Mercurial > vba-clojure

     1 // A few notes about this implementation of a RAM search window:

     2 //

     3 // Speed of update was one of the highest priories.

     4 // This is because I wanted the RAM search window to be able to

     5 // update every single value in RAM every single frame, and

     6 // keep track of the exact number of frames across which each value has changed,

     7 // without causing the emulation to run noticeably slower than normal.

     8 //

     9 // The data representation was changed from one entry per valid address

    10 // to one entry per contiguous range of uneliminated addresses

    11 // which references uniform pools of per-address properties.

    12 // - This saves time when there are many items because

    13 //   it minimizes the amount of data that needs to be stored and processed per address.

    14 // - It also saves time when there are few items because

    15 //   it ensures that no time is wasted in iterating through

    16 //   addresses that have already been eliminated from the search.

    17 //

    18 // The worst-case scenario is when every other item has been

    19 // eliminated from the search, maximizing the number of regions.

    20 // This implementation manages to handle even that pathological case

    21 // acceptably well. In fact, it still updates faster than the previous implementation.

    22 // The time spent setting up or clearing such a large number of regions

    23 // is somewhat horrendous, but it seems reasonable to have poor worst-case speed

    24 // during these sporadic "setup" steps to achieve an all-around faster per-update speed.

    25 // (You can test this case by performing the search: Modulo 2 Is Specific Address 0)

    26 

    27 

    28 #ifdef _WIN32

    29 	#include "stdafx.h"

    30 	#include "resource.h"

    31 	#include "VBA.h"

    32 	//#include <windows.h>

    33 	#include <commctrl.h>

    34 	#include "BaseTsd.h"

    35 	#include "GBACheatsDlg.h"

    36 	#include "GBCheatsDlg.h"

    37 	typedef INT_PTR intptr_t;

    38 #else

    39 	#include "stdint.h"

    40 #endif

    41 #include <cassert>

    42 #include <list>

    43 #include <vector>

    44 

    45 #include "ram_search.h"

    46 #include "ramwatch.h"

    47 #include "../gba/GBAGlobals.h"

    48 #include "../gb/gbGlobals.h"

    49 #include "../common/vbalua.h"

    50 #include "Reg.h"

    51 

    52 static inline u8* HardwareToSoftwareAddress(HWAddressType address)

    53 {

    54 	if(!emulating)

    55 		return NULL;

    56 

    57 	// note: this currently follows the "quick" memory rules,

    58 	// meaning it will miss whatever special cases aren't handled by read/writeMemoryQuick.

    59 	// if this is made more accurate, it may be necessary to reduce regionSearchGranularity.

    60 	if(systemCartridgeType == 0)

    61 	{

    62 		// GBA

    63 		HWAddressType mask = ::map[address >> 24].mask;

    64 		if(!mask || (address & 0xFFFFFF) > mask)

    65 			return NULL;

    66 		return &::map[address >> 24].address[address & mask];

    67 	}

    68 	else

    69 	{

    70 		// GB

    71 		extern int32 gbEchoRAMFixOn;

    72 		if (gbEchoRAMFixOn)

    73 			if (address >= 0xe000 && address < 0xfe00)

    74 				address -= 0x2000;

    75 		if((address>>12) >= sizeof(gbMemoryMap)/sizeof(*gbMemoryMap))

    76 			return NULL;

    77 		return &gbMemoryMap[address>>12][address&0xfff];

    78 	}

    79 }

    80 

    81 

    82 struct MemoryRegion

    83 {

    84 	HWAddressType hardwareAddress; // hardware address of the start of this region

    85 	unsigned int size; // number of bytes to the end of this region

    86 	unsigned char* softwareAddress; // pointer to the start of the live emulator source values for this region

    87 

    88 	unsigned int virtualIndex; // index into s_prevValues, s_curValues, and s_numChanges, valid after being initialized in ResetMemoryRegions()

    89 	unsigned int itemIndex; // index into listbox items, valid when s_itemIndicesInvalid is false

    90 };

    91 

    92 int MAX_RAM_SIZE = 0;

    93 static unsigned char* s_prevValues = 0; // values at last search or reset

    94 static unsigned char* s_curValues = 0; // values at last frame update

    95 static unsigned short* s_numChanges = 0; // number of changes of the item starting at this virtual index address

    96 static MemoryRegion** s_itemIndexToRegionPointer = 0; // used for random access into the memory list (trading memory size to get speed here, too bad it's so much memory), only valid when s_itemIndicesInvalid is false

    97 static BOOL s_itemIndicesInvalid = true; // if true, the link from listbox items to memory regions (s_itemIndexToRegionPointer) and the link from memory regions to list box items (MemoryRegion::itemIndex) both need to be recalculated

    98 static BOOL s_prevValuesNeedUpdate = true; // if true, the "prev" values should be updated using the "cur" values on the next frame update signaled

    99 static unsigned int s_maxItemIndex = 0; // max currently valid item index, the listbox sometimes tries to update things past the end of the list so we need to know this to ignore those attempts

   100 static int s_prevSelCount = -1;

   101 

   102 HWND RamSearchHWnd;

   103 #define hWnd AfxGetMainWnd()->GetSafeHwnd()

   104 #define hInst AfxGetInstanceHandle()

   105 static char Str_Tmp [1024];

   106 

   107 int disableRamSearchUpdate = false;

   108 

   109 

   110 

   111 //static const MemoryRegion s_prgRegion    = {  0x020000, SEGACD_RAM_PRG_SIZE, (unsigned char*)Ram_Prg,     true};

   112 //static const MemoryRegion s_word1MRegion = {  0x200000, SEGACD_1M_RAM_SIZE,  (unsigned char*)Ram_Word_1M, true};

   113 //static const MemoryRegion s_word2MRegion = {  0x200000, SEGACD_2M_RAM_SIZE,  (unsigned char*)Ram_Word_2M, true};

   114 //static const MemoryRegion s_z80Region    = {  0xA00000, Z80_RAM_SIZE,        (unsigned char*)Ram_Z80,     true};

   115 //static const MemoryRegion s_68kRegion    = {  0xFF0000, _68K_RAM_SIZE,       (unsigned char*)Ram_68k,     true};

   116 //static const MemoryRegion s_32xRegion    = {0x06000000, _32X_RAM_SIZE,       (unsigned char*)_32X_Ram,    false};

   117 

   118 // list of contiguous uneliminated memory regions

   119 typedef std::list<MemoryRegion> MemoryList;

   120 static MemoryList s_activeMemoryRegions;

   121 static CRITICAL_SECTION s_activeMemoryRegionsCS;

   122 

   123 // for undo support (could be better, but this way was really easy)

   124 static MemoryList s_activeMemoryRegionsBackup;

   125 static int s_undoType = 0; // 0 means can't undo, 1 means can undo, 2 means can redo

   126 

   127 void RamSearchSaveUndoStateIfNotTooBig(HWND hDlg);

   128 static const int tooManyRegionsForUndo = 10000;

   129 

   130 void ResetMemoryRegions()

   131 {

   132 	systemSoundClearBuffer();

   133 	EnterCriticalSection(&s_activeMemoryRegionsCS);

   134 

   135 	s_activeMemoryRegions.clear();

   136 

   137 	// use HardwareToSoftwareAddress to figure out what all the possible memory regions are,

   138 	// split up wherever there's a discontinuity in the address in our software RAM.

   139 	static const int regionSearchGranularity = 0x100; // if this is too small, we'll waste time (in this function only), but if any region in RAM isn't evenly divisible by this, we might crash.

   140 	HWAddressType hwRegionStart = 0;

   141 	u8* regionStart = NULL;

   142 	u8* regionEnd = NULL;

   143 	for(HWAddressType addr = 0; addr != 0x10000000+regionSearchGranularity; addr += regionSearchGranularity)

   144 	{

   145 		u8* swAddr = HardwareToSoftwareAddress(addr);

   146 		if(regionEnd && swAddr != regionEnd+regionSearchGranularity)

   147 		{

   148 			// hit end of region

   149 			// check to see if it mirrors an existing one (in which case we discard it)

   150 			bool discard = false;

   151 			for(MemoryList::iterator iter = s_activeMemoryRegions.begin(); iter != s_activeMemoryRegions.end(); ++iter)

   152 			{

   153 				MemoryRegion& region = *iter;

   154 				if(region.softwareAddress == regionStart)

   155 				{

   156 					unsigned int size = regionSearchGranularity + (regionEnd - regionStart);

   157 					if(size <= region.size)

   158 					{

   159 						discard = true;

   160 					}

   161 					else

   162 					{

   163 						hwRegionStart += region.size;

   164 						regionStart += region.size;

   165 					}

   166 					break;

   167 				}

   168 			}

   169 			

   170 			// don't include ROM in our RAM search (it's too huge)

   171 			if(regionStart == rom || regionStart == gbRom)

   172 				discard = true;

   173 

   174 			// create the region

   175 			if(!discard)

   176 			{

   177 				MemoryRegion region = { hwRegionStart, regionSearchGranularity + (regionEnd - regionStart), regionStart };

   178 				s_activeMemoryRegions.push_back(region);

   179 			}

   180 

   181 			hwRegionStart = 0;

   182 			regionStart = NULL;

   183 			regionEnd = NULL;

   184 		}

   185 		if(swAddr)

   186 		{

   187 			if(regionStart)

   188 			{

   189 				// continue region

   190 				regionEnd = swAddr;

   191 			}

   192 			else

   193 			{

   194 				// start new region

   195 				hwRegionStart = addr;

   196 				regionStart = swAddr;

   197 				regionEnd = swAddr;

   198 			}

   199 		}

   200 	}

   201 

   202 

   203 	int nextVirtualIndex = 0;

   204 	for(MemoryList::iterator iter = s_activeMemoryRegions.begin(); iter != s_activeMemoryRegions.end(); ++iter)

   205 	{

   206 		MemoryRegion& region = *iter;

   207 		region.virtualIndex = nextVirtualIndex;

   208 		assert(((intptr_t)region.softwareAddress & 1) == 0 && "somebody needs to reimplement ReadValueAtSoftwareAddress()");

   209 		nextVirtualIndex = region.virtualIndex + region.size;

   210 	}

   211 	//assert(nextVirtualIndex <= MAX_RAM_SIZE);

   212 

   213 	if(nextVirtualIndex > MAX_RAM_SIZE)

   214 	{

   215 		s_prevValues = (unsigned char*)realloc(s_prevValues, sizeof(char)*(nextVirtualIndex+4));

   216 		memset(s_prevValues, 0, sizeof(char)*(nextVirtualIndex+4));

   217 

   218 		s_curValues = (unsigned char*)realloc(s_curValues, sizeof(char)*(nextVirtualIndex+4));

   219 		memset(s_curValues, 0, sizeof(char)*(nextVirtualIndex+4));

   220 

   221 		s_numChanges = (unsigned short*)realloc(s_numChanges, sizeof(short)*(nextVirtualIndex+4));

   222 		memset(s_numChanges, 0, sizeof(short)*(nextVirtualIndex+4));

   223 

   224 		s_itemIndexToRegionPointer = (MemoryRegion**)realloc(s_itemIndexToRegionPointer, sizeof(MemoryRegion*)*(nextVirtualIndex+4));

   225 		memset(s_itemIndexToRegionPointer, 0, sizeof(MemoryRegion*)*(nextVirtualIndex+4));

   226 

   227 		MAX_RAM_SIZE = nextVirtualIndex;

   228 	}

   229 	LeaveCriticalSection(&s_activeMemoryRegionsCS);

   230 }

   231 

   232 // eliminates a range of hardware addresses from the search results

   233 // returns 2 if it changed the region and moved the iterator to another region

   234 // returns 1 if it changed the region but didn't move the iterator

   235 // returns 0 if it had no effect

   236 // warning: don't call anything that takes an itemIndex in a loop that calls DeactivateRegion...

