https://github.com/mozilla/gecko-dev
Tip revision: ea0a9625d173303a3d92dbf71885dfdf1f2348ca authored by ffxbld on 16 November 2011, 17:18:12 UTC
Added tag FIREFOX_9_0b2_BUILD1 for changeset 8c38918f146d. CLOSED TREE a=release
Added tag FIREFOX_9_0b2_BUILD1 for changeset 8c38918f146d. CLOSED TREE a=release
Tip revision: ea0a962
msmap2tsv.c
/* -*- Mode: C; tab-width: 8; indent-tabs-mode: nil; c-basic-offset: 4 -*-
*
* ***** BEGIN LICENSE BLOCK *****
* Version: MPL 1.1/GPL 2.0/LGPL 2.1
*
* The contents of this file are subject to the Mozilla Public License Version
* 1.1 (the "License"); you may not use this file except in compliance with
* the License. You may obtain a copy of the License at
* http://www.mozilla.org/MPL/
*
* Software distributed under the License is distributed on an "AS IS" basis,
* WITHOUT WARRANTY OF ANY KIND, either express or implied. See the License
* for the specific language governing rights and limitations under the
* License.
*
* The Original Code is msmap2tsv.c code, released
* Oct 3, 2002.
*
* The Initial Developer of the Original Code is
* Netscape Communications Corporation.
* Portions created by the Initial Developer are Copyright (C) 2002
* the Initial Developer. All Rights Reserved.
*
* Contributor(s):
* Garrett Arch Blythe, 03-October-2002
*
* Alternatively, the contents of this file may be used under the terms of
* either the GNU General Public License Version 2 or later (the "GPL"), or
* the GNU Lesser General Public License Version 2.1 or later (the "LGPL"),
* in which case the provisions of the GPL or the LGPL are applicable instead
* of those above. If you wish to allow use of your version of this file only
* under the terms of either the GPL or the LGPL, and not to allow others to
* use your version of this file under the terms of the MPL, indicate your
* decision by deleting the provisions above and replace them with the notice
* and other provisions required by the GPL or the LGPL. If you do not delete
* the provisions above, a recipient may use your version of this file under
* the terms of any one of the MPL, the GPL or the LGPL.
*
* ***** END LICENSE BLOCK ***** */
#include <stdio.h>
#include <stdlib.h>
#include <string.h>
#include <time.h>
#include <ctype.h>
#include "msmap.h"
#if defined(_WIN32)
#include <windows.h>
#include <imagehlp.h>
#define F_DEMANGLE 1
#define DEMANGLE_STATE_NORMAL 0
#define DEMANGLE_STATE_QDECODE 1
#define DEMANGLE_STATE_PROLOGUE_1 2
#define DEMANGLE_STATE_HAVE_TYPE 3
#define DEMANGLE_STATE_DEC_LENGTH 4
#define DEMANGLE_STATE_HEX_LENGTH 5
#define DEMANGLE_STATE_PROLOGUE_SECONDARY 6
#define DEMANGLE_STATE_DOLLAR_1 7
#define DEMANGLE_STATE_DOLLAR_2 8
#define DEMANGLE_STATE_START 9
#define DEMANGLE_STATE_STOP 10
#define DEMANGLE_SAFE_CHAR(eval) (isprint(eval) ? eval : ' ')
#else
#define F_DEMANGLE 0
#endif /* WIN32 */
#define STRINGIFY(s_) STRINGIFY2(s_)
#define STRINGIFY2(s_) #s_
#define SYMBOL_BUF_CHARS 511
#define ERROR_REPORT(num, val, msg) fprintf(stderr, "error(%d):\t\"%s\"\t%s\n", (num), (val), (msg));
#define CLEANUP(ptr) do { if(NULL != ptr) { free(ptr); ptr = NULL; } } while(0)
typedef struct __struct_SymDB_Size
/*
** The size of the symbol.
** The size is nested withing a symbols structures to produce a fast
** lookup path.
** The objects are listed in case the client of the symdb needs to
** match the object name in the scenario where multiple symbol
** sizes are present.
**
** mSize The size of the symbol in these objects.
** mObjects A list of objects containing said symbol.
** mObjectCount Number of objects.
*/
{
unsigned mSize;
char** mObjects;
unsigned mObjectCount;
}
SymDB_Size;
typedef struct __struct_SymDB_Section
/*
** Each section for a symbol has a list of sizes.
** Should there be exactly one size for the symbol, then that
** is the size that should be accepted.
** If there is more than one size, then a match on the object
** should be attempted, held withing each size.
**
** mName The section name.
** mSizes The varoius sizes of the symbol in this section.
** mSizeCount The number of available sizes.
*/
{
char* mName;
SymDB_Size* mSizes;
unsigned mSizeCount;
}
SymDB_Section;
typedef struct __struct_SymDB_Symbol
/*
** Each symbol has at least one section.
** The section indicates what type of symbol a client may be looking for.
** If there is no match on the section, then the client should not trust
** the symbdb.
**
** mName The mangled name of the symbol.
** mSections Various sections this symbol belongs to.
** mSectionCount The number of sections.
*/
{
char* mName;
SymDB_Section* mSections;
unsigned mSectionCount;
}
SymDB_Symbol;
#define SYMDB_SYMBOL_GROWBY 0x1000 /* how many sybols to allocate at a time */
typedef struct __struct_SymDB_Container
/*
** The symbol DB container object.
** The goal of the symbol DB is to have exactly one SymDB_Symbol for each
** mangled name, no matter how ever many identical mangled names there
** are in the input.
** The input is already expected to be well sorted, futher this leads to
** the ability to binary search for symbol name matches.
**
** mSymbols The symbols.
** mSymbolCount The number of symbols in the DB.
** mSymbolCapacity The number of symbols we can hold (before realloc).
*/
{
SymDB_Symbol* mSymbols;
unsigned mSymbolCount;
unsigned mSymbolCapacity;
}
SymDB_Container;
typedef struct __struct_Options
/*
** Options to control how we perform.
**
** mProgramName Used in help text.
** mInput File to read for input.
** Default is stdin.
** mInputName Name of the file.
** mOutput Output file, append.
** Default is stdout.
** mOutputName Name of the file.
** mHelp Whether or not help should be shown.
** mMatchModules Array of strings which the module name should match.
** mMatchModuleCount Number of items in array.
** mSymDBName Symbol DB filename.
** mBatchMode Batch mode.
** When in batch mode, the input file contains a list of
** map files to process.
** Normally the input file is a single map file itself.
*/
{
const char* mProgramName;
FILE* mInput;
char* mInputName;
FILE* mOutput;
char* mOutputName;
int mHelp;
char** mMatchModules;
unsigned mMatchModuleCount;
char* mSymDBName;
SymDB_Container* mSymDB;
int mBatchMode;
}
Options;
