVModMask,(XPointer)xkb)) {
	ERROR("Expected a modifier mask in group compatibility definition\n");
	ACTION1("Ignoring illegal compatibility map for group %d\n",def->group);
	return False;
    }
    tmp.real_mods= val.uval&0xff;
    tmp.vmods= (val.uval>>8)&0xffff;
    return AddGroupCompat(info,def->group-1,&tmp);
}

static void
HandleCompatMapFile(	XkbFile	*	file,
			XkbDescPtr 	 xkb,
			unsigned	 merge,
			CompatInfo *	info)
{
ParseCommon	*stmt;

    if (merge==MergeDefault)
	merge= MergeAugment;
    info->name= uStringDup(file->name);
    stmt= file->defs;
    while (stmt) {
	switch (stmt->stmtType) {
	    case StmtInclude:
		if (!HandleIncludeCompatMap((IncludeStmt *)stmt,xkb,info,
						HandleCompatMapFile))
		    info->errorCount++;
		break;
	    case StmtInterpDef:
		if (!HandleInterpDef((InterpDef *)stmt,xkb,merge,info))
		    info->errorCount++;
		break;
	    case StmtGroupCompatDef:
		if (!HandleGroupCompatDef((GroupCompatDef*)stmt,xkb,merge,info))
		    info->errorCount++;
		break;
	    case StmtIndicatorMapDef:
		{
		    LEDInfo *rtrn;
		    rtrn= HandleIndicatorMapDef((IndicatorMapDef *)stmt,xkb,
						&info->ledDflt,info->leds,
						merge);
		    if (rtrn!=NULL)
		 	 info->leds= rtrn;
		    else info->errorCount++;
		}
		break;
	    case StmtVarDef:
		if (!HandleInterpVar((VarDef *)stmt,xkb,info))
		    info->errorCount++;
		break;
	    case StmtVModDef:
		if (!HandleVModDef((VModDef *)stmt,merge,&info->vmods))
		    info->errorCount++;
		break;
	    case StmtKeycodeDef:
		ERROR("Interpretation files may not include other types\n");
		ACTION("Ignoring definition of key name\n");
		info->errorCount++;
		break;
	    default:
		WSGO1("Unexpected statement type %d in HandleCompatMapFile\n",
								stmt->stmtType);
		break;
	}
	stmt= stmt->next;
	if (info->errorCount>10) {
#ifdef NOISY
	    ERROR("Too many errors\n");
#endif
	    ACTION1("Abandoning compatibility map \"%s\"\n",file->topName);
	    break;
	}
    }
    return;
}

static void
CopyInterps(	CompatInfo *	info,
		XkbCompatMapPtr	compat,
		Bool		needSymbol,
		unsigned	pred)
{
SymInterpInfo *		si;

    for (si=info->interps;si;si=(SymInterpInfo *)si->defs.next) {
	if (((si->interp.match&XkbSI_OpMask)!=pred)||
		(needSymbol&&(si->interp.sym==NoSymbol))||
		((!needSymbol)&&(si->interp.sym!=NoSymbol)))
	    continue;
	if (compat->num_si>=compat->size_si) {
	    WSGO("No room to merge symbol interpretations\n");
	    ACTION("Symbol interpretations lost\n");
	    return;
	}
	compat->sym_interpret[compat->num_si++]= si->interp;
    }
    return;
}

Bool
CompileCompatMap(	XkbFile *	file,
			XkbFileInfo *	result,
			unsigned	merge,
			LEDInfo **	unboundLEDs)
{
int			i;
CompatInfo		info;
XkbDescPtr		xkb;
GroupCompatInfo *	gcm;

    xkb= result->xkb;
    InitCompatInfo(&info,xkb);
    info.dflt.defs.merge= merge;
    info.ledDflt.defs.merge= merge;
    HandleCompatMapFile(file,xkb,merge,&info);

    if (info.errorCount==0) {
	int size;
	if (XkbAllocCompatMap(xkb,XkbAllCompatMask,info.nInterps)!=Success) {
	    WSGO("Couldn't allocate compatibility map\n");
	    ACTION("Exiting\n");
	    return False;
	}
	if (info.name!=NULL) {
	    if (XkbAllocNames(xkb,XkbCompatNameMask,0,0)==Success)
		xkb->names->compat= XkbInternAtom(xkb->dpy,info.name,False);
	    else {
		WSGO("Couldn't allocate space for compat name\n");
		ACTION2("Name \"%s\" (from %s) NOT assigned\n",scanFile,
								info.name);
	    }
	}
	size= info.nInterps*sizeof(XkbSymInterpretRec);
	if (size>0) {
	    CopyInterps(&info,xkb->compat,True,XkbSI_Exactly);
	    CopyInterps(&info,xkb->compat,True,XkbSI_AllOf|XkbSI_NoneOf);
	    CopyInterps(&info,xkb->compat,True,XkbSI_AnyOf);
	    CopyInterps(&info,xkb->compat,True,XkbSI_AnyOfOrNone);
	    CopyInterps(&info,xkb->compat,False,XkbSI_Exactly);
	    CopyInterps(&info,xkb->compat,False,XkbSI_AllOf|XkbSI_NoneOf);
	    CopyInterps(&info,xkb->compat,False,XkbSI_AnyOf);
	    CopyInterps(&info,xkb->compat,False,XkbSI_AnyOfOrNone);
	}
	for (i=0,gcm=&info.groupCompat[0];i<XkbNumKbdGroups;i++,gcm++) {
	    if ((gcm->fileID!=0)||(gcm->real_mods!=0)||(gcm->vmods!=0)) {
	 	xkb->compat->groups[i].mask= gcm->real_mods;
	 	xkb->compat->groups[i].real_mods= gcm->real_mods;
	 	xkb->compat->groups[i].vmods= gcm->vmods;
	    }
	}
	if (info.leds!=NULL) {
	    if (!CopyIndicatorMapDefs(result,info.leds,unboundLEDs))
		info.errorCount++;
	    info.leds= NULL;
	}
	ClearCompatInfo(&info,xkb);
	return True;
    }
    if (info.interps!=NULL)
	uFree(info.interps);
    return False;
}