   237 //   doing so would be tremendously slow because DeactivateRegion invalidates the index cache

   238 int DeactivateRegion(MemoryRegion& region, MemoryList::iterator& iter, HWAddressType hardwareAddress, unsigned int size)

   239 {

   240 	if(hardwareAddress + size <= region.hardwareAddress || hardwareAddress >= region.hardwareAddress + region.size)

   241 	{

   242 		// region is unaffected

   243 		return 0;

   244 	}

   245 	else if(hardwareAddress > region.hardwareAddress && hardwareAddress + size >= region.hardwareAddress + region.size)

   246 	{

   247 		// erase end of region

   248 		region.size = hardwareAddress - region.hardwareAddress;

   249 		return 1;

   250 	}

   251 	else if(hardwareAddress <= region.hardwareAddress && hardwareAddress + size < region.hardwareAddress + region.size)

   252 	{

   253 		// erase start of region

   254 		int eraseSize = (hardwareAddress + size) - region.hardwareAddress;

   255 		region.hardwareAddress += eraseSize;

   256 		region.size -= eraseSize;

   257 		region.softwareAddress += eraseSize;

   258 		region.virtualIndex += eraseSize;

   259 		return 1;

   260 	}

   261 	else if(hardwareAddress <= region.hardwareAddress && hardwareAddress + size >= region.hardwareAddress + region.size)

   262 	{

   263 		// erase entire region

   264 		iter = s_activeMemoryRegions.erase(iter);

   265 		s_itemIndicesInvalid = TRUE;

   266 		return 2;

   267 	}

   268 	else //if(hardwareAddress > region.hardwareAddress && hardwareAddress + size < region.hardwareAddress + region.size)

   269 	{

   270 		// split region

   271 		int eraseSize = (hardwareAddress + size) - region.hardwareAddress;

   272 		MemoryRegion region2 = {region.hardwareAddress + eraseSize, region.size - eraseSize, region.softwareAddress + eraseSize, region.virtualIndex + eraseSize};

   273 		region.size = hardwareAddress - region.hardwareAddress;

   274 		iter = s_activeMemoryRegions.insert(++iter, region2);

   275 		s_itemIndicesInvalid = TRUE;

   276 		return 2;

   277 	}

   278 }

   279 

   280 /*

   281 // eliminates a range of hardware addresses from the search results

   282 // this is a simpler but usually slower interface for the above function

   283 void DeactivateRegion(HWAddressType hardwareAddress, unsigned int size)

   284 {

   285 	for(MemoryList::iterator iter = s_activeMemoryRegions.begin(); iter != s_activeMemoryRegions.end(); )

   286 	{

   287 		MemoryRegion& region = *iter;

   288 		if(2 != DeactivateRegion(region, iter, hardwareAddress, size))

   289 			++iter;

   290 	}

   291 }

   292 */

   293 

   294 struct AutoCritSect

   295 {

   296 	AutoCritSect(CRITICAL_SECTION* cs) : m_cs(cs) { EnterCriticalSection(m_cs); }

   297 	~AutoCritSect() { LeaveCriticalSection(m_cs); }

   298 	CRITICAL_SECTION* m_cs;

   299 };

   300 

   301 // warning: can be slow

   302 void CalculateItemIndices(int itemSize)

   303 {

   304 	AutoCritSect cs(&s_activeMemoryRegionsCS);

   305 	unsigned int itemIndex = 0;

   306 	for(MemoryList::iterator iter = s_activeMemoryRegions.begin(); iter != s_activeMemoryRegions.end(); ++iter)

   307 	{

   308 		MemoryRegion& region = *iter;

   309 		region.itemIndex = itemIndex;

   310 		int startSkipSize = ((unsigned int)(itemSize - (unsigned int)region.hardwareAddress)) % itemSize; // FIXME: is this still ok?

   311 		unsigned int start = startSkipSize;

   312 		unsigned int end = region.size;

   313 		for(unsigned int i = start; i < end; i += itemSize)

   314 			s_itemIndexToRegionPointer[itemIndex++] = &region;

   315 	}

   316 	s_maxItemIndex = itemIndex;

   317 	s_itemIndicesInvalid = FALSE;

   318 }

   319 

   320 template<typename stepType, typename compareType>

   321 void UpdateRegionT(const MemoryRegion& region, const MemoryRegion* nextRegionPtr)

   322 {

   323 	//if(GetAsyncKeyState(VK_SHIFT) & 0x8000) // speed hack

   324 	//	return;

   325 

   326 	if(s_prevValuesNeedUpdate)

   327 		memcpy(s_prevValues + region.virtualIndex, s_curValues + region.virtualIndex, region.size + sizeof(compareType) - sizeof(stepType));

   328 

   329 	unsigned int startSkipSize = ((unsigned int)(sizeof(stepType) - region.hardwareAddress)) % sizeof(stepType);

   330 

   331 

   332 	unsigned char* sourceAddr = region.softwareAddress - region.virtualIndex;

   333 

   334 	unsigned int indexStart = region.virtualIndex + startSkipSize;

   335 	unsigned int indexEnd = region.virtualIndex + region.size;

   336 

   337 	if(sizeof(compareType) == 1)

   338 	{

   339 		for(unsigned int i = indexStart; i < indexEnd; i++)

   340 		{

   341 			if(s_curValues[i] != sourceAddr[i]) // if value changed

   342 			{

   343 				s_curValues[i] = sourceAddr[i]; // update value

   344 				//if(s_numChanges[i] != 0xFFFF)

   345 					s_numChanges[i]++; // increase change count

   346 			}

   347 		}

   348 	}

   349 	else // it's more complicated for non-byte sizes because:

   350 	{    // - more than one byte can affect a given change count entry

   351 	     // - when more than one of those bytes changes simultaneously the entry's change count should only increase by 1

   352 	     // - a few of those bytes can be outside the region

   353 

   354 		unsigned int endSkipSize = ((unsigned int)(startSkipSize - region.size)) % sizeof(stepType);

   355 		unsigned int lastIndexToRead = indexEnd + endSkipSize + sizeof(compareType) - sizeof(stepType);

   356 		unsigned int lastIndexToCopy = lastIndexToRead;

   357 		if(nextRegionPtr)

   358 		{

   359 			const MemoryRegion& nextRegion = *nextRegionPtr;

   360 			int nextStartSkipSize = ((unsigned int)(sizeof(stepType) - nextRegion.hardwareAddress)) % sizeof(stepType);

   361 			unsigned int nextIndexStart = nextRegion.virtualIndex + nextStartSkipSize;

   362 			if(lastIndexToCopy > nextIndexStart)

   363 				lastIndexToCopy = nextIndexStart;

   364 		}

   365 

   366 		unsigned int nextValidChange [sizeof(compareType)];

   367 		for(unsigned int i = 0; i < sizeof(compareType); i++)

   368 			nextValidChange[i] = indexStart + i;

   369 

   370 		for(unsigned int i = indexStart, j = 0; i < lastIndexToRead; i++, j++)

   371 		{

   372 			if(s_curValues[i] != sourceAddr[i]) // if value of this byte changed

   373 			{

   374 				if(i < lastIndexToCopy)

   375 					s_curValues[i] = sourceAddr[i]; // update value

   376 				for(int k = 0; k < sizeof(compareType); k++) // loop through the previous entries that contain this byte

   377 				{

   378 					if(i >= indexEnd+k)

   379 						continue;

   380 					int m = (j-k+sizeof(compareType)) & (sizeof(compareType)-1);

   381 					if(nextValidChange[m] <= i) // if we didn't already increase the change count for this entry

   382 					{

   383 						//if(s_numChanges[i-k] != 0xFFFF)

   384 							s_numChanges[i-k]++; // increase the change count for this entry

   385 						nextValidChange[m] = i-k+sizeof(compareType); // and remember not to increase it again

   386 					}

   387 				}

   388 			}

   389 		}

   390 	}

   391 }

   392 

   393 template<typename stepType, typename compareType>

   394 void UpdateRegionsT()

   395 {

   396 	for(MemoryList::iterator iter = s_activeMemoryRegions.begin(); iter != s_activeMemoryRegions.end();)

   397 	{

   398 		const MemoryRegion& region = *iter;

   399 		++iter;

   400 		const MemoryRegion* nextRegion = (iter == s_activeMemoryRegions.end()) ? NULL : &*iter;

   401 

   402 		UpdateRegionT<stepType, compareType>(region, nextRegion);

   403 	}

   404 

   405 	s_prevValuesNeedUpdate = false;

   406 }

   407 

   408 template<typename stepType, typename compareType>

   409 int CountRegionItemsT()

   410 {

   411 	AutoCritSect cs(&s_activeMemoryRegionsCS);

   412 	if(sizeof(stepType) == 1)

   413 	{

   414 		if(s_activeMemoryRegions.empty())

   415 			return 0;

   416 

   417 		if(s_itemIndicesInvalid)

   418 			CalculateItemIndices(sizeof(stepType));

   419 

   420 		MemoryRegion& lastRegion = s_activeMemoryRegions.back();

   421 		return lastRegion.itemIndex + lastRegion.size;

   422 	}

   423 	else // the branch above is faster but won't work if the step size isn't 1

   424 	{

   425 		int total = 0;

   426 		for(MemoryList::iterator iter = s_activeMemoryRegions.begin(); iter != s_activeMemoryRegions.end(); ++iter)

   427 		{

   428 			MemoryRegion& region = *iter;

   429 			int startSkipSize = ((unsigned int)(sizeof(stepType) - region.hardwareAddress)) % sizeof(stepType);

   430 			total += (region.size - startSkipSize + (sizeof(stepType)-1)) / sizeof(stepType);

   431 		}

   432 		return total;

   433 	}

   434 }

   435 

   436 // returns information about the item in the form of a "fake" region

   437 // that has the item in it and nothing else

   438 template<typename stepType, typename compareType>

   439 void ItemIndexToVirtualRegion(unsigned int itemIndex, MemoryRegion& virtualRegion)

   440 {

   441 	if(s_itemIndicesInvalid)

   442 		CalculateItemIndices(sizeof(stepType));

   443 

   444 	if(itemIndex >= s_maxItemIndex)

   445 	{

   446 		memset(&virtualRegion, 0, sizeof(MemoryRegion));

   447 		return;

   448 	}

   449 

   450 	const MemoryRegion* regionPtr = s_itemIndexToRegionPointer[itemIndex];

   451 	const MemoryRegion& region = *regionPtr;

   452 

   453 	int bytesWithinRegion = (itemIndex - region.itemIndex) * sizeof(stepType);

   454 	int startSkipSize = ((unsigned int)(sizeof(stepType) - region.hardwareAddress)) % sizeof(stepType);

   455 	bytesWithinRegion += startSkipSize;

   456 	

   457 	virtualRegion.size = sizeof(compareType);

   458 	virtualRegion.hardwareAddress = region.hardwareAddress + bytesWithinRegion;

   459 	virtualRegion.softwareAddress = region.softwareAddress + bytesWithinRegion;

   460 	virtualRegion.virtualIndex = region.virtualIndex + bytesWithinRegion;

   461 	virtualRegion.itemIndex = itemIndex;

   462 	return;

   463 }

   464 

   465 template<typename stepType, typename compareType>

   466 unsigned int ItemIndexToVirtualIndex(unsigned int itemIndex)

   467 {

   468 	MemoryRegion virtualRegion;

   469 	ItemIndexToVirtualRegion<stepType,compareType>(itemIndex, virtualRegion);

   470 	return virtualRegion.virtualIndex;

   471 }

   472 

   473 template<typename T>

   474 T ReadLocalValue(const unsigned char* data)

   475 {

   476 	return *(const T*)data;

   477 }

   478 //template<> signed char ReadLocalValue(const unsigned char* data) { return *data; }

   479 //template<> unsigned char ReadLocalValue(const unsigned char* data) { return *data; }

   480 

   481 

   482 template<typename stepType, typename compareType>

   483 compareType GetPrevValueFromVirtualIndex(unsigned int virtualIndex)

   484 {

   485 	return ReadLocalValue<compareType>(s_prevValues + virtualIndex);

   486 	//return *(compareType*)(s_prevValues+virtualIndex);

   487 }

   488 template<typename stepType, typename compareType>

   489 compareType GetCurValueFromVirtualIndex(unsigned int virtualIndex)

   490 {

   491 	return ReadLocalValue<compareType>(s_curValues + virtualIndex);

   492 //	return *(compareType*)(s_curValues+virtualIndex);

   493 }

   494 template<typename stepType, typename compareType>

   495 unsigned short GetNumChangesFromVirtualIndex(unsigned int virtualIndex)

   496 {

   497 	unsigned short num = s_numChanges[virtualIndex];

   498 	//for(unsigned int i = 1; i < sizeof(stepType); i++)

   499 	//	if(num < s_numChanges[virtualIndex+i])

   500 	//		num = s_numChanges[virtualIndex+i];

   501 	return num;

   502 }

   503 

   504 template<typename stepType, typename compareType>

   505 compareType GetPrevValueFromItemIndex(unsigned int itemIndex)