typedef struct __struct_Switch
/*
** Command line options.
*/
{
const char* mLongName;
const char* mShortName;
int mHasValue;
const char* mValue;
const char* mDescription;
}
Switch;
#define DESC_NEWLINE "\n\t\t"
static Switch gInputSwitch = {"--input", "-i", 1, NULL, "Specify input file." DESC_NEWLINE "stdin is default."};
static Switch gOutputSwitch = {"--output", "-o", 1, NULL, "Specify output file." DESC_NEWLINE "Appends if file exists." DESC_NEWLINE "stdout is default."};
static Switch gHelpSwitch = {"--help", "-h", 0, NULL, "Information on usage."};
static Switch gMatchModuleSwitch = {"--match-module", "-mm", 1, NULL, "Specify a valid module name." DESC_NEWLINE "Multiple specifications allowed." DESC_NEWLINE "If a module name does not match one of the names specified then no output will occur."};
static Switch gSymDBSwitch = {"--symdb", "-sdb", 1, NULL, "Specify a symbol tsv db input file." DESC_NEWLINE "Such a symdb is produced using the tool msdump2symdb." DESC_NEWLINE "This allows better symbol size approximations." DESC_NEWLINE "The symdb file must be pre-sorted."};
static Switch gBatchModeSwitch = {"--batch", "-b", 0, NULL, "Runs in batch mode." DESC_NEWLINE "The input file contains a list of map files." DESC_NEWLINE "Normally the input file is a map file itself." DESC_NEWLINE "This eliminates reprocessing the symdb for multiple map files."};
static Switch* gSwitches[] = {
&gInputSwitch,
&gOutputSwitch,
&gMatchModuleSwitch,
&gSymDBSwitch,
&gBatchModeSwitch,
&gHelpSwitch
};
typedef struct __struct_MSMap_ReadState
/*
** Keep track of what state we are while reading input.
** This gives the input context in which we absorb the datum.
*/
{
int mHasModule;
int mHasTimestamp;
int mHasPreferredLoadAddress;
int mHasSegmentData;
int mSegmentDataSkippedLine;
int mHasPublicSymbolData;
int mHasPublicSymbolDataSkippedLines;
int mHasEntryPoint;
int mFoundStaticSymbols;
}
MSMap_ReadState;
char* skipWhite(char* inScan)
/*
** Skip whitespace.
*/
{
char* retval = inScan;
while(isspace(*retval))
{
retval++;
}
return retval;
}
void trimWhite(char* inString)
/*
** Remove any whitespace from the end of the string.
*/
{
int len = strlen(inString);
while(len)
{
len--;
if(isspace(*(inString + len)))
{
*(inString + len) = '\0';
}
else
{
break;
}
}
}
char* lastWord(char* inString)
/*
** Finds and returns the last word in a string.
** It is assumed no whitespace is at the end of the string.
*/
{
int mod = 0;
int len = strlen(inString);
while(len)
{
len--;
if(isspace(*(inString + len)))
{
mod = 1;
break;
}
}
return inString + len + mod;
}
MSMap_Segment* getSymbolSection(MSMap_Module* inModule, MSMap_Symbol* inoutSymbol)
/*
** Perform a lookup for the section of the symbol.
** The function could cache the value.
*/
{
MSMap_Segment* retval = NULL;
if(NULL != inoutSymbol->mSection)
{
/*
** Use cached value.
*/
retval = inoutSymbol->mSection;
}
else
{
unsigned secLoop = 0;
/*
** Go through sections in module to find the match for the symbol.
*/
for(secLoop = 0; secLoop < inModule->mSegmentCount; secLoop++)
{
if(inoutSymbol->mPrefix == inModule->mSegments[secLoop].mPrefix)
{
if(inoutSymbol->mOffset >= inModule->mSegments[secLoop].mOffset)
{
if(inoutSymbol->mOffset < (inModule->mSegments[secLoop].mOffset + inModule->mSegments[secLoop].mLength))
{
/*
** We have the section.
*/
retval = &inModule->mSegments[secLoop];
break;
}
}
}
}
/*
** Cache the value for next time.
*/
inoutSymbol->mSection = retval;
}
return retval;
}
int readSymDB(const char* inDBName, SymDB_Container** outDB)
/*
** Intialize the symbol DB.
** Only call if the symbol DB should be initialized.
*/
{
int retval = 0;
/*
** Initialize out arguments.
*/
if(NULL != outDB)
{
*outDB = NULL;
}
if(NULL != outDB && NULL != inDBName)
{
FILE* symDB = NULL;
symDB = fopen(inDBName, "r");
if(NULL != symDB)
{
*outDB = (SymDB_Container*)calloc(1, sizeof(SymDB_Container));
if(NULL != *outDB)
{
char lineBuf[0x400];
char* symbol = NULL;
char* section = NULL;
char* object = NULL;
char* length = NULL;
unsigned lengthNum = 0;
char* endLength = NULL;
/*
** Read the file line by line.
*/
while(0 == retval && NULL != fgets(lineBuf, sizeof(lineBuf), symDB))
{
trimWhite(lineBuf);
/*
** Each line has four arguments. tab separated values (tsv).
** Symbol
** Section
** Length
** Object
*/
symbol = skipWhite(lineBuf);
if(NULL == symbol)
{
retval = __LINE__;
ERROR_REPORT(retval, inDBName, "File does not appear to be a symbol DB.");
break;
}
section = strchr(symbol, '\t');
if(NULL == section)
{
retval = __LINE__;
ERROR_REPORT(retval, inDBName, "File does not appear to be a symbol DB.");
break;
}
*section = '\0';
section++;
length = strchr(section, '\t');
if(NULL == length)
{
retval = __LINE__;
ERROR_REPORT(retval, inDBName, "File does not appear to be a symbol DB.");
break;
}
*length = '\0';
length++;
object = strchr(length, '\t');
if(NULL == object)
{
retval = __LINE__;
ERROR_REPORT(retval, inDBName, "File does not appear to be a symbol DB.");
break;
}
*object = '\0';
object++;
/*
** Convert the length into a number.
*/
errno = 0;
lengthNum = strtoul(length, &endLength, 16);
if(0 == errno && endLength != length)
{
SymDB_Symbol* dbSymbol = NULL;
SymDB_Section* dbSection = NULL;
SymDB_Size* dbSize = NULL;
char* dbObject = NULL;
void* moved = NULL;
/*
** Are we looking at the same symbol as last line?
** This assumes the symdb is pre sorted!!!
*/
if(0 != (*outDB)->mSymbolCount)
{
unsigned index = (*outDB)->mSymbolCount - 1;
if(0 == strcmp((*outDB)->mSymbols[index].mName, symbol))
{
dbSymbol = &(*outDB)->mSymbols[index];
}
}
/*
** May need to create symbol.
*/
if(NULL == dbSymbol)
{
/*
** Could be time to grow the symbol pool.
*/
if((*outDB)->mSymbolCount >= (*outDB)->mSymbolCapacity)
{
moved = realloc((*outDB)->mSymbols, sizeof(SymDB_Symbol) * ((*outDB)->mSymbolCapacity + SYMDB_SYMBOL_GROWBY));
if(NULL != moved)
{
(*outDB)->mSymbols = (SymDB_Symbol*)moved;
memset(&(*outDB)->mSymbols[(*outDB)->mSymbolCapacity], 0, sizeof(SymDB_Symbol) * SYMDB_SYMBOL_GROWBY);
(*outDB)->mSymbolCapacity += SYMDB_SYMBOL_GROWBY;
}
else
{
retval = __LINE__;
ERROR_REPORT(retval, inDBName, "Unable to grow symbol DB symbol array.");
break;
}
}
if((*outDB)->mSymbolCount < (*outDB)->mSymbolCapacity)
{
dbSymbol = &(*outDB)->mSymbols[(*outDB)->mSymbolCount];
(*outDB)->mSymbolCount++;
dbSymbol->mName = strdup(symbol);
if(NULL == dbSymbol->mName)
{
retval = __LINE__;
ERROR_REPORT(retval, symbol, "Unable to duplicate string.");
break;
}
}
else
{
retval = __LINE__;
ERROR_REPORT(retval, symbol, "Unable to grow symbol DB for symbol.");
break;
}
}
/*
** Assume we have the symbol.
**
** Is this the same section as the last section in the symbol?
** This assumes the symdb was presorted!!!!
*/
if(0 != dbSymbol->mSectionCount)
{
unsigned index = dbSymbol->mSectionCount - 1;
if(0 == strcmp(dbSymbol->mSections[index].mName, section))
{
dbSection = &dbSymbol->mSections[index];
}
}
/*
** May need to create the section.
*/
if(NULL == dbSection)
{
moved = realloc(dbSymbol->mSections, sizeof(SymDB_Section) * (dbSymbol->mSectionCount + 1));
if(NULL != moved)
{
dbSymbol->mSections = (SymDB_Section*)moved;
dbSection = &dbSymbol->mSections[dbSymbol->mSectionCount];
dbSymbol->mSectionCount++;
memset(dbSection, 0, sizeof(SymDB_Section));
dbSection->mName = strdup(section);
if(NULL == dbSection->mName)
{
retval = __LINE__;
ERROR_REPORT(retval, section, "Unable to duplicate string.");
break;
}
}
else
{
retval = __LINE__;
ERROR_REPORT(retval, section, "Unable to grow symbol sections for symbol DB.");
break;
}
}
/*
** Assume we have the section.
**
** Is this the same size as the last size?
** This assumes the symdb was presorted!!!
*/
if(0 != dbSection->mSizeCount)
{
unsigned index = dbSection->mSizeCount - 1;
if(dbSection->mSizes[index].mSize == lengthNum)
{
dbSize = &dbSection->mSizes[index];
}
}
/*
** May need to create the size in question.
*/
if(NULL == dbSize)
{
moved = realloc(dbSection->mSizes, sizeof(SymDB_Size) * (dbSection->mSizeCount + 1));
if(NULL != moved)
{
dbSection->mSizes = (SymDB_Size*)moved;
dbSize = &dbSection->mSizes[dbSection->mSizeCount];
dbSection->mSizeCount++;
memset(dbSize, 0, sizeof(SymDB_Size));
dbSize->mSize = lengthNum;
}
else
{
retval = __LINE__;
ERROR_REPORT(retval, length, "Unable to grow symbol section sizes for symbol DB.");
break;
}
}
/*
** Assume we have the size.
**
** We assume a one to one correllation between size and object.
** Always try to add the new object name.
** As the symdb is assumed to be sorted, the object names should also be in order.
*/
moved = realloc(dbSize->mObjects, sizeof(char*) * (dbSize->mObjectCount + 1));
if(NULL != moved)
{
dbObject = strdup(object);
dbSize->mObjects = (char**)moved;
dbSize->mObjects[dbSize->mObjectCount] = dbObject;
dbSize->mObjectCount++;
if(NULL == dbObject)
{
retval = __LINE__;
ERROR_REPORT(retval, object, "Unable to duplicate string.");
break;
}
}
else
{
retval = __LINE__;
ERROR_REPORT(retval, object, "Unable to grow symbol section size objects for symbol DB.");
break;
}
}
else
{
retval = __LINE__;
ERROR_REPORT(retval, length, "Unable to convert symbol DB length into a number.");
break;
}
}
if(0 == retval && 0 != ferror(symDB))
{
retval = __LINE__;
ERROR_REPORT(retval, inDBName, "Unable to read file.");
}
}
else
{
retval = __LINE__;
ERROR_REPORT(retval, inDBName, "Unable to allocate symbol DB.");
}
fclose(symDB);
symDB = NULL;
}
else
{
retval = __LINE__;
ERROR_REPORT(retval, inDBName, "Unable to open symbol DB.");
}
}
else
{
retval = __LINE__;
ERROR_REPORT(retval, "(NULL)", "Invalid arguments.");
}
return retval;
}
void cleanSymDB(SymDB_Container** inDB)
/*
** Free it all up.
*/
{
if(NULL != inDB && NULL != *inDB)
{
unsigned symLoop = 0;
unsigned secLoop = 0;
unsigned sizLoop = 0;
unsigned objLoop = 0;
for(symLoop = 0; symLoop < (*inDB)->mSymbolCount; symLoop++)
{
for(secLoop = 0; secLoop < (*inDB)->mSymbols[symLoop].mSectionCount; secLoop++)
{
for(sizLoop = 0; sizLoop < (*inDB)->mSymbols[symLoop].mSections[secLoop].mSizeCount; sizLoop++)
{
for(objLoop = 0; objLoop < (*inDB)->mSymbols[symLoop].mSections[secLoop].mSizes[sizLoop].mObjectCount; objLoop++)
{
CLEANUP((*inDB)->mSymbols[symLoop].mSections[secLoop].mSizes[sizLoop].mObjects[objLoop]);
}
CLEANUP((*inDB)->mSymbols[symLoop].mSections[secLoop].mSizes[sizLoop].mObjects);
}
CLEANUP((*inDB)->mSymbols[symLoop].mSections[secLoop].mName);
CLEANUP((*inDB)->mSymbols[symLoop].mSections[secLoop].mSizes);
}
CLEANUP((*inDB)->mSymbols[symLoop].mName);
CLEANUP((*inDB)->mSymbols[symLoop].mSections);
}
CLEANUP((*inDB)->mSymbols);
CLEANUP(*inDB);
}
}
int symDBLookup(const void* inKey, const void* inItem)
/*
** bsearch utility routine to find the symbol in the symdb.
*/
{
int retval = 0;
const char* key = (const char*)inKey;
const SymDB_Symbol* symbol = (const SymDB_Symbol*)inItem;
retval = strcmp(key, symbol->mName);
return retval;
}
int fillSymbolSizeFromDB(Options* inOptions, MSMap_Module* inModule, MSMap_Symbol* inoutSymbol, const char* inMangledName)
/*
** If we have a symbol DB, attempt to determine the real size of the symbol
** up front.
** This helps us later in the game to avoid performing size guesses by
** offset.
*/
{
int retval = 0;