   506 {

   507 	int virtualIndex = ItemIndexToVirtualIndex<stepType,compareType>(itemIndex);

   508 	return GetPrevValueFromVirtualIndex<stepType,compareType>(virtualIndex);

   509 }

   510 template<typename stepType, typename compareType>

   511 compareType GetCurValueFromItemIndex(unsigned int itemIndex)

   512 {

   513 	int virtualIndex = ItemIndexToVirtualIndex<stepType,compareType>(itemIndex);

   514 	return GetCurValueFromVirtualIndex<stepType,compareType>(virtualIndex);

   515 }

   516 template<typename stepType, typename compareType>

   517 unsigned short GetNumChangesFromItemIndex(unsigned int itemIndex)

   518 {

   519 	int virtualIndex = ItemIndexToVirtualIndex<stepType,compareType>(itemIndex);

   520 	return GetNumChangesFromVirtualIndex<stepType,compareType>(virtualIndex);

   521 }

   522 template<typename stepType, typename compareType>

   523 unsigned int GetHardwareAddressFromItemIndex(unsigned int itemIndex)

   524 {

   525 	MemoryRegion virtualRegion;

   526 	ItemIndexToVirtualRegion<stepType,compareType>(itemIndex, virtualRegion);

   527 	return virtualRegion.hardwareAddress;

   528 }

   529 

   530 // this one might be unreliable, haven't used it much

   531 template<typename stepType, typename compareType>

   532 unsigned int HardwareAddressToItemIndex(HWAddressType hardwareAddress)

   533 {

   534 	if(s_itemIndicesInvalid)

   535 		CalculateItemIndices(sizeof(stepType));

   536 

   537 	for(MemoryList::iterator iter = s_activeMemoryRegions.begin(); iter != s_activeMemoryRegions.end(); ++iter)

   538 	{

   539 		MemoryRegion& region = *iter;

   540 		if(hardwareAddress >= region.hardwareAddress && hardwareAddress < region.hardwareAddress + region.size)

   541 		{

   542 			int indexWithinRegion = (hardwareAddress - region.hardwareAddress) / sizeof(stepType);

   543 			return region.itemIndex + indexWithinRegion;

   544 		}

   545 	}

   546 

   547 	return -1;

   548 }

   549 

   550 

   551 

   552 // workaround for MSVC 7 that doesn't support varadic C99 macros

   553 #define CALL_WITH_T_SIZE_TYPES_0(functionName, sizeTypeID, isSigned, requiresAligned) \

   554 	(sizeTypeID == 'b' \

   555 		? (isSigned \

   556 			? functionName<char, signed char>() \

   557 			: functionName<char, unsigned char>()) \

   558 	: sizeTypeID == 'w' \

   559 		? (isSigned \

   560 			? (requiresAligned \

   561 				? functionName<short, signed short>() \

   562 				: functionName<char, signed short>()) \

   563 			: (requiresAligned \

   564 				? functionName<short, unsigned short>() \

   565 				: functionName<char, unsigned short>())) \

   566 	: sizeTypeID == 'd' \

   567 		? (isSigned \

   568 			? (requiresAligned \

   569 				? functionName<short, signed long>() \

   570 				: functionName<char, signed long>()) \

   571 			: (requiresAligned \

   572 				? functionName<short, unsigned long>() \

   573 				: functionName<char, unsigned long>())) \

   574 	: functionName<char, signed char>())

   575 

   576 #define CALL_WITH_T_SIZE_TYPES_1(functionName, sizeTypeID, isSigned, requiresAligned, p0) \

   577 	(sizeTypeID == 'b' \

   578 		? (isSigned \

   579 			? functionName<char, signed char>(p0) \

   580 			: functionName<char, unsigned char>(p0)) \

   581 	: sizeTypeID == 'w' \

   582 		? (isSigned \

   583 			? (requiresAligned \

   584 				? functionName<short, signed short>(p0) \

   585 				: functionName<char, signed short>(p0)) \

   586 			: (requiresAligned \

   587 				? functionName<short, unsigned short>(p0) \

   588 				: functionName<char, unsigned short>(p0))) \

   589 	: sizeTypeID == 'd' \

   590 		? (isSigned \

   591 			? (requiresAligned \

   592 				? functionName<short, signed long>(p0) \

   593 				: functionName<char, signed long>(p0)) \

   594 			: (requiresAligned \

   595 				? functionName<short, unsigned long>(p0) \

   596 				: functionName<char, unsigned long>(p0))) \

   597 	: functionName<char, signed char>(p0))

   598 

   599 #define CALL_WITH_T_SIZE_TYPES_3(functionName, sizeTypeID, isSigned, requiresAligned, p0, p1, p2) \

   600 	(sizeTypeID == 'b' \

   601 		? (isSigned \

   602 			? functionName<char, signed char>(p0, p1, p2) \

   603 			: functionName<char, unsigned char>(p0, p1, p2)) \

   604 	: sizeTypeID == 'w' \

   605 		? (isSigned \

   606 			? (requiresAligned \

   607 				? functionName<short, signed short>(p0, p1, p2) \

   608 				: functionName<char, signed short>(p0, p1, p2)) \

   609 			: (requiresAligned \

   610 				? functionName<short, unsigned short>(p0, p1, p2) \

   611 				: functionName<char, unsigned short>(p0, p1, p2))) \

   612 	: sizeTypeID == 'd' \

   613 		? (isSigned \

   614 			? (requiresAligned \

   615 				? functionName<short, signed long>(p0, p1, p2) \

   616 				: functionName<char, signed long>(p0, p1, p2)) \

   617 			: (requiresAligned \

   618 				? functionName<short, unsigned long>(p0, p1, p2) \

   619 				: functionName<char, unsigned long>(p0, p1, p2))) \

   620 	: functionName<char, signed char>(p0, p1, p2))

   621 

   622 #define CALL_WITH_T_SIZE_TYPES_4(functionName, sizeTypeID, isSigned, requiresAligned, p0, p1, p2, p3) \

   623 	(sizeTypeID == 'b' \

   624 		? (isSigned \

   625 			? functionName<char, signed char>(p0, p1, p2, p3) \

   626 			: functionName<char, unsigned char>(p0, p1, p2, p3)) \

   627 	: sizeTypeID == 'w' \

   628 		? (isSigned \

   629 			? (requiresAligned \

   630 				? functionName<short, signed short>(p0, p1, p2, p3) \

   631 				: functionName<char, signed short>(p0, p1, p2, p3)) \

   632 			: (requiresAligned \

   633 				? functionName<short, unsigned short>(p0, p1, p2, p3) \

   634 				: functionName<char, unsigned short>(p0, p1, p2, p3))) \

   635 	: sizeTypeID == 'd' \

   636 		? (isSigned \

   637 			? (requiresAligned \

   638 				? functionName<short, signed long>(p0, p1, p2, p3) \

   639 				: functionName<char, signed long>(p0, p1, p2, p3)) \

   640 			: (requiresAligned \

   641 				? functionName<short, unsigned long>(p0, p1, p2, p3) \

   642 				: functionName<char, unsigned long>(p0, p1, p2, p3))) \

   643 	: functionName<char, signed char>(p0, p1, p2, p3))

   644 

   645 // version that takes a forced comparison type

   646 #define CALL_WITH_T_STEP_3(functionName, sizeTypeID, type, requiresAligned, p0, p1, p2) \

   647 	(sizeTypeID == 'b' \

   648 		? functionName<char, type>(p0, p1, p2) \

   649 	: sizeTypeID == 'w' \

   650 		? (requiresAligned \

   651 			? functionName<short, type>(p0, p1, p2) \

   652 			: functionName<char, type>(p0, p1, p2)) \

   653 	: sizeTypeID == 'd' \

   654 		? (requiresAligned \

   655 			? functionName<short, type>(p0, p1, p2) \

   656 			: functionName<char, type>(p0, p1, p2)) \

   657 	: functionName<char, type>(p0, p1, p2))

   658 

   659 // version that takes a forced comparison type

   660 #define CALL_WITH_T_STEP_4(functionName, sizeTypeID, type, requiresAligned, p0, p1, p2, p3) \

   661 	(sizeTypeID == 'b' \

   662 		? functionName<char, type>(p0, p1, p2, p3) \

   663 	: sizeTypeID == 'w' \

   664 		? (requiresAligned \

   665 			? functionName<short, type>(p0, p1, p2, p3) \

   666 			: functionName<char, type>(p0, p1, p2, p3)) \

   667 	: sizeTypeID == 'd' \

   668 		? (requiresAligned \

   669 			? functionName<short, type>(p0, p1, p2, p3) \

   670 			: functionName<char, type>(p0, p1, p2, p3)) \

   671 	: functionName<char, type>(p0, p1, p2, p3))

   672 

   673 // basic comparison functions:

   674 template <typename T> inline bool LessCmp (T x, T y, T i)        { return x < y; }

   675 template <typename T> inline bool MoreCmp (T x, T y, T i)        { return x > y; }

   676 template <typename T> inline bool LessEqualCmp (T x, T y, T i)   { return x <= y; }

   677 template <typename T> inline bool MoreEqualCmp (T x, T y, T i)   { return x >= y; }

   678 template <typename T> inline bool EqualCmp (T x, T y, T i)       { return x == y; }

   679 template <typename T> inline bool UnequalCmp (T x, T y, T i)     { return x != y; }

   680 template <typename T> inline bool DiffByCmp (T x, T y, T p)      { return x - y == p || y - x == p; }

   681 template <typename T> inline bool ModIsCmp (T x, T y, T p)       { return p && x % p == y; }

   682 

   683 // compare-to type functions:

   684 template<typename stepType, typename T>

   685 void SearchRelative (bool(*cmpFun)(T,T,T), T ignored, T param)

   686 {

   687 	for(MemoryList::iterator iter = s_activeMemoryRegions.begin(); iter != s_activeMemoryRegions.end(); )

   688 	{

   689 		MemoryRegion& region = *iter;

   690 		int startSkipSize = ((unsigned int)(sizeof(stepType) - region.hardwareAddress)) % sizeof(stepType);

   691 		unsigned int start = region.virtualIndex + startSkipSize;

   692 		unsigned int end = region.virtualIndex + region.size;

   693 		for(unsigned int i = start, hwaddr = region.hardwareAddress; i < end; i += sizeof(stepType), hwaddr += sizeof(stepType))

   694 			if(!cmpFun(GetCurValueFromVirtualIndex<stepType,T>(i), GetPrevValueFromVirtualIndex<stepType,T>(i), param))

   695 				if(2 == DeactivateRegion(region, iter, hwaddr, sizeof(stepType)))

   696 					goto outerContinue;

   697 		++iter;

   698 outerContinue:

   699 		continue;

   700 	}

   701 }

   702 template<typename stepType, typename T>

   703 void SearchSpecific (bool(*cmpFun)(T,T,T), T value, T param)

   704 {

   705 	for(MemoryList::iterator iter = s_activeMemoryRegions.begin(); iter != s_activeMemoryRegions.end(); )

   706 	{

   707 		MemoryRegion& region = *iter;

   708 		int startSkipSize = ((unsigned int)(sizeof(stepType) - region.hardwareAddress)) % sizeof(stepType);

   709 		unsigned int start = region.virtualIndex + startSkipSize;

   710 		unsigned int end = region.virtualIndex + region.size;

   711 		for(unsigned int i = start, hwaddr = region.hardwareAddress; i < end; i += sizeof(stepType), hwaddr += sizeof(stepType))

   712 			if(!cmpFun(GetCurValueFromVirtualIndex<stepType,T>(i), value, param))

   713 				if(2 == DeactivateRegion(region, iter, hwaddr, sizeof(stepType)))

   714 					goto outerContinue;

   715 		++iter;

   716 outerContinue:

   717 		continue;

   718 	}

   719 }

   720 template<typename stepType, typename T>

   721 void SearchAddress (bool(*cmpFun)(T,T,T), T address, T param)

   722 {

   723 	for(MemoryList::iterator iter = s_activeMemoryRegions.begin(); iter != s_activeMemoryRegions.end(); )

   724 	{

   725 		MemoryRegion& region = *iter;

   726 		int startSkipSize = ((unsigned int)(sizeof(stepType) - region.hardwareAddress)) % sizeof(stepType);

   727 		unsigned int start = region.virtualIndex + startSkipSize;

   728 		unsigned int end = region.virtualIndex + region.size;

   729 		for(unsigned int i = start, hwaddr = region.hardwareAddress; i < end; i += sizeof(stepType), hwaddr += sizeof(stepType))

   730 			if(!cmpFun(hwaddr, address, param))

   731 				if(2 == DeactivateRegion(region, iter, hwaddr, sizeof(stepType)))

   732 					goto outerContinue;

   733 		++iter;

   734 outerContinue:

   735 		continue;

   736 	}

   737 }

   738 template<typename stepType, typename T>

   739 void SearchChanges (bool(*cmpFun)(T,T,T), T changes, T param)

   740 {

   741 	for(MemoryList::iterator iter = s_activeMemoryRegions.begin(); iter != s_activeMemoryRegions.end(); )

   742 	{

   743 		MemoryRegion& region = *iter;

   744 		int startSkipSize = ((unsigned int)(sizeof(stepType) - region.hardwareAddress)) % sizeof(stepType);

   745 		unsigned int start = region.virtualIndex + startSkipSize;

   746 		unsigned int end = region.virtualIndex + region.size;

   747 		for(unsigned int i = start, hwaddr = region.hardwareAddress; i < end; i += sizeof(stepType), hwaddr += sizeof(stepType))

   748 			if(!cmpFun(GetNumChangesFromVirtualIndex<stepType,T>(i), changes, param))

   749 				if(2 == DeactivateRegion(region, iter, hwaddr, sizeof(stepType)))

   750 					goto outerContinue;

   751 		++iter;

   752 outerContinue:

   753 		continue;

   754 	}

   755 }

   756 

   757 char rs_c='s';

   758 char rs_o='=';

   759 char rs_t='s';

   760 int rs_param=0, rs_val=0, rs_val_valid=0;

   761 char rs_type_size = 'b', rs_last_type_size = rs_type_size;

   762 bool noMisalign = true, rs_last_no_misalign = noMisalign;

   763 //bool littleEndian = false;

   764 int last_rs_possible = -1;

   765 int last_rs_regions = -1;

   766 

   767 void prune(char c,char o,char t,int v,int p)

   768 {

   769 	// repetition-reducing macros

   770 	#define DO_SEARCH(sf) \

   771 	switch (o) \

   772 	{ \

   773 		case '<': DO_SEARCH_2(LessCmp,sf); break; \

   774 		case '>': DO_SEARCH_2(MoreCmp,sf); break; \

   775 		case '=': DO_SEARCH_2(EqualCmp,sf); break; \

   776 		case '!': DO_SEARCH_2(UnequalCmp,sf); break; \

   777 		case 'l': DO_SEARCH_2(LessEqualCmp,sf); break; \

   778 		case 'm': DO_SEARCH_2(MoreEqualCmp,sf); break; \

   779 		case 'd': DO_SEARCH_2(DiffByCmp,sf); break; \

   780 		case '%': DO_SEARCH_2(ModIsCmp,sf); break; \

   781 		default: assert(!"Invalid operator for this search type."); break; \

   782 	}

   783 

   784 	// perform the search, eliminating nonmatching values

   785 	switch (c)

   786 	{

   787 		#define DO_SEARCH_2(CmpFun,sf) CALL_WITH_T_SIZE_TYPES_3(sf, rs_type_size, t, noMisalign, CmpFun,v,p)

   788 		case 'r': DO_SEARCH(SearchRelative); break;

   789 		case 's': DO_SEARCH(SearchSpecific); break;

   790 

   791 		#undef DO_SEARCH_2

   792 		#define DO_SEARCH_2(CmpFun,sf) CALL_WITH_T_STEP_3(sf, rs_type_size, unsigned int, noMisalign, CmpFun,v,p)

   793 		case 'a': DO_SEARCH(SearchAddress); break;

   794 

   795 		#undef DO_SEARCH_2

   796 		#define DO_SEARCH_2(CmpFun,sf) CALL_WITH_T_STEP_3(sf, rs_type_size, unsigned short, noMisalign, CmpFun,v,p)

   797 		case 'n': DO_SEARCH(SearchChanges); break;

   798 

   799 		default: assert(!"Invalid search comparison type."); break;

   800 	}

   801 

   802 	s_prevValuesNeedUpdate = true;

   803 

   804 	int prevNumItems = last_rs_possible;

   805 

   806 	CompactAddrs();

   807 

   808 	if(prevNumItems == last_rs_possible)

   809 	{

   810 		SetRamSearchUndoType(RamSearchHWnd, 0); // nothing to undo

   811 	}

   812 }

   813 

   814 

   815 

   816 

   817 template<typename stepType, typename T>

   818 bool CompareRelativeAtItem (bool(*cmpFun)(T,T,T), int itemIndex, T ignored, T param)

   819 {

   820 	return cmpFun(GetCurValueFromItemIndex<stepType,T>(itemIndex), GetPrevValueFromItemIndex<stepType,T>(itemIndex), param);

   821 }

   822 template<typename stepType, typename T>

   823 bool CompareSpecificAtItem (bool(*cmpFun)(T,T,T), int itemIndex, T value, T param)

   824 {

   825 	return cmpFun(GetCurValueFromItemIndex<stepType,T>(itemIndex), value, param);

   826 }

   827 template<typename stepType, typename T>

   828 bool CompareAddressAtItem (bool(*cmpFun)(T,T,T), int itemIndex, T address, T param)

   829 {

   830 	return cmpFun(GetHardwareAddressFromItemIndex<stepType,T>(itemIndex), address, param);

   831 }

   832 template<typename stepType, typename T>

   833 bool CompareChangesAtItem (bool(*cmpFun)(T,T,T), int itemIndex, T changes, T param)

   834 {

   835 	return cmpFun(GetNumChangesFromItemIndex<stepType,T>(itemIndex), changes, param);

   836 }

   837 

   838 int ReadControlInt(int controlID, bool forceHex, BOOL& success)

   839 {

   840 	int rv = 0;

   841 	BOOL ok = false;

   842 

   843 	if(!forceHex)

   844 	{

   845 		rv = GetDlgItemInt(RamSearchHWnd,controlID,&ok,(rs_t == 's'));

   846 	}

   847 

   848 	if(!ok)

   849 	{

   850 		if(GetDlgItemText(RamSearchHWnd,controlID,Str_Tmp,16))

   851 		{

   852 			for(int i = 0; Str_Tmp[i]; i++) {if(toupper(Str_Tmp[i]) == 'O') Str_Tmp[i] = '0';}

   853 			const char* strPtr = Str_Tmp;

   854 			bool negate = false;

   855 			while(strPtr[0] == '-')

   856 				strPtr++, negate = !negate;

   857 			if(strPtr[0] == '+')

   858 				strPtr++;

   859 			if(strPtr[0] == '0' && tolower(strPtr[1]) == 'x')

   860 				strPtr += 2, forceHex = true;

   861 			if(strPtr[0] == '$')

   862 				strPtr++, forceHex = true;

   863 			if(!forceHex)

   864 			{

   865 				const char* strSearchPtr = strPtr;

   866 				while(*strSearchPtr)

   867 				{

   868 					int c = tolower(*strSearchPtr++);

   869 					if(c >= 'a' && c <= 'f')

   870 						forceHex = true;

   871 				}

   872 			}

   873 			const char* formatString = forceHex ? "%X" : ((rs_t=='s') ? "%d" : "%u");

   874 			if(sscanf(strPtr, formatString, &rv) > 0)

   875 				ok = true;

   876 			if(negate)

   877 				rv = -rv;

   878 		}

   879 	}

   880 

   881 	success = ok;

   882 	return rv;

   883 }

   884 

   885 

   886 bool Set_RS_Val()

   887 {

   888 	BOOL success;

   889 

   890 	// update rs_val

   891 	switch(rs_c)

   892 	{

   893 		case 'r':

   894 		default:

   895 			rs_val = 0;

   896 			break;

   897 		case 's':

   898 			rs_val = ReadControlInt(IDC_EDIT_COMPAREVALUE, rs_t == 'h', success);

   899 			if(!success)

   900 				return false;

   901 			if((rs_type_size == 'b' && rs_t == 's' && (rs_val < -128 || rs_val > 127)) ||

   902 			   (rs_type_size == 'b' && rs_t != 's' && (rs_val < 0 || rs_val > 255)) ||

   903 			   (rs_type_size == 'w' && rs_t == 's' && (rs_val < -32768 || rs_val > 32767)) ||

   904 			   (rs_type_size == 'w' && rs_t != 's' && (rs_val < 0 || rs_val > 65535)))

   905 			   return false;

   906 			break;

   907 		case 'a':

   908 			rs_val = ReadControlInt(IDC_EDIT_COMPAREADDRESS, true, success);

   909 			if(!success || rs_val < 0 || rs_val > 0x06040000)

   910 				return false;

   911 			break;

   912 		case 'n': {

   913 			rs_val = ReadControlInt(IDC_EDIT_COMPARECHANGES, false, success);

   914 			if(!success || rs_val < 0 || rs_val > 0xFFFF)

   915 				return false;

   916 		}	break;

   917 	}

   918 

   919 	// also update rs_param

   920 	switch(rs_o)

   921 	{

   922 		default:

   923 			rs_param = 0;

   924 			break;

   925 		case 'd':

   926 			rs_param = ReadControlInt(IDC_EDIT_DIFFBY, false, success);

   927 			if(!success)

   928 				return false;

   929 			if(rs_param < 0)

   930 				rs_param = -rs_param;

   931 			break;

   932 		case '%':

   933 			rs_param = ReadControlInt(IDC_EDIT_MODBY, false, success);

   934 			if(!success || rs_param == 0)

   935 				return false;

   936 			break;

   937 	}

   938 

   939 	// validate that rs_param fits in the comparison data type

   940 	{

   941 		int appliedSize = rs_type_size;

   942 		int appliedSign = rs_t;

   943 		if(rs_c == 'n')

   944 			appliedSize = 'w', appliedSign = 'u';

   945 		if(rs_c == 'a')

   946 			appliedSize = 'd', appliedSign = 'u';

   947 		if((appliedSize == 'b' && appliedSize == 's' && (rs_param < -128 || rs_param > 127)) ||

   948 		   (appliedSize == 'b' && appliedSize != 's' && (rs_param < 0 || rs_param > 255)) ||

   949 		   (appliedSize == 'w' && appliedSize == 's' && (rs_param < -32768 || rs_param > 32767)) ||

   950 		   (appliedSize == 'w' && appliedSize != 's' && (rs_param < 0 || rs_param > 65535)))

   951 		   return false;

   952 	}

   953 

   954 	return true;

   955 }

   956 

   957 bool IsSatisfied(int itemIndex)

   958 {

   959 	if(!rs_val_valid)

   960 		return true;

   961 	int o = rs_o;

   962 	switch (rs_c)

   963 	{

   964 		#undef DO_SEARCH_2

   965 		#define DO_SEARCH_2(CmpFun,sf) return CALL_WITH_T_SIZE_TYPES_4(sf, rs_type_size,(rs_t=='s'),noMisalign, CmpFun,itemIndex,rs_val,rs_param);

   966 		case 'r': DO_SEARCH(CompareRelativeAtItem); break;

   967 		case 's': DO_SEARCH(CompareSpecificAtItem); break;

   968 

   969 		#undef DO_SEARCH_2

   970 		#define DO_SEARCH_2(CmpFun,sf) return CALL_WITH_T_STEP_4(sf, rs_type_size, unsigned int, noMisalign, CmpFun,itemIndex,rs_val,rs_param);

   971 		case 'a': DO_SEARCH(CompareAddressAtItem); break;

   972 

   973 		#undef DO_SEARCH_2

   974 		#define DO_SEARCH_2(CmpFun,sf) return CALL_WITH_T_STEP_4(sf, rs_type_size, unsigned short, noMisalign, CmpFun,itemIndex,rs_val,rs_param);

   975 		case 'n': DO_SEARCH(CompareChangesAtItem); break;

   976 	}

   977 	return false;

   978 }

   979 

   980 

   981 

   982 unsigned int ReadValueAtSoftwareAddress(const unsigned char* address, unsigned int size)

   983 {

   984 	unsigned int value = 0;

   985 	if(address)

   986 	{

   987 		// assumes we're little-endian

   988 		memcpy(&value, address, size);

   989 	}

   990 	return value;

   991 }

   992 void WriteValueAtSoftwareAddress(unsigned char* address, unsigned int value, unsigned int size)

   993 {

   994 	if(address)

   995 	{

   996 		// assumes we're little-endian

   997 		memcpy(address, &value, size);