/*
** May need to initialize symdb.
*/
if(NULL == inOptions->mSymDB && NULL != inOptions->mSymDBName)
{
retval = readSymDB(inOptions->mSymDBName, &inOptions->mSymDB);
}
/*
** Optional
*/
if(0 == retval && NULL != inOptions->mSymDB)
{
void* match = NULL;
/*
** Find the symbol.
*/
match = bsearch(inMangledName, inOptions->mSymDB->mSymbols, inOptions->mSymDB->mSymbolCount, sizeof(SymDB_Symbol), symDBLookup);
if(NULL != match)
{
SymDB_Symbol* symbol = (SymDB_Symbol*)match;
unsigned symDBSize = 0;
MSMap_Segment* mapSection = NULL;
/*
** We found the symbol.
**
** See if it has the section in question.
*/
mapSection = getSymbolSection(inModule, inoutSymbol);
if(NULL != mapSection)
{
unsigned secLoop = 0;
for(secLoop = 0; secLoop < symbol->mSectionCount; secLoop++)
{
if(0 == strcmp(mapSection->mSegment, symbol->mSections[secLoop].mName))
{
SymDB_Section* section = &symbol->mSections[secLoop];
/*
** We have a section match.
** Should there be a single size for the symbol,
** then we just default to that.
** If more than one size, we have to do an
** object match search.
** Should there be no object match, we do nothign.
*/
if(1 == section->mSizeCount)
{
symDBSize = section->mSizes[0].mSize;
}
else
{
char* mapObject = NULL;
/*
** Figure out the map object file name.
** Skip any colon.
** If it doesn't have a .obj in it, not worth continuing.
*/
mapObject = strrchr(inoutSymbol->mObject, ':');
if(NULL == mapObject)
{
mapObject = inoutSymbol->mObject;
}
else
{
mapObject++; /* colon */
}
if(NULL != strstr(mapObject, ".obj"))
{
unsigned sizLoop = 0;
unsigned objLoop = 0;
SymDB_Size* size = NULL;
for(sizLoop = 0; sizLoop < section->mSizeCount; sizLoop++)
{
size = §ion->mSizes[sizLoop];
for(objLoop = 0; objLoop < size->mObjectCount; objLoop++)
{
if(NULL != strstr(size->mObjects[objLoop], mapObject))
{
/*
** As we matched the object, in a particular section,
** we'll go with this as the number.
*/
symDBSize = size->mSize;
break;
}
}
/*
** If the object loop broke early, we break too.
*/
if(objLoop < size->mObjectCount)
{
break;
}
}
}
}
break;
}
}
}
/*
** Put the size in.
*/
inoutSymbol->mSymDBSize = symDBSize;
}
}
return retval;
}
char* symdup(const char* inSymbol)
/*
** Attempts to demangle the symbol if appropriate.
** Otherwise acts like strdup.
*/
{
char* retval = NULL;
#if F_DEMANGLE
{
int isImport = 0;
if(0 == strncmp("__imp_", inSymbol, 6))
{
isImport = __LINE__;
inSymbol += 6;
}
if('?' == inSymbol[0])
{
char demangleBuf[0x200];
DWORD demangleRes = 0;
demangleRes = UnDecorateSymbolName(inSymbol, demangleBuf, sizeof(demangleBuf), UNDNAME_COMPLETE);
if(0 != demangleRes)
{
if (strcmp(demangleBuf, "`string'") == 0)
{
/* attempt manual demangling of string prefix.. */
/* first make sure we have enough space for the
updated string - the demangled string will
always be shorter than strlen(inSymbol) and the
prologue will always be longer than the
"string: " that we tack on the front of the string
*/
char *curresult = retval = malloc(strlen(inSymbol) + 11);
const char *curchar = inSymbol;
int state = DEMANGLE_STATE_START;
/* the hex state is for stuff like ?$EA which
really means hex value 0x40 */
char hex_state = 0;
char string_is_unicode = 0;
/* sometimes we get a null-termination before the
final @ sign - in that case, remember that
we've seen the whole string */
int have_null_char = 0;
/* stick our user-readable prefix on */
strcpy(curresult, "string: \"");
curresult += 9;
while (*curchar) {
// process current state
switch (state) {
/* the Prologue states are divided up so
that someday we can try to decode
the random letters in between the '@'
signs. Also, some strings only have 2
prologue '@' signs, so we have to
figure out how to distinguish between
them at some point. */
case DEMANGLE_STATE_START:
if (*curchar == '@')
state = DEMANGLE_STATE_PROLOGUE_1;
/* ignore all other states */
break;
case DEMANGLE_STATE_PROLOGUE_1:
switch (*curchar) {
case '0':
string_is_unicode=0;
state = DEMANGLE_STATE_HAVE_TYPE;
break;
case '1':
string_is_unicode=1;
state = DEMANGLE_STATE_HAVE_TYPE;
break;
/* ignore all other characters */
}
break;
case DEMANGLE_STATE_HAVE_TYPE:
if (*curchar >= '0' && *curchar <= '9') {
state = DEMANGLE_STATE_DEC_LENGTH;
} else if (*curchar >= 'A' && *curchar <= 'Z') {
state = DEMANGLE_STATE_HEX_LENGTH;
}
case DEMANGLE_STATE_DEC_LENGTH:
/* decimal lengths don't have the 2nd
field
*/
if (*curchar == '@')
state = DEMANGLE_STATE_NORMAL;
break;
case DEMANGLE_STATE_HEX_LENGTH:
/* hex lengths have a 2nd field
(though I have no idea what it is for)
*/
if (*curchar == '@')
state = DEMANGLE_STATE_PROLOGUE_SECONDARY;
break;
case DEMANGLE_STATE_PROLOGUE_SECONDARY:
if (*curchar == '@')
state = DEMANGLE_STATE_NORMAL;
break;
case DEMANGLE_STATE_NORMAL:
switch (*curchar) {
case '?':
state = DEMANGLE_STATE_QDECODE;
break;
case '@':
state = DEMANGLE_STATE_STOP;
break;
default:
*curresult++ = DEMANGLE_SAFE_CHAR(*curchar);
state = DEMANGLE_STATE_NORMAL;
break;
}
break;
/* found a '?' */
case DEMANGLE_STATE_QDECODE:
state = DEMANGLE_STATE_NORMAL;
/* there are certain shortcuts, like
"?3" means ":"
*/
switch (*curchar) {
case '1':
*curresult++ = '/';
break;
case '2':
*curresult++ = '\\';
break;
case '3':
*curresult++ = ':';
break;
case '4':
*curresult++ = '.';
break;
case '5':
*curresult++ = ' ';
break;
case '6':
*curresult++ = '\\';
*curresult++ = 'n';
break;
case '8':
*curresult++ = '\'';
break;
case '9':
*curresult++ = '-';
break;
/* any other arbitrary ASCII value can
be stored by prefixing it with ?$
*/
case '$':
state = DEMANGLE_STATE_DOLLAR_1;
}
break;
case DEMANGLE_STATE_DOLLAR_1:
/* first digit of ?$ notation. All digits
are hex, represented starting with the
capital leter 'A' such that 'A' means 0x0,
'B' means 0x1, 'K' means 0xA
*/
hex_state = (*curchar - 'A') * 0x10;
state = DEMANGLE_STATE_DOLLAR_2;
break;
case DEMANGLE_STATE_DOLLAR_2:
/* same mechanism as above */
hex_state += (*curchar - 'A');
if (hex_state) {
*curresult++ = DEMANGLE_SAFE_CHAR(hex_state);
have_null_char = 0;
}
else {
have_null_char = 1;
}
state = DEMANGLE_STATE_NORMAL;
break;
case DEMANGLE_STATE_STOP:
break;
}
curchar++;
}
/* add the appropriate termination depending
if we completed the string or not */
if (!have_null_char)
strcpy(curresult, "...\"");
else
strcpy(curresult, "\"");
} else {
retval = strdup(demangleBuf);
}
}
else
{
/*
** fall back to normal.
*/
retval = strdup(inSymbol);
}
}
else if('_' == inSymbol[0])
{
retval = strdup(inSymbol + 1);
}
else
{
retval = strdup(inSymbol);
}
/*
** May need to rewrite the symbol if an import.
*/
if(NULL != retval && isImport)
{
const char importPrefix[] = "__declspec(dllimport) ";
char importBuf[0x200];
int printRes = 0;
printRes = _snprintf(importBuf, sizeof(importBuf), "%s%s", importPrefix, retval);
free(retval);
retval = NULL;
if(printRes > 0)
{
retval = strdup(importBuf);
}
}
}
#else /* F_DEMANGLE */
retval = strdup(inSymbol);
#endif /* F_DEMANGLE */
return retval;
}
int readmap(Options* inOptions, MSMap_Module* inModule)
/*
** Read the input line by line, adding it to the module.
*/
{
int retval = 0;
char lineBuffer[0x400];
char* current = NULL;
MSMap_ReadState fsm;
int len = 0;
int forceContinue = 0;
memset(&fsm, 0, sizeof(fsm));
/*
** Read the map file line by line.
** We keep a simple state machine to determine what we're looking at.
*/
while(0 == retval && NULL != fgets(lineBuffer, sizeof(lineBuffer), inOptions->mInput))
{
if(forceContinue)
{
/*
** Used to skip anticipated blank lines.
*/
forceContinue--;
continue;
}
current = skipWhite(lineBuffer);
trimWhite(current);
len = strlen(current);
if(fsm.mHasModule)
{
if(fsm.mHasTimestamp)
{
if(fsm.mHasPreferredLoadAddress)
{
if(fsm.mHasSegmentData)
{
if(fsm.mHasPublicSymbolData)
{
if(fsm.mHasEntryPoint)
{
if(fsm.mFoundStaticSymbols)
{
/*
** A blank line means we've reached the end of all static symbols.
*/
if(len)
{
/*
** We're adding a new symbol.
** Make sure we have room for it.
*/
if(inModule->mSymbolCapacity == inModule->mSymbolCount)
{
void* moved = NULL;
moved = realloc(inModule->mSymbols, sizeof(MSMap_Symbol) * (inModule->mSymbolCapacity + MSMAP_SYMBOL_GROWBY));
if(NULL != moved)
{
inModule->mSymbolCapacity += MSMAP_SYMBOL_GROWBY;
inModule->mSymbols = (MSMap_Symbol*)moved;
}
else
{
retval = __LINE__;
ERROR_REPORT(retval, inModule->mModule, "Unable to grow symbols.");
}
}
if(0 == retval && inModule->mSymbolCapacity > inModule->mSymbolCount)
{
MSMap_Symbol* theSymbol = NULL;
unsigned index = 0;
int scanRes = 0;
char symbolBuf[SYMBOL_BUF_CHARS + 1];
index = inModule->mSymbolCount;
inModule->mSymbolCount++;
theSymbol = (inModule->mSymbols + index);
memset(theSymbol, 0, sizeof(MSMap_Symbol));
theSymbol->mScope = STATIC;
scanRes = sscanf(current, "%x:%x %" STRINGIFY(SYMBOL_BUF_CHARS) "s %x", (unsigned*)&(theSymbol->mPrefix), (unsigned*)&(theSymbol->mOffset), symbolBuf, (unsigned*)&(theSymbol->mRVABase));
if(4 == scanRes)
{
theSymbol->mSymbol = symdup(symbolBuf);
if(0 == retval)
{
if(NULL != theSymbol->mSymbol)
{
char *last = lastWord(current);
theSymbol->mObject = strdup(last);
if(NULL == theSymbol->mObject)
{
retval = __LINE__;
ERROR_REPORT(retval, last, "Unable to copy object name.");
}
}
else
{
retval = __LINE__;
ERROR_REPORT(retval, symbolBuf, "Unable to copy symbol name.");
}
}
}
else
{
retval = __LINE__;
ERROR_REPORT(retval, inModule->mModule, "Unable to scan static symbols.");
}
}
}
else
{
/*
** All done.
*/
break;
}
}
else
{
/*
** Static symbols are optional.
** If no static symbols we're done.
** Otherwise, set the flag such that it will work more.
*/
if(0 == strcmp(current, "Static symbols"))
{
fsm.mFoundStaticSymbols = __LINE__;
forceContinue = 1;
}
else
{
/*
** All done.
*/
break;
}
}
}
else
{
int scanRes = 0;
scanRes = sscanf(current, "entry point at %x:%x", (unsigned*)&(inModule->mEntryPrefix), (unsigned*)&(inModule->mEntryOffset));
if(2 == scanRes)
{
fsm.mHasEntryPoint = __LINE__;
forceContinue = 1;
}
else
{
retval = __LINE__;
ERROR_REPORT(retval, current, "Unable to obtain entry point.");
}
}
}
else
{
/*
** Skip the N lines of public symbol data (column headers).
*/
if(2 <= fsm.mHasPublicSymbolDataSkippedLines)
{
/*
** A blank line indicates end of public symbols.
*/
if(len)
{
/*
** We're adding a new symbol.
** Make sure we have room for it.
*/
if(inModule->mSymbolCapacity == inModule->mSymbolCount)
{
void* moved = NULL;
moved = realloc(inModule->mSymbols, sizeof(MSMap_Symbol) * (inModule->mSymbolCapacity + MSMAP_SYMBOL_GROWBY));
if(NULL != moved)
{
inModule->mSymbolCapacity += MSMAP_SYMBOL_GROWBY;
inModule->mSymbols = (MSMap_Symbol*)moved;
}
else
{
retval = __LINE__;
ERROR_REPORT(retval, inModule->mModule, "Unable to grow symbols.");
}
}
if(0 == retval && inModule->mSymbolCapacity > inModule->mSymbolCount)
{
MSMap_Symbol* theSymbol = NULL;
unsigned index = 0;
int scanRes = 0;
char symbolBuf[SYMBOL_BUF_CHARS + 1];
index = inModule->mSymbolCount;
inModule->mSymbolCount++;
theSymbol = (inModule->mSymbols + index);
memset(theSymbol, 0, sizeof(MSMap_Symbol));
theSymbol->mScope = PUBLIC;
scanRes = sscanf(current, "%x:%x %" STRINGIFY(SYMBOL_BUF_CHARS) "s %x", (unsigned*)&(theSymbol->mPrefix), (unsigned*)&(theSymbol->mOffset), symbolBuf, (unsigned *)&(theSymbol->mRVABase));
if(4 == scanRes)
{
theSymbol->mSymbol = symdup(symbolBuf);
if(NULL != theSymbol->mSymbol)
{
char *last = lastWord(current);
theSymbol->mObject = strdup(last);
if(NULL != theSymbol->mObject)