   998 	}

   999 }

  1000 unsigned int ReadValueAtHardwareAddress(HWAddressType address, unsigned int size)

  1001 {

  1002 	return ReadValueAtSoftwareAddress(HardwareToSoftwareAddress(address), size);

  1003 }

  1004 bool WriteValueAtHardwareAddress(HWAddressType address, unsigned int value, unsigned int size)

  1005 {

  1006 	WriteValueAtSoftwareAddress(HardwareToSoftwareAddress(address), value, size);

  1007 	return true;

  1008 }

  1009 bool IsHardwareAddressValid(HWAddressType address)

  1010 {

  1011 	return HardwareToSoftwareAddress(address) != NULL;

  1012 }

  1013 

  1014 

  1015 

  1016 int ResultCount=0;

  1017 bool AutoSearch=false;

  1018 bool AutoSearchAutoRetry=false;

  1019 LRESULT CALLBACK PromptWatchNameProc(HWND, UINT, WPARAM, LPARAM);

  1020 void UpdatePossibilities(int rs_possible, int regions);

  1021 

  1022 

  1023 void CompactAddrs()

  1024 {

  1025 	int size = (rs_type_size=='b' || !noMisalign) ? 1 : 2;

  1026 	int prevResultCount = ResultCount;

  1027 

  1028 	CalculateItemIndices(size);

  1029 	ResultCount = CALL_WITH_T_SIZE_TYPES_0(CountRegionItemsT, rs_type_size,rs_t=='s',noMisalign);

  1030 

  1031 	UpdatePossibilities(ResultCount, (int)s_activeMemoryRegions.size());

  1032 

  1033 	if(ResultCount != prevResultCount)

  1034 		ListView_SetItemCount(GetDlgItem(RamSearchHWnd,IDC_RAMLIST),ResultCount);

  1035 }

  1036 

  1037 void soft_reset_address_info ()

  1038 {

  1039 	s_prevValuesNeedUpdate = false;

  1040 	ResetMemoryRegions();

  1041 	if(!RamSearchHWnd)

  1042 	{

  1043 		EnterCriticalSection(&s_activeMemoryRegionsCS);

  1044 		s_activeMemoryRegions.clear();

  1045 		LeaveCriticalSection(&s_activeMemoryRegionsCS);

  1046 		ResultCount = 0;

  1047 	}

  1048 	else

  1049 	{

  1050 		// force s_prevValues to be valid

  1051 		signal_new_frame();

  1052 		s_prevValuesNeedUpdate = true;

  1053 		signal_new_frame();

  1054 	}

  1055 	if(s_numChanges)

  1056 		memset(s_numChanges, 0, (sizeof(*s_numChanges)*(MAX_RAM_SIZE)));

  1057 	CompactAddrs();

  1058 }

  1059 void reset_address_info ()

  1060 {

  1061 	SetRamSearchUndoType(RamSearchHWnd, 0);

  1062 	EnterCriticalSection(&s_activeMemoryRegionsCS);

  1063 	s_activeMemoryRegionsBackup.clear(); // not necessary, but we'll take the time hit here instead of at the next thing that sets up an undo

  1064 	LeaveCriticalSection(&s_activeMemoryRegionsCS);

  1065 	if(s_prevValues)

  1066 		memcpy(s_prevValues, s_curValues, (sizeof(*s_prevValues)*(MAX_RAM_SIZE)));

  1067 	s_prevValuesNeedUpdate = false;

  1068 	ResetMemoryRegions();

  1069 	if(!RamSearchHWnd)

  1070 	{

  1071 		EnterCriticalSection(&s_activeMemoryRegionsCS);

  1072 		s_activeMemoryRegions.clear();

  1073 		LeaveCriticalSection(&s_activeMemoryRegionsCS);

  1074 		ResultCount = 0;

  1075 	}

  1076 	else

  1077 	{

  1078 		// force s_prevValues to be valid

  1079 		signal_new_frame();

  1080 		s_prevValuesNeedUpdate = true;

  1081 		signal_new_frame();

  1082 	}

  1083 	memset(s_numChanges, 0, (sizeof(*s_numChanges)*(MAX_RAM_SIZE)));

  1084 	CompactAddrs();

  1085 }

  1086 

  1087 void signal_new_frame ()

  1088 {

  1089 	EnterCriticalSection(&s_activeMemoryRegionsCS);

  1090 	CALL_WITH_T_SIZE_TYPES_0(UpdateRegionsT, rs_type_size, rs_t=='s', noMisalign);

  1091 	LeaveCriticalSection(&s_activeMemoryRegionsCS);

  1092 }

  1093 

  1094 

  1095 

  1096 

  1097 

  1098 bool RamSearchClosed = false;

  1099 bool RamWatchClosed = false;

  1100 

  1101 void ResetResults()

  1102 {

  1103 	reset_address_info();

  1104 	ResultCount = 0;

  1105 	if (RamSearchHWnd)

  1106 		ListView_SetItemCount(GetDlgItem(RamSearchHWnd,IDC_RAMLIST),ResultCount);

  1107 }

  1108 void CloseRamWindows() //Close the Ram Search & Watch windows when rom closes

  1109 {

  1110 	ResetWatches();

  1111 	ResetResults();

  1112 	if (RamSearchHWnd)

  1113 	{

  1114 		SendMessage(RamSearchHWnd,WM_CLOSE,NULL,NULL);

  1115 		RamSearchClosed = true;

  1116 	}

  1117 	if (RamWatchHWnd)

  1118 	{

  1119 		SendMessage(RamWatchHWnd,WM_CLOSE,NULL,NULL);

  1120 		RamWatchClosed = true;

  1121 	}

  1122 }

  1123 void ReopenRamWindows() //Reopen them when a new Rom is loaded

  1124 {

  1125 	HWND hwnd = GetActiveWindow();

  1126 

  1127 	if (RamSearchClosed)

  1128 	{

  1129 		RamSearchClosed = false;

  1130 		if(!RamSearchHWnd)

  1131 		{

  1132 			reset_address_info();

  1133 			LRESULT CALLBACK RamSearchProc(HWND hDlg, UINT uMsg, WPARAM wParam, LPARAM lParam);

  1134 			RamSearchHWnd = CreateDialog(hInst, MAKEINTRESOURCE(IDD_RAMSEARCH), hWnd, (DLGPROC) RamSearchProc);

  1135 		}

  1136 		else

  1137 			::SetForegroundWindow(RamSearchHWnd);

  1138 	}

  1139 	if (RamWatchClosed || AutoRWLoad)

  1140 	{

  1141 		RamWatchClosed = false;

  1142 		if(!RamWatchHWnd)

  1143 		{

  1144 			if (AutoRWLoad) OpenRWRecentFile(0);

  1145 			LRESULT CALLBACK RamWatchProc(HWND hDlg, UINT uMsg, WPARAM wParam, LPARAM lParam);

  1146 			RamWatchHWnd = CreateDialog(hInst, MAKEINTRESOURCE(IDD_RAMWATCH), hWnd, (DLGPROC) RamWatchProc);

  1147 		}

  1148 		else

  1149 			::SetForegroundWindow(RamWatchHWnd);

  1150 	}

  1151 

  1152 	if (hwnd == hWnd && hwnd != GetActiveWindow())

  1153 		SetActiveWindow(hWnd); // restore focus to the main window if it had it before

  1154 }

  1155 

  1156 

  1157 

  1158 

  1159 

  1160 void RefreshRamListSelectedCountControlStatus(HWND hDlg)

  1161 {

  1162 	int selCount = ListView_GetSelectedCount(GetDlgItem(hDlg,IDC_RAMLIST));

  1163 	if(selCount != s_prevSelCount)

  1164 	{

  1165 		if(selCount < 2 || s_prevSelCount < 2)

  1166 		{

  1167 			EnableWindow(GetDlgItem(hDlg, IDC_C_WATCH), (WatchCount < MAX_WATCH_COUNT) ? TRUE : FALSE);

  1168 			EnableWindow(GetDlgItem(hDlg, IDC_C_ADDCHEAT), (selCount >= 1) ? TRUE : FALSE);

  1169 			EnableWindow(GetDlgItem(hDlg, IDC_C_ELIMINATE), (selCount >= 1) ? TRUE : FALSE);

  1170 		}

  1171 		s_prevSelCount = selCount;

  1172 	}

  1173 }

  1174 

  1175 

  1176 

  1177 

  1178 struct AddrRange

  1179 {

  1180 	unsigned int addr;

  1181 	unsigned int size;

  1182 	unsigned int End() const { return addr + size; }

  1183 	AddrRange(unsigned int a, unsigned int s) : addr(a),size(s){}

  1184 };

  1185 

  1186 void signal_new_size ()

  1187 {

  1188 	HWND lv = GetDlgItem(RamSearchHWnd,IDC_RAMLIST);

  1189 

  1190 	int oldSize = (rs_last_type_size=='b' || !rs_last_no_misalign) ? 1 : 2;

  1191 	int newSize = (rs_type_size=='b' || !noMisalign) ? 1 : 2;

  1192 	bool numberOfItemsChanged = (oldSize != newSize);

  1193 

  1194 	unsigned int itemsPerPage = ListView_GetCountPerPage(lv);

  1195 	unsigned int oldTopIndex = ListView_GetTopIndex(lv);

  1196 	unsigned int oldSelectionIndex = ListView_GetSelectionMark(lv);

  1197 	unsigned int oldTopAddr = CALL_WITH_T_SIZE_TYPES_1(GetHardwareAddressFromItemIndex, rs_last_type_size,rs_t=='s',rs_last_no_misalign, oldTopIndex);

  1198 	unsigned int oldSelectionAddr = CALL_WITH_T_SIZE_TYPES_1(GetHardwareAddressFromItemIndex, rs_last_type_size,rs_t=='s',rs_last_no_misalign, oldSelectionIndex);

  1199 

  1200 	std::vector<AddrRange> selHardwareAddrs;

  1201 	if(numberOfItemsChanged)

  1202 	{

  1203 		// store selection ranges

  1204 		// unfortunately this can take a while if the user has a huge range of items selected

  1205 		systemSoundClearBuffer();

  1206 		int selCount = ListView_GetSelectedCount(lv);

  1207 		int size = (rs_last_type_size=='b' || !rs_last_no_misalign) ? 1 : 2;

  1208 		int watchIndex = -1;

  1209 		for(int i = 0; i < selCount; ++i)

  1210 		{

  1211 			watchIndex = ListView_GetNextItem(lv, watchIndex, LVNI_SELECTED);

  1212 			int addr = CALL_WITH_T_SIZE_TYPES_1(GetHardwareAddressFromItemIndex, rs_last_type_size,rs_t=='s',rs_last_no_misalign, watchIndex);

  1213 			if(!selHardwareAddrs.empty() && addr == selHardwareAddrs.back().End())

  1214 				selHardwareAddrs.back().size += size;

  1215 			else if (!(noMisalign && oldSize < newSize && addr % newSize != 0))

  1216 				selHardwareAddrs.push_back(AddrRange(addr,size));

  1217 		}

  1218 	}

  1219 

  1220 	CompactAddrs();

  1221 

  1222 	rs_last_type_size = rs_type_size;

  1223 	rs_last_no_misalign = noMisalign;

  1224 

  1225 	if(numberOfItemsChanged)

  1226 	{

  1227 		// restore selection ranges

  1228 		unsigned int newTopIndex = CALL_WITH_T_SIZE_TYPES_1(HardwareAddressToItemIndex, rs_type_size,rs_t=='s',noMisalign, oldTopAddr);

  1229 		unsigned int newBottomIndex = newTopIndex + itemsPerPage - 1;

  1230 		SendMessage(lv, WM_SETREDRAW, FALSE, 0);

  1231 		ListView_SetItemState(lv, -1, 0, LVIS_SELECTED|LVIS_FOCUSED); // deselect all

  1232 		for(unsigned int i = 0; i < selHardwareAddrs.size(); i++)

  1233 		{

  1234 			// calculate index ranges of this selection

  1235 			const AddrRange& range = selHardwareAddrs[i];

  1236 			int selRangeTop = CALL_WITH_T_SIZE_TYPES_1(HardwareAddressToItemIndex, rs_type_size,rs_t=='s',noMisalign, range.addr);

  1237 			int selRangeBottom = -1;

  1238 			for(int endAddr = range.End()-1; endAddr >= selRangeTop && selRangeBottom == -1; endAddr--)

  1239 				selRangeBottom = CALL_WITH_T_SIZE_TYPES_1(HardwareAddressToItemIndex, rs_type_size,rs_t=='s',noMisalign, endAddr);

  1240 			if(selRangeBottom == -1)

  1241 				selRangeBottom = selRangeTop;

  1242 			if(selRangeTop == -1)

  1243 				continue;

  1244 

  1245 			// select the entire range

  1246 			for (int j = selRangeTop; j <= selRangeBottom; j++)

  1247 			{

  1248 				ListView_SetItemState(lv, j, LVIS_SELECTED|LVIS_FOCUSED, LVIS_SELECTED|LVIS_FOCUSED);

  1249 			}

  1250 		}

  1251 

  1252 		// restore previous scroll position

  1253 		if(newBottomIndex != -1)

  1254 			ListView_EnsureVisible(lv, newBottomIndex, 0);

  1255 		if(newTopIndex != -1)

  1256 			ListView_EnsureVisible(lv, newTopIndex, 0);

  1257 

  1258 		SendMessage(lv, WM_SETREDRAW, TRUE, 0);

  1259 

  1260 		RefreshRamListSelectedCountControlStatus(RamSearchHWnd);

  1261 

  1262 		EnableWindow(GetDlgItem(RamSearchHWnd,IDC_MISALIGN), rs_type_size != 'b');

  1263 	}

  1264 	else

  1265 	{

  1266 		ListView_Update(lv, -1);

  1267 	}

  1268 	InvalidateRect(lv, NULL, TRUE);

  1269 	//SetFocus(lv);

  1270 }

  1271 

  1272 

  1273 

  1274 

  1275 LRESULT CustomDraw (LPARAM lParam)

  1276 {

  1277 	LPNMLVCUSTOMDRAW lplvcd = (LPNMLVCUSTOMDRAW)lParam;

  1278 

  1279 	switch(lplvcd->nmcd.dwDrawStage) 

  1280 	{

  1281 		case CDDS_PREPAINT :

  1282 			return CDRF_NOTIFYITEMDRAW;

  1283 

  1284 		case CDDS_ITEMPREPAINT:

  1285 		{

  1286 			int rv = CDRF_DODEFAULT;

  1287 

  1288 			if(lplvcd->nmcd.dwItemSpec % 2)

  1289 			{

  1290 				// alternate the background color slightly

  1291 				lplvcd->clrTextBk = RGB(248,248,255);

  1292 				rv = CDRF_NEWFONT;

  1293 			}

  1294 

  1295 			if(!IsSatisfied(lplvcd->nmcd.dwItemSpec))

  1296 			{

  1297 				// tint red any items that would be eliminated if a search were to run now

  1298 				lplvcd->clrText = RGB(192,64,64);

  1299 				rv = CDRF_NEWFONT;

  1300 			}

  1301 

  1302 			return rv;

  1303 		}	break;

  1304 	}

  1305 	return CDRF_DODEFAULT;

  1306 }

  1307 

  1308 void Update_RAM_Search() //keeps RAM values up to date in the search and watch windows

  1309 {

  1310 	if(disableRamSearchUpdate)

  1311 		return;

  1312 

  1313 	int prevValuesNeededUpdate;

  1314 	if (AutoSearch && !ResultCount)

  1315 	{

  1316 		if(!AutoSearchAutoRetry)

  1317 		{

  1318 			systemSoundClearBuffer();

  1319 			int answer = MessageBox(RamSearchHWnd,"Choosing Retry will reset the search once and continue autosearching.\nChoose Ignore will reset the search whenever necessary and continue autosearching.\nChoosing Abort will reset the search once and stop autosearching.","Autosearch - out of results.",MB_ABORTRETRYIGNORE|MB_DEFBUTTON2|MB_ICONINFORMATION);

  1320 			if(answer == IDABORT)

  1321 			{

  1322 				SendDlgItemMessage(RamSearchHWnd, IDC_C_AUTOSEARCH, BM_SETCHECK, BST_UNCHECKED, 0);

  1323 				SendMessage(RamSearchHWnd, WM_COMMAND, IDC_C_AUTOSEARCH, 0);

  1324 			}

  1325 			if(answer == IDIGNORE)

  1326 				AutoSearchAutoRetry = true;

  1327 		}

  1328 		reset_address_info();

  1329 		prevValuesNeededUpdate = s_prevValuesNeedUpdate;

  1330 	}

  1331 	else

  1332 	{

  1333 		prevValuesNeededUpdate = s_prevValuesNeedUpdate;

  1334 		if (RamSearchHWnd)

  1335 		{

  1336 			// update active RAM values

  1337 			signal_new_frame();

  1338 		}

  1339 

  1340 		if (AutoSearch && ResultCount)

  1341 		{

  1342 			systemSoundClearBuffer();

  1343 			if(!rs_val_valid)

  1344 				rs_val_valid = Set_RS_Val();

  1345 			if(rs_val_valid)

  1346 				prune(rs_c,rs_o,rs_t=='s',rs_val,rs_param);

  1347 		}

  1348 	}

  1349 

  1350 	if(RamSearchHWnd)

  1351 	{

  1352 		HWND lv = GetDlgItem(RamSearchHWnd,IDC_RAMLIST);

  1353 		if(prevValuesNeededUpdate != s_prevValuesNeedUpdate)

  1354 		{

  1355 			// previous values got updated, refresh everything visible

  1356 			ListView_Update(lv, -1);

  1357 		}

  1358 		else

  1359 		{

  1360 			// refresh any visible parts of the listview box that changed

  1361 			static int changes[128];

  1362 			int top = ListView_GetTopIndex(lv);

  1363 			int count = ListView_GetCountPerPage(lv);

  1364 			int start = -1;

  1365 			for(int i = top; i <= top+count; i++)

  1366 			{

  1367 				int changeNum = CALL_WITH_T_SIZE_TYPES_1(GetNumChangesFromItemIndex, rs_type_size,rs_t=='s',noMisalign, i); //s_numChanges[i];

  1368 				int changed = changeNum != changes[i-top];

  1369 				if(changed)

  1370 					changes[i-top] = changeNum;

  1371 

  1372 				if(start == -1)

  1373 				{

  1374 					if(i != top+count && changed)

  1375 					{

  1376 						start = i;

  1377 						//somethingChanged = true;

  1378 					}

  1379 				}

  1380 				else

  1381 				{

  1382 					if(i == top+count || !changed)

  1383 					{

  1384 						ListView_RedrawItems(lv, start, i-1);

  1385 						start = -1;

  1386 					}

  1387 				}

  1388 			}

  1389 		}

  1390 	}

  1391 

  1392 	if(RamWatchHWnd)

  1393 	{

  1394 		Update_RAM_Watch();

  1395 	}

  1396 }

  1397 

  1398 static int rs_lastPercent = -1;

  1399 inline void UpdateRamSearchProgressBar(int percent)

  1400 {

  1401 	if(rs_lastPercent != percent)

  1402 	{

  1403 		rs_lastPercent = percent;

  1404 		UpdateRamSearchTitleBar(percent);

  1405 	}

  1406 }

  1407 

  1408 static void SelectEditControl(int controlID)

  1409 {

  1410 	HWND hEdit = GetDlgItem(RamSearchHWnd,controlID);

  1411 	SetFocus(hEdit);

  1412 	SendMessage(hEdit, EM_SETSEL, 0, -1);

  1413 }

  1414 

  1415 static BOOL SelectingByKeyboard()

  1416 {

  1417 	int a = GetKeyState(VK_LEFT);

  1418 	int b = GetKeyState(VK_RIGHT);

  1419 	int c = GetKeyState(VK_UP);

  1420 	int d = GetKeyState(VK_DOWN); // space and tab are intentionally omitted

  1421 	return (a | b | c | d) & 0x80;

  1422 }

  1423 

  1424 

  1425 LRESULT CALLBACK RamSearchProc(HWND hDlg, UINT uMsg, WPARAM wParam, LPARAM lParam)

  1426 {

  1427 	static int watchIndex=0;

  1428 

  1429 	switch(uMsg)

  1430 	{

  1431 		case WM_INITDIALOG: {

  1432 			RamSearchHWnd = hDlg;

  1433 			

  1434 			SetWindowPos(hDlg, NULL, regQueryDwordValue("ramSearchX", 0), regQueryDwordValue("ramSearchY", 0), NULL, NULL, SWP_NOSIZE | SWP_NOZORDER | SWP_SHOWWINDOW);

  1435 			switch(rs_o)

  1436 			{

  1437 				case '<':

  1438 					SendDlgItemMessage(hDlg, IDC_LESSTHAN, BM_SETCHECK, BST_CHECKED, 0);

  1439 					break;

  1440 				case '>':

  1441 					SendDlgItemMessage(hDlg, IDC_MORETHAN, BM_SETCHECK, BST_CHECKED, 0);

  1442 					break;

  1443 				case 'l':

  1444 					SendDlgItemMessage(hDlg, IDC_NOMORETHAN, BM_SETCHECK, BST_CHECKED, 0);

  1445 					break;

  1446 				case 'm':

  1447 					SendDlgItemMessage(hDlg, IDC_NOLESSTHAN, BM_SETCHECK, BST_CHECKED, 0);

  1448 					break;

  1449 				case '=': 

  1450 					SendDlgItemMessage(hDlg, IDC_EQUALTO, BM_SETCHECK, BST_CHECKED, 0);

  1451 					break;

  1452 				case '!':

  1453 					SendDlgItemMessage(hDlg, IDC_DIFFERENTFROM, BM_SETCHECK, BST_CHECKED, 0);

  1454 					break;

  1455 				case 'd':

  1456 					SendDlgItemMessage(hDlg, IDC_DIFFERENTBY, BM_SETCHECK, BST_CHECKED, 0);

  1457 					EnableWindow(GetDlgItem(hDlg,IDC_EDIT_DIFFBY),true);

  1458 					break;

  1459 				case '%':

  1460 					SendDlgItemMessage(hDlg, IDC_MODULO, BM_SETCHECK, BST_CHECKED, 0);

  1461 					EnableWindow(GetDlgItem(hDlg,IDC_EDIT_MODBY),true);

  1462 					break;

  1463 			}

  1464 			switch (rs_c)

  1465 			{

  1466 				case 'r':

  1467 					SendDlgItemMessage(hDlg, IDC_PREVIOUSVALUE, BM_SETCHECK, BST_CHECKED, 0);

  1468 					break;

  1469 				case 's':

  1470 					SendDlgItemMessage(hDlg, IDC_SPECIFICVALUE, BM_SETCHECK, BST_CHECKED, 0);

  1471 					EnableWindow(GetDlgItem(hDlg,IDC_EDIT_COMPAREVALUE),true);

  1472 					break;

  1473 				case 'a':

  1474 					SendDlgItemMessage(hDlg, IDC_SPECIFICADDRESS, BM_SETCHECK, BST_CHECKED, 0);

  1475 					EnableWindow(GetDlgItem(hDlg,IDC_EDIT_COMPAREADDRESS),true);

  1476 					break;

  1477 				case 'n':

  1478 					SendDlgItemMessage(hDlg, IDC_NUMBEROFCHANGES, BM_SETCHECK, BST_CHECKED, 0);

  1479 					EnableWindow(GetDlgItem(hDlg,IDC_EDIT_COMPARECHANGES),true);

  1480 					break;

  1481 			}

  1482 			switch (rs_t)

  1483 			{

  1484 				case 's':

  1485 					SendDlgItemMessage(hDlg, IDC_SIGNED, BM_SETCHECK, BST_CHECKED, 0);

  1486 					break;

  1487 				case 'u':

  1488 					SendDlgItemMessage(hDlg, IDC_UNSIGNED, BM_SETCHECK, BST_CHECKED, 0);

  1489 					break;

  1490 				case 'h':

  1491 					SendDlgItemMessage(hDlg, IDC_HEX, BM_SETCHECK, BST_CHECKED, 0);

  1492 					break;

  1493 			}

  1494 			switch (rs_type_size)

  1495 			{

  1496 				case 'b':

  1497 					SendDlgItemMessage(hDlg, IDC_1_BYTE, BM_SETCHECK, BST_CHECKED, 0);

  1498 					break;

  1499 				case 'w':

  1500 					SendDlgItemMessage(hDlg, IDC_2_BYTES, BM_SETCHECK, BST_CHECKED, 0);

  1501 					break;

  1502 				case 'd':

  1503 					SendDlgItemMessage(hDlg, IDC_4_BYTES, BM_SETCHECK, BST_CHECKED, 0);

  1504 					break;