{
/*
** Finally, attempt to lookup the actual size of the symbol
** if there is a symbol DB available.
*/
retval = fillSymbolSizeFromDB(inOptions, inModule, theSymbol, symbolBuf);
}
else
{
retval = __LINE__;
ERROR_REPORT(retval, last, "Unable to copy object name.");
}
}
else
{
retval = __LINE__;
ERROR_REPORT(retval, symbolBuf, "Unable to copy symbol name.");
}
}
else
{
retval = __LINE__;
ERROR_REPORT(retval, inModule->mModule, "Unable to scan public symbols.");
}
}
}
else
{
fsm.mHasPublicSymbolData = __LINE__;
}
}
else
{
fsm.mHasPublicSymbolDataSkippedLines++;
}
}
}
else
{
/*
** Skip the first line of segment data (column headers).
** Mark that we've begun grabbing segement data.
*/
if(fsm.mSegmentDataSkippedLine)
{
/*
** A blank line means end of the segment data.
*/
if(len)
{
/*
** We're adding a new segment.
** Make sure we have room for it.
*/
if(inModule->mSegmentCapacity == inModule->mSegmentCount)
{
void* moved = NULL;
moved = realloc(inModule->mSegments, sizeof(MSMap_Segment) * (inModule->mSegmentCapacity + MSMAP_SEGMENT_GROWBY));
if(NULL != moved)
{
inModule->mSegmentCapacity += MSMAP_SEGMENT_GROWBY;
inModule->mSegments = (MSMap_Segment*)moved;
}
else
{
retval = __LINE__;
ERROR_REPORT(retval, inModule->mModule, "Unable to grow segments.");
}
}
if(0 == retval && inModule->mSegmentCapacity > inModule->mSegmentCount)
{
MSMap_Segment* theSegment = NULL;
unsigned index = 0;
#define CLASS_BUF_CHARS 15
char classBuf[CLASS_BUF_CHARS + 1];
#define NAME_BUF_CHARS 31
char nameBuf[NAME_BUF_CHARS + 1];
int scanRes = 0;
index = inModule->mSegmentCount;
inModule->mSegmentCount++;
theSegment = (inModule->mSegments + index);
memset(theSegment, 0, sizeof(MSMap_Segment));
scanRes = sscanf(current, "%x:%x %xH %" STRINGIFY(NAME_BUF_CHARS) "s %" STRINGIFY(CLASS_BUF_CHARS) "s", (unsigned*)&(theSegment->mPrefix), (unsigned*)&(theSegment->mOffset), (unsigned*)&(theSegment->mLength), nameBuf, classBuf);
if(5 == scanRes)
{
if('.' == nameBuf[0])
{
theSegment->mSegment = strdup(&nameBuf[1]);
}
else
{
theSegment->mSegment = strdup(nameBuf);
}
if(NULL != theSegment->mSegment)
{
if(0 == strcmp("DATA", classBuf))
{
theSegment->mClass = DATA;
}
else if(0 == strcmp("CODE", classBuf))
{
theSegment->mClass = CODE;
}
else
{
retval = __LINE__;
ERROR_REPORT(retval, classBuf, "Unrecognized segment class.");
}
}
else
{
retval = __LINE__;
ERROR_REPORT(retval, nameBuf, "Unable to copy segment name.");
}
}
else
{
retval = __LINE__;
ERROR_REPORT(retval, inModule->mModule, "Unable to scan segments.");
}
}
}
else
{
fsm.mHasSegmentData = __LINE__;
}
}
else
{
fsm.mSegmentDataSkippedLine = __LINE__;
}
}
}
else
{
int scanRes = 0;
/*
** The PLA has a particular format.
*/
scanRes = sscanf(current, "Preferred load address is %x", (unsigned*)&(inModule->mPreferredLoadAddress));
if(1 == scanRes)
{
fsm.mHasPreferredLoadAddress = __LINE__;
forceContinue = 1;
}
else
{
retval = __LINE__;
ERROR_REPORT(retval, current, "Unable to obtain preferred load address.");
}
}
}
else
{
int scanRes = 0;
/*
** The timestamp has a particular format.
*/
scanRes = sscanf(current, "Timestamp is %x", (unsigned*)&(inModule->mTimestamp));
if(1 == scanRes)
{
fsm.mHasTimestamp = __LINE__;
forceContinue = 1;
}
else
{
retval = __LINE__;
ERROR_REPORT(retval, current, "Unable to obtain timestamp.");
}
}
}
else
{
/*
** The module is on a line by itself.
*/
inModule->mModule = strdup(current);
if(NULL != inModule->mModule)
{
fsm.mHasModule = __LINE__;
forceContinue = 1;
if(0 != inOptions->mMatchModuleCount)
{
unsigned matchLoop = 0;
/*
** If this module name doesn't match, then bail.
** Compare in a case sensitive manner, exact match only.
*/
for(matchLoop = 0; matchLoop < inOptions->mMatchModuleCount; matchLoop++)
{
if(0 == strcmp(inModule->mModule, inOptions->mMatchModules[matchLoop]))
{
break;
}
}
if(matchLoop == inOptions->mMatchModuleCount)
{
/*
** A match did not occur, bail out of read loop.
** No error, however.
*/
break;
}
}
}
else
{
retval = __LINE__;
ERROR_REPORT(retval, current, "Unable to obtain module.");
}
}
}
if(0 == retval && 0 != ferror(inOptions->mInput))
{
retval = __LINE__;
ERROR_REPORT(retval, inOptions->mInputName, "Unable to read file.");
}
return retval;
}
static int qsortRVABase(const void* in1, const void* in2)
/*
** qsort callback to sort the symbols by their RVABase.
*/
{
MSMap_Symbol* sym1 = (MSMap_Symbol*)in1;
MSMap_Symbol* sym2 = (MSMap_Symbol*)in2;
int retval = 0;
if(sym1->mRVABase < sym2->mRVABase)
{
retval = -1;
}
else if(sym1->mRVABase > sym2->mRVABase)
{
retval = 1;
}
return retval;
}
static int tsvout(Options* inOptions, unsigned inSize, MSMap_SegmentClass inClass, MSMap_SymbolScope inScope, const char* inModule, const char* inSegment, const char* inObject, const char* inSymbol)
/*
** Output a line of map information separated by tabs.
** Some items (const char*), if not present, will receive a default value.
*/
{
int retval = 0;
/*
** No need to output on no size.
** This can happen with zero sized segments,
** or an imported symbol which has multiple names (one will count).
*/
if(0 != inSize)
{
char objectBuf[0x100];
const char* symScope = NULL;
const char* segClass = NULL;
const char* undefined = "UNDEF";
/*
** Fill in unspecified values.
*/
if(NULL == inObject)
{
sprintf(objectBuf, "%s:%s:%s", undefined, inModule, inSegment);
inObject = objectBuf;
}
if(NULL == inSymbol)
{
inSymbol = inObject;
}
/*
** Convert some enumerations to text.
*/
switch(inClass)
{
case CODE:
segClass = "CODE";
break;
case DATA:
segClass = "DATA";
break;
default:
retval = __LINE__;
ERROR_REPORT(retval, "", "Unable to determine class for output.");
break;
}
switch(inScope)
{
case PUBLIC:
symScope = "PUBLIC";
break;
case STATIC:
symScope = "STATIC";
break;
case UNDEFINED:
symScope = undefined;
break;
default:
retval = __LINE__;
ERROR_REPORT(retval, "", "Unable to determine scope for symbol.");
break;
}
if(0 == retval)
{
int printRes = 0;
printRes = fprintf(inOptions->mOutput,
"%.8X\t%s\t%s\t%s\t%s\t%s\t%s\n",
inSize,
segClass,
symScope,
inModule,
inSegment,
inObject,
inSymbol
);
if(0 > printRes)
{
retval = __LINE__;
ERROR_REPORT(retval, inOptions->mOutputName, "Unable to output tsv data.");
}
}
}
return retval;
}
void cleanModule(MSMap_Module* inModule)
{
unsigned loop = 0;
for(loop = 0; loop < inModule->mSymbolCount; loop++)
{
CLEANUP(inModule->mSymbols[loop].mObject);
CLEANUP(inModule->mSymbols[loop].mSymbol);
}
CLEANUP(inModule->mSymbols);
for(loop = 0; loop < inModule->mSegmentCount; loop++)
{
CLEANUP(inModule->mSegments[loop].mSegment);
}
CLEANUP(inModule->mSegments);
CLEANUP(inModule->mModule);
memset(inModule, 0, sizeof(MSMap_Module));
}
int map2tsv(Options* inOptions)
/*
** Read all input.
** Output tab separated value data.
*/
{
int retval = 0;
MSMap_Module module;
memset(&module, 0, sizeof(module));
/*
** Read in the map file.
*/
retval = readmap(inOptions, &module);
if(0 == retval)
{
unsigned symLoop = 0;
MSMap_Symbol* symbol = NULL;
unsigned secLoop = 0;
MSMap_Segment* section = NULL;
unsigned size = 0;
unsigned dbSize = 0;
unsigned offsetSize = 0;
unsigned endOffset = 0;
/*
** Quick sort the symbols via RVABase.
*/
qsort(module.mSymbols, module.mSymbolCount, sizeof(MSMap_Symbol), qsortRVABase);
/*
** Go through all the symbols (in order by sort).
** Output their sizes.
*/
for(symLoop = 0; 0 == retval && symLoop < module.mSymbolCount; symLoop++)
{
symbol = &module.mSymbols[symLoop];
section = getSymbolSection(&module, symbol);
if (!section)
continue;
/*
** Use the symbol DB size if available.
*/
dbSize = symbol->mSymDBSize;
/*
** Guess using offsets.
** Is there a next symbol available? If so, its start offset is the end of this symbol.
** Otherwise, our section offset + length is the end of this symbol.
**
** The trick is, the DB size can not go beyond the offset size, for sanity.
*/
/*
** Try next symbol, but only if in same section.
** If still not, use the end of the segment.
** This implies we were the last symbol in the segment.
*/
if((symLoop + 1) < module.mSymbolCount)
{
MSMap_Symbol* nextSymbol = NULL;
MSMap_Segment* nextSection = NULL;
nextSymbol = &module.mSymbols[symLoop + 1];
nextSection = getSymbolSection(&module, nextSymbol);
if(section == nextSection)
{
endOffset = nextSymbol->mOffset;
}
else
{
endOffset = section->mOffset + section->mLength;
}
}
else
{
endOffset = section->mOffset + section->mLength;
}
/*
** Can now guess at size.
*/
offsetSize = endOffset - symbol->mOffset;
/*
** Now, determine which size to use.
** This is really a sanity check as well.
*/
size = offsetSize;
if(0 != dbSize)
{
if(dbSize < offsetSize)
{
size = dbSize;
}
}
/*
** Output the symbol with the size.
*/
retval = tsvout(inOptions,
size,
section->mClass,
symbol->mScope,
module.mModule,
section->mSegment,
symbol->mObject,
symbol->mSymbol
);
/*
** Make sure we mark this amount of space as used in the section.
*/
section->mUsed += size;
}
/*
** Go through the sections, and those whose length is longer than the
** amount of space used, output dummy filler values.
*/
for(secLoop = 0; 0 == retval && secLoop < module.mSegmentCount; secLoop++)
{
section = &module.mSegments[secLoop];
if(section && section->mUsed < section->mLength)
{
retval = tsvout(inOptions,
section->mLength - section->mUsed,
section->mClass,
UNDEFINED,
module.mModule,
section->mSegment,
NULL,
NULL
);
}
}
}
/*
** Cleanup.
*/
cleanModule(&module);
return retval;
}
int initOptions(Options* outOptions, int inArgc, char** inArgv)
/*
** returns int 0 if successful.
*/
{
int retval = 0;
int loop = 0;
int switchLoop = 0;
int match = 0;
const int switchCount = sizeof(gSwitches) / sizeof(gSwitches[0]);
Switch* current = NULL;
/*
** Set any defaults.
*/
memset(outOptions, 0, sizeof(Options));
outOptions->mProgramName = inArgv[0];
outOptions->mInput = stdin;
outOptions->mInputName = strdup("stdin");
outOptions->mOutput = stdout;
outOptions->mOutputName = strdup("stdout");
if(NULL == outOptions->mOutputName || NULL == outOptions->mInputName)
{
retval = __LINE__;
ERROR_REPORT(retval, "stdin/stdout", "Unable to strdup.");
}
/*
** Go through and attempt to do the right thing.
*/
for(loop = 1; loop < inArgc && 0 == retval; loop++)
{
match = 0;
current = NULL;
for(switchLoop = 0; switchLoop < switchCount && 0 == retval; switchLoop++)
{
if(0 == strcmp(gSwitches[switchLoop]->mLongName, inArgv[loop]))
{
match = __LINE__;
}
else if(0 == strcmp(gSwitches[switchLoop]->mShortName, inArgv[loop]))
{
match = __LINE__;
}
if(match)
{
if(gSwitches[switchLoop]->mHasValue)
{
/*
** Attempt to absorb next option to fullfill value.
*/
if(loop + 1 < inArgc)
{
loop++;
current = gSwitches[switchLoop];
current->mValue = inArgv[loop];
}
}
else
{
current = gSwitches[switchLoop];
}
break;
}
}
if(0 == match)
{
outOptions->mHelp = __LINE__;
retval = __LINE__;
ERROR_REPORT(retval, inArgv[loop], "Unknown command line switch.");
}
else if(NULL == current)
{
outOptions->mHelp = __LINE__;
retval = __LINE__;
ERROR_REPORT(retval, inArgv[loop], "Command line switch requires a value.");
}
else
{
/*
** Do something based on address/swtich.
*/
if(current == &gInputSwitch)
{
CLEANUP(outOptions->mInputName);
if(NULL != outOptions->mInput && stdin != outOptions->mInput)
{
fclose(outOptions->mInput);
outOptions->mInput = NULL;
}
outOptions->mInput = fopen(current->mValue, "r");
if(NULL == outOptions->mInput)
{
retval = __LINE__;
ERROR_REPORT(retval, current->mValue, "Unable to open input file.");
}
else
{
outOptions->mInputName = strdup(current->mValue);
if(NULL == outOptions->mInputName)
{
retval = __LINE__;
ERROR_REPORT(retval, current->mValue, "Unable to strdup.");
}
}
}
else if(current == &gOutputSwitch)
{
CLEANUP(outOptions->mOutputName);
if(NULL != outOptions->mOutput && stdout != outOptions->mOutput)
{
fclose(outOptions->mOutput);
outOptions->mOutput = NULL;
}
outOptions->mOutput = fopen(current->mValue, "a");
if(NULL == outOptions->mOutput)
{
retval = __LINE__;
ERROR_REPORT(retval, current->mValue, "Unable to open output file.");
}
else
{
outOptions->mOutputName = strdup(current->mValue);
if(NULL == outOptions->mOutputName)
{
retval = __LINE__;
ERROR_REPORT(retval, current->mValue, "Unable to strdup.");
}
}
}
else if(current == &gHelpSwitch)
{
outOptions->mHelp = __LINE__;
}
else if(current == &gMatchModuleSwitch)
{
void* moved = NULL;
/*
** Add the value to the list of allowed module names.
*/
moved = realloc(outOptions->mMatchModules, sizeof(char*) * (outOptions->mMatchModuleCount + 1));
if(NULL != moved)
{
outOptions->mMatchModules = (char**)moved;
outOptions->mMatchModules[outOptions->mMatchModuleCount] = strdup(current->mValue);
if(NULL != outOptions->mMatchModules[outOptions->mMatchModuleCount])
{
outOptions->mMatchModuleCount++;
}
else
{
retval = __LINE__;
ERROR_REPORT(retval, current->mValue, "Unable to duplicate string.");
}
}
else
{
retval = __LINE__;
ERROR_REPORT(retval, current->mValue, "Unable to allocate space for string.");
}
}
else if(current == &gSymDBSwitch)
{
CLEANUP(outOptions->mSymDBName);
outOptions->mSymDBName = strdup(current->mValue);
if(NULL == outOptions->mSymDBName)
{
retval = __LINE__;
ERROR_REPORT(retval, current->mValue, "Unable to duplicate symbol db name.");
}
}
else if(current == &gBatchModeSwitch)
{
outOptions->mBatchMode = __LINE__;
}
else
{
retval = __LINE__;
ERROR_REPORT(retval, current->mLongName, "No handler for command line switch.");
}
}
}
return retval;
}
void cleanOptions(Options* inOptions)
/*
** Clean up any open handles, et. al.
*/
{
CLEANUP(inOptions->mInputName);
if(NULL != inOptions->mInput && stdin != inOptions->mInput)
{
fclose(inOptions->mInput);
}
CLEANUP(inOptions->mOutputName);
if(NULL != inOptions->mOutput && stdout != inOptions->mOutput)
{
fclose(inOptions->mOutput);
}
while(0 != inOptions->mMatchModuleCount)
{
inOptions->mMatchModuleCount--;
CLEANUP(inOptions->mMatchModules[inOptions->mMatchModuleCount]);
}
CLEANUP(inOptions->mMatchModules);
cleanSymDB(&inOptions->mSymDB);
memset(inOptions, 0, sizeof(Options));
}
void showHelp(Options* inOptions)
/*
** Show some simple help text on usage.
*/
{
int loop = 0;
const int switchCount = sizeof(gSwitches) / sizeof(gSwitches[0]);
const char* valueText = NULL;
printf("usage:\t%s [arguments]\n", inOptions->mProgramName);
printf("\n");
printf("arguments:\n");
for(loop = 0; loop < switchCount; loop++)
{
if(gSwitches[loop]->mHasValue)
{
valueText = " <value>";
}
else
{
valueText = "";
}
printf("\t%s%s\n", gSwitches[loop]->mLongName, valueText);
printf("\t %s%s", gSwitches[loop]->mShortName, valueText);
printf(DESC_NEWLINE "%s\n\n", gSwitches[loop]->mDescription);
}
printf("This tool normalizes MS linker .map files for use by other tools.\n");
}
int batchMode(Options* inOptions)
/*
** Batch mode means that the input file is actually a list of map files.
** We simply swap out our input file names while we do this.
*/
{
int retval = 0;
char lineBuf[0x400];
FILE* realInput = NULL;
char* realInputName = NULL;
FILE* mapFile = NULL;
int finalRes = 0;
realInput = inOptions->mInput;
realInputName = inOptions->mInputName;
while(0 == retval && NULL != fgets(lineBuf, sizeof(lineBuf), realInput))
{
trimWhite(lineBuf);
/*
** Skip/allow blank lines.
*/
if('\0' == lineBuf[0])
{
continue;
}
/*
** Override what we believe to be the input for this line.
*/
inOptions->mInputName = lineBuf;
inOptions->mInput = fopen(lineBuf, "r");
if(NULL != inOptions->mInput)
{
int mapRes = 0;
/*
** Do it.
*/
mapRes = map2tsv(inOptions);
/*
** We report the first error that we encounter, but we continue.
** This is batch mode after all.
*/
if(0 == finalRes)
{
finalRes = mapRes;
}
/*
** Close the input file.
*/
fclose(inOptions->mInput);
}
else
{
retval = __LINE__;
ERROR_REPORT(retval, lineBuf, "Unable to open map file.");
break;
}
}
if(0 == retval && 0 != ferror(realInput))
{
retval = __LINE__;
ERROR_REPORT(retval, realInputName, "Unable to read file.");
}
/*
** Restore what we've swapped.
*/
inOptions->mInput = realInput;
inOptions->mInputName = realInputName;
/*
** Report first map file error if there were no other operational
** problems.
*/
if(0 == retval)
{
retval = finalRes;
}
return retval;
}
int main(int inArgc, char** inArgv)
{
int retval = 0;
Options options;
retval = initOptions(&options, inArgc, inArgv);
if(options.mHelp)
{
showHelp(&options);
}
else if(0 == retval)
{
if(options.mBatchMode)
{
retval = batchMode(&options);
}
else
{
retval = map2tsv(&options);
}
}
cleanOptions(&options);
return retval;
}