  1505 			}

  1506 

  1507 			s_prevValuesNeedUpdate = true;

  1508 

  1509 			SendDlgItemMessage(hDlg,IDC_C_AUTOSEARCH,BM_SETCHECK,AutoSearch?BST_CHECKED:BST_UNCHECKED,0);

  1510 			//const char* names[5] = {"Address","Value","Previous","Changes","Notes"};

  1511 			//int widths[5] = {62,64,64,55,55};

  1512 			const char* names[] = {"Address","Value","Previous","Changes"};

  1513 			int widths[4] = {68,76,76,68};

  1514 			if (!ResultCount)

  1515 				reset_address_info();

  1516 			else

  1517 			{

  1518 				signal_new_frame();

  1519 				CompactAddrs();

  1520 			}

  1521 			void init_list_box(HWND Box, const char* Strs[], int numColumns, int *columnWidths);

  1522 			init_list_box(GetDlgItem(hDlg,IDC_RAMLIST),names,4,widths);

  1523 			//ListView_SetItemCount(GetDlgItem(hDlg,IDC_RAMLIST),ResultCount);

  1524 			if (!noMisalign) SendDlgItemMessage(hDlg, IDC_MISALIGN, BM_SETCHECK, BST_CHECKED, 0);

  1525 			//if (littleEndian) SendDlgItemMessage(hDlg, IDC_ENDIAN, BM_SETCHECK, BST_CHECKED, 0);

  1526 			last_rs_possible = -1;

  1527 

  1528 			s_prevSelCount = -1;

  1529 			RefreshRamListSelectedCountControlStatus(hDlg);

  1530 

  1531 			// force misalign checkbox to refresh

  1532 			signal_new_size();

  1533 

  1534 			// force undo button to refresh

  1535 			int undoType = s_undoType;

  1536 			SetRamSearchUndoType(hDlg, -2);

  1537 			SetRamSearchUndoType(hDlg, undoType);

  1538 

  1539 			// force possibility count to refresh

  1540 			last_rs_possible--;

  1541 			UpdatePossibilities(ResultCount, (int)s_activeMemoryRegions.size());

  1542 			

  1543 			rs_val_valid = Set_RS_Val();

  1544 

  1545 			ListView_SetCallbackMask(GetDlgItem(hDlg,IDC_RAMLIST), LVIS_FOCUSED|LVIS_SELECTED);

  1546 

  1547 			return true;

  1548 		}	break;

  1549 

  1550 		case WM_NOTIFY:

  1551 		{

  1552 			LPNMHDR lP = (LPNMHDR) lParam;

  1553 			switch (lP->code)

  1554 			{

  1555 				case LVN_ITEMCHANGED: // selection changed event

  1556 				{

  1557 					NM_LISTVIEW* pNMListView = (NM_LISTVIEW*)lP;

  1558 					if(pNMListView->uNewState & LVIS_FOCUSED ||

  1559 						(pNMListView->uNewState ^ pNMListView->uOldState) & LVIS_SELECTED)

  1560 					{

  1561 						// disable buttons that we don't have the right number of selected items for

  1562 						RefreshRamListSelectedCountControlStatus(hDlg);

  1563 					}

  1564 				}	break;

  1565 

  1566 				case LVN_GETDISPINFO:

  1567 				{

  1568 					LV_DISPINFO *Item = (LV_DISPINFO *)lParam;

  1569 					Item->item.mask = LVIF_TEXT;

  1570 					Item->item.state = 0;

  1571 					Item->item.iImage = 0;

  1572 					const unsigned int iNum = Item->item.iItem;

  1573 					static char num[11];

  1574 					switch (Item->item.iSubItem)

  1575 					{

  1576 						case 0:

  1577 						{

  1578 							int addr = CALL_WITH_T_SIZE_TYPES_1(GetHardwareAddressFromItemIndex, rs_type_size,rs_t=='s',noMisalign, iNum);

  1579 							sprintf(num,"%08X",addr);

  1580 							Item->item.pszText = num;

  1581 						}	return true;

  1582 						case 1:

  1583 						{

  1584 							int i = CALL_WITH_T_SIZE_TYPES_1(GetCurValueFromItemIndex, rs_type_size,rs_t=='s',noMisalign, iNum);

  1585 							const char* formatString = ((rs_t=='s') ? "%d" : (rs_t=='u') ? "%u" : (rs_type_size=='d' ? "%08X" : rs_type_size=='w' ? "%04X" : "%02X"));

  1586 							switch (rs_type_size)

  1587 							{

  1588 								case 'b':

  1589 								default: sprintf(num, formatString, rs_t=='s' ? (char)(i&0xff) : (unsigned char)(i&0xff)); break;

  1590 								case 'w': sprintf(num, formatString, rs_t=='s' ? (short)(i&0xffff) : (unsigned short)(i&0xffff)); break;

  1591 								case 'd': sprintf(num, formatString, rs_t=='s' ? (long)(i&0xffffffff) : (unsigned long)(i&0xffffffff)); break;

  1592 							}

  1593 							Item->item.pszText = num;

  1594 						}	return true;

  1595 						case 2:

  1596 						{

  1597 							int i = CALL_WITH_T_SIZE_TYPES_1(GetPrevValueFromItemIndex, rs_type_size,rs_t=='s',noMisalign, iNum);

  1598 							const char* formatString = ((rs_t=='s') ? "%d" : (rs_t=='u') ? "%u" : (rs_type_size=='d' ? "%08X" : rs_type_size=='w' ? "%04X" : "%02X"));

  1599 							switch (rs_type_size)

  1600 							{

  1601 								case 'b':

  1602 								default: sprintf(num, formatString, rs_t=='s' ? (char)(i&0xff) : (unsigned char)(i&0xff)); break;

  1603 								case 'w': sprintf(num, formatString, rs_t=='s' ? (short)(i&0xffff) : (unsigned short)(i&0xffff)); break;

  1604 								case 'd': sprintf(num, formatString, rs_t=='s' ? (long)(i&0xffffffff) : (unsigned long)(i&0xffffffff)); break;

  1605 							}

  1606 							Item->item.pszText = num;

  1607 						}	return true;

  1608 						case 3:

  1609 						{

  1610 							int i = CALL_WITH_T_SIZE_TYPES_1(GetNumChangesFromItemIndex, rs_type_size,rs_t=='s',noMisalign, iNum);

  1611 							sprintf(num,"%d",i);

  1612 

  1613 							Item->item.pszText = num;

  1614 						}	return true;

  1615 						//case 4:

  1616 						//	Item->item.pszText = rsaddrs[rsresults[iNum].Index].comment ? rsaddrs[rsresults[iNum].Index].comment : "";

  1617 						//	return true;

  1618 						default:

  1619 							return false;

  1620 					}

  1621 				}

  1622 

  1623 				case NM_CUSTOMDRAW:

  1624 				{

  1625 					SetWindowLong(hDlg, DWL_MSGRESULT, CustomDraw(lParam));

  1626 					return TRUE;

  1627 				}	break;

  1628 

  1629 				//case LVN_ODCACHEHINT: //Copied this bit from the MSDN virtual listbox code sample. Eventually it should probably do something.

  1630 				//{

  1631 				//	LPNMLVCACHEHINT   lpCacheHint = (LPNMLVCACHEHINT)lParam;

  1632 				//	return 0;

  1633 				//}

  1634 				//case LVN_ODFINDITEM: //Copied this bit from the MSDN virtual listbox code sample. Eventually it should probably do something.

  1635 				//{	

  1636 				//	LPNMLVFINDITEM lpFindItem = (LPNMLVFINDITEM)lParam;

  1637 				//	return 0;

  1638 				//}

  1639 			}

  1640 		}	break;

  1641 

  1642 		case WM_COMMAND:

  1643 		{

  1644 			int rv = false;

  1645 			switch(LOWORD(wParam))

  1646 			{

  1647 				case IDC_SIGNED:

  1648 					rs_t='s';

  1649 					signal_new_size();

  1650 					{rv = true; break;}

  1651 				case IDC_UNSIGNED:

  1652 					rs_t='u';

  1653 					signal_new_size();

  1654 					{rv = true; break;}

  1655 				case IDC_HEX:

  1656 					rs_t='h';

  1657 					signal_new_size();

  1658 					{rv = true; break;}

  1659 				case IDC_1_BYTE:

  1660 					rs_type_size = 'b';

  1661 					signal_new_size();

  1662 					{rv = true; break;}

  1663 				case IDC_2_BYTES:

  1664 					rs_type_size = 'w';

  1665 					signal_new_size();

  1666 					{rv = true; break;}

  1667 				case IDC_4_BYTES:

  1668 					rs_type_size = 'd';

  1669 					signal_new_size();

  1670 					{rv = true; break;}

  1671 				case IDC_MISALIGN:

  1672 					noMisalign = !noMisalign;

  1673 					//CompactAddrs();

  1674 					signal_new_size();

  1675 					{rv = true; break;}

  1676 //				case IDC_ENDIAN:

  1677 ////					littleEndian = !littleEndian;

  1678 ////					signal_new_size();

  1679 //					{rv = true; break;}				

  1680 				case IDC_LESSTHAN:

  1681 					EnableWindow(GetDlgItem(hDlg,IDC_EDIT_DIFFBY),false);

  1682 					EnableWindow(GetDlgItem(hDlg,IDC_EDIT_MODBY),false);

  1683 					rs_o = '<';

  1684 					{rv = true; break;}

  1685 				case IDC_MORETHAN:

  1686 					EnableWindow(GetDlgItem(hDlg,IDC_EDIT_DIFFBY),false);

  1687 					EnableWindow(GetDlgItem(hDlg,IDC_EDIT_MODBY),false);

  1688 					rs_o = '>';

  1689 					{rv = true; break;}

  1690 				case IDC_NOMORETHAN:

  1691 					EnableWindow(GetDlgItem(hDlg,IDC_EDIT_DIFFBY),false);

  1692 					EnableWindow(GetDlgItem(hDlg,IDC_EDIT_MODBY),false);

  1693 					rs_o = 'l';

  1694 					{rv = true; break;}

  1695 				case IDC_NOLESSTHAN:

  1696 					EnableWindow(GetDlgItem(hDlg,IDC_EDIT_DIFFBY),false);

  1697 					EnableWindow(GetDlgItem(hDlg,IDC_EDIT_MODBY),false);

  1698 					rs_o = 'm';

  1699 					{rv = true; break;}

  1700 				case IDC_EQUALTO:

  1701 					EnableWindow(GetDlgItem(hDlg,IDC_EDIT_DIFFBY),false);

  1702 					EnableWindow(GetDlgItem(hDlg,IDC_EDIT_MODBY),false);

  1703 					rs_o = '=';

  1704 					{rv = true; break;}

  1705 				case IDC_DIFFERENTFROM:

  1706 					EnableWindow(GetDlgItem(hDlg,IDC_EDIT_DIFFBY),false);

  1707 					EnableWindow(GetDlgItem(hDlg,IDC_EDIT_MODBY),false);

  1708 					rs_o = '!';

  1709 					{rv = true; break;}

  1710 				case IDC_DIFFERENTBY:

  1711 				{

  1712 					rs_o = 'd';

  1713 					EnableWindow(GetDlgItem(hDlg,IDC_EDIT_DIFFBY),true);

  1714 					EnableWindow(GetDlgItem(hDlg,IDC_EDIT_MODBY),false);

  1715 					if(!SelectingByKeyboard())

  1716 						SelectEditControl(IDC_EDIT_DIFFBY);

  1717 				}	{rv = true; break;}

  1718 				case IDC_MODULO:

  1719 				{

  1720 					rs_o = '%';

  1721 					EnableWindow(GetDlgItem(hDlg,IDC_EDIT_DIFFBY),false);

  1722 					EnableWindow(GetDlgItem(hDlg,IDC_EDIT_MODBY),true);

  1723 					if(!SelectingByKeyboard())

  1724 						SelectEditControl(IDC_EDIT_MODBY);

  1725 				}	{rv = true; break;}

  1726 				case IDC_PREVIOUSVALUE:

  1727 					rs_c='r';

  1728 					EnableWindow(GetDlgItem(hDlg,IDC_EDIT_COMPAREVALUE),false);

  1729 					EnableWindow(GetDlgItem(hDlg,IDC_EDIT_COMPAREADDRESS),false);

  1730 					EnableWindow(GetDlgItem(hDlg,IDC_EDIT_COMPARECHANGES),false);

  1731 					{rv = true; break;}

  1732 				case IDC_SPECIFICVALUE:

  1733 				{

  1734 					rs_c = 's';

  1735 					EnableWindow(GetDlgItem(hDlg,IDC_EDIT_COMPAREVALUE),true);

  1736 					EnableWindow(GetDlgItem(hDlg,IDC_EDIT_COMPAREADDRESS),false);

  1737 					EnableWindow(GetDlgItem(hDlg,IDC_EDIT_COMPARECHANGES),false);

  1738 					if(!SelectingByKeyboard())

  1739 						SelectEditControl(IDC_EDIT_COMPAREVALUE);

  1740 					{rv = true; break;}

  1741 				}

  1742 				case IDC_SPECIFICADDRESS:

  1743 				{

  1744 					rs_c = 'a';

  1745 					EnableWindow(GetDlgItem(hDlg,IDC_EDIT_COMPAREADDRESS),true);

  1746 					EnableWindow(GetDlgItem(hDlg,IDC_EDIT_COMPAREVALUE),false);

  1747 					EnableWindow(GetDlgItem(hDlg,IDC_EDIT_COMPARECHANGES),false);

  1748 					if(!SelectingByKeyboard())

  1749 						SelectEditControl(IDC_EDIT_COMPAREADDRESS);

  1750 				}	{rv = true; break;}

  1751 				case IDC_NUMBEROFCHANGES:

  1752 				{

  1753 					rs_c = 'n';

  1754 					EnableWindow(GetDlgItem(hDlg,IDC_EDIT_COMPARECHANGES),true);

  1755 					EnableWindow(GetDlgItem(hDlg,IDC_EDIT_COMPAREVALUE),false);

  1756 					EnableWindow(GetDlgItem(hDlg,IDC_EDIT_COMPAREADDRESS),false);

  1757 					if(!SelectingByKeyboard())

  1758 						SelectEditControl(IDC_EDIT_COMPARECHANGES);

  1759 				}	{rv = true; break;}

  1760 				case IDC_C_ADDCHEAT:

  1761 				{

  1762 					HWND ramListControl = GetDlgItem(hDlg,IDC_RAMLIST);

  1763 					int watchItemIndex = ListView_GetNextItem(ramListControl, -1, LVNI_SELECTED);

  1764 					while (watchItemIndex >= 0)

  1765 					{

  1766 						unsigned long address = CALL_WITH_T_SIZE_TYPES_1(GetHardwareAddressFromItemIndex, rs_type_size,rs_t=='s',noMisalign, watchItemIndex);

  1767 

  1768 						int sizeType = -1;

  1769 						if(rs_type_size == 'b')

  1770 							sizeType = 0;

  1771 						else if(rs_type_size == 'w')

  1772 							sizeType = 1;

  1773 						else if(rs_type_size == 'd')

  1774 							sizeType = 2;

  1775 

  1776 						int numberType = -1;

  1777 						if(rs_t == 's')

  1778 							numberType = 0;

  1779 						else if(rs_t == 'u')

  1780 							numberType = 1;

  1781 						else if(rs_t == 'h')

  1782 							numberType = 2;

  1783 

  1784 						if(systemCartridgeType == 0)

  1785 						{

  1786 							AddCheat dlg (address/*, hDlg*/);

  1787 							if(sizeType != -1) dlg.sizeType = sizeType;

  1788 							if(numberType != -1) dlg.numberType = numberType;

  1789 							dlg.DoModal();

  1790 						}

  1791 						else

  1792 						{

  1793 							AddGBCheat dlg (address/*, hDlg*/);

  1794 							if(sizeType != -1) dlg.sizeType = sizeType;

  1795 							if(numberType != -1) dlg.numberType = numberType;

  1796 							dlg.DoModal();

  1797 						}

  1798 						watchItemIndex = ListView_GetNextItem(ramListControl, watchItemIndex, LVNI_SELECTED);

  1799 					}

  1800 				}	{rv = true; break;}

  1801 				case IDC_C_RESET:

  1802 				{

  1803 					RamSearchSaveUndoStateIfNotTooBig(RamSearchHWnd);

  1804 					int prevNumItems = last_rs_possible;

  1805 

  1806 					soft_reset_address_info();

  1807 

  1808 					if(prevNumItems == last_rs_possible)

  1809 						SetRamSearchUndoType(RamSearchHWnd, 0); // nothing to undo

  1810 

  1811 					ListView_SetItemState(GetDlgItem(hDlg,IDC_RAMLIST), -1, 0, LVIS_SELECTED); // deselect all

  1812 					//ListView_SetItemCount(GetDlgItem(hDlg,IDC_RAMLIST),ResultCount);

  1813 					ListView_SetSelectionMark(GetDlgItem(hDlg,IDC_RAMLIST), 0);

  1814 					RefreshRamListSelectedCountControlStatus(hDlg);

  1815 					{rv = true; break;}

  1816 				}

  1817 				case IDC_C_RESET_CHANGES:

  1818 					memset(s_numChanges, 0, (sizeof(*s_numChanges)*(MAX_RAM_SIZE)));

  1819 					ListView_Update(GetDlgItem(hDlg,IDC_RAMLIST), -1);

  1820 					//SetRamSearchUndoType(hDlg, 0);

  1821 					{rv = true; break;}

  1822 				case IDC_C_UNDO:

  1823 					if(s_undoType>0)

  1824 					{

  1825 						systemSoundClearBuffer();

  1826 						EnterCriticalSection(&s_activeMemoryRegionsCS);

  1827 						if(s_activeMemoryRegions.size() < tooManyRegionsForUndo)

  1828 						{

  1829 							MemoryList tempMemoryList = s_activeMemoryRegions;

  1830 							s_activeMemoryRegions = s_activeMemoryRegionsBackup;

  1831 							s_activeMemoryRegionsBackup = tempMemoryList;

  1832 							LeaveCriticalSection(&s_activeMemoryRegionsCS);

  1833 							SetRamSearchUndoType(hDlg, 3 - s_undoType);

  1834 						}

  1835 						else

  1836 						{

  1837 							s_activeMemoryRegions = s_activeMemoryRegionsBackup;

  1838 							LeaveCriticalSection(&s_activeMemoryRegionsCS);

  1839 							SetRamSearchUndoType(hDlg, -1);

  1840 						}

  1841 						CompactAddrs();

  1842 						ListView_SetItemState(GetDlgItem(hDlg,IDC_RAMLIST), -1, 0, LVIS_SELECTED); // deselect all

  1843 						ListView_SetSelectionMark(GetDlgItem(hDlg,IDC_RAMLIST), 0);

  1844 						RefreshRamListSelectedCountControlStatus(hDlg);

  1845 					}

  1846 					{rv = true; break;}

  1847 				case IDC_C_AUTOSEARCH:

  1848 					AutoSearch = SendDlgItemMessage(hDlg, IDC_C_AUTOSEARCH, BM_GETCHECK, 0, 0) != 0;

  1849 					AutoSearchAutoRetry = false;

  1850 					if (!AutoSearch) {rv = true; break;}

  1851 				case IDC_C_SEARCH:

  1852 				{

  1853 					systemSoundClearBuffer();

  1854 

  1855 					if(!rs_val_valid && !(rs_val_valid = Set_RS_Val()))

  1856 						goto invalid_field;

  1857 

  1858 					if(ResultCount)

  1859 					{

  1860 						RamSearchSaveUndoStateIfNotTooBig(hDlg);

  1861 

  1862 						prune(rs_c,rs_o,rs_t=='s',rs_val,rs_param);

  1863 

  1864 						RefreshRamListSelectedCountControlStatus(hDlg);

  1865 					}

  1866 

  1867 					if(!ResultCount)

  1868 					{

  1869 

  1870 						MessageBox(RamSearchHWnd,"Resetting search.","Out of results.",MB_OK|MB_ICONINFORMATION);

  1871 						soft_reset_address_info();

  1872 					}

  1873 

  1874 					{rv = true; break;}

  1875 

  1876 invalid_field:

  1877 					MessageBox(RamSearchHWnd,"Invalid or out-of-bound entered value.","Error",MB_OK|MB_ICONSTOP);

  1878 					if(AutoSearch) // stop autosearch if it just started

  1879 					{

  1880 						SendDlgItemMessage(hDlg, IDC_C_AUTOSEARCH, BM_SETCHECK, BST_UNCHECKED, 0);

  1881 						SendMessage(hDlg, WM_COMMAND, IDC_C_AUTOSEARCH, 0);

  1882 					}

  1883 					{rv = true; break;}

  1884 				}

  1885 				case IDC_C_WATCH:

  1886 				{

  1887 					HWND ramListControl = GetDlgItem(hDlg,IDC_RAMLIST);

  1888 					int selCount = ListView_GetSelectedCount(ramListControl);

  1889 

  1890 					bool inserted = false;

  1891 					int watchItemIndex = ListView_GetNextItem(ramListControl, -1, LVNI_SELECTED);

  1892 					while (watchItemIndex >= 0)

  1893 					{

  1894 						AddressWatcher tempWatch;

  1895 						tempWatch.Address = CALL_WITH_T_SIZE_TYPES_1(GetHardwareAddressFromItemIndex, rs_type_size,rs_t=='s',noMisalign, watchItemIndex);

  1896 						tempWatch.Size = rs_type_size;

  1897 						tempWatch.Type = rs_t;

  1898 						tempWatch.WrongEndian = 0; //Replace when I get little endian working

  1899 						tempWatch.comment = NULL;

  1900 

  1901 						if (selCount == 1)

  1902 							inserted |= InsertWatch(tempWatch, hDlg);

  1903 						else

  1904 							inserted |= InsertWatch(tempWatch, "");

  1905 

  1906 						watchItemIndex = ListView_GetNextItem(ramListControl, watchItemIndex, LVNI_SELECTED);

  1907 					}

  1908 					// bring up the ram watch window if it's not already showing so the user knows where the watch went

  1909 					if(inserted && !RamWatchHWnd)

  1910 						SendMessage(hWnd, WM_COMMAND, ID_RAM_WATCH, 0);

  1911 					SetForegroundWindow(RamSearchHWnd);

  1912 					{rv = true; break;}

  1913 				}

  1914 

  1915 				// eliminate all selected items

  1916 				case IDC_C_ELIMINATE:

  1917 				{

  1918 					RamSearchSaveUndoStateIfNotTooBig(hDlg);

  1919 

  1920 					HWND ramListControl = GetDlgItem(hDlg,IDC_RAMLIST);

  1921 					int size = (rs_type_size=='b' || !noMisalign) ? 1 : 2;

  1922 					int selCount = ListView_GetSelectedCount(ramListControl);

  1923 					int watchIndex = -1;

  1924 

  1925 					// time-saving trick #1:

  1926 					// condense the selected items into an array of address ranges

  1927 					std::vector<AddrRange> selHardwareAddrs;

  1928 					for(int i = 0, j = 1024; i < selCount; ++i, --j)

  1929 					{

  1930 						watchIndex = ListView_GetNextItem(ramListControl, watchIndex, LVNI_SELECTED);

  1931 						int addr = CALL_WITH_T_SIZE_TYPES_1(GetHardwareAddressFromItemIndex, rs_type_size,rs_t=='s',noMisalign, watchIndex);

  1932 						if(!selHardwareAddrs.empty() && addr == selHardwareAddrs.back().End())

  1933 							selHardwareAddrs.back().size += size;

  1934 						else

  1935 							selHardwareAddrs.push_back(AddrRange(addr,size));

  1936 

  1937 						if(!j) UpdateRamSearchProgressBar(i * 50 / selCount), j = 1024;

  1938 					}

  1939 

  1940 					// now deactivate the ranges

  1941 

  1942 					// time-saving trick #2:

  1943 					// take advantage of the fact that the listbox items must be in the same order as the regions

  1944 					MemoryList::iterator iter = s_activeMemoryRegions.begin();

  1945 					int numHardwareAddrRanges = selHardwareAddrs.size();

  1946 					for(int i = 0, j = 16; i < numHardwareAddrRanges; ++i, --j)

  1947 					{

  1948 						int addr = selHardwareAddrs[i].addr;

  1949 						int size = selHardwareAddrs[i].size;

  1950 						bool affected = false;

  1951 						while(iter != s_activeMemoryRegions.end())

  1952 						{

  1953 							MemoryRegion& region = *iter;

  1954 							int affNow = DeactivateRegion(region, iter, addr, size);

  1955 							if(affNow)

  1956 								affected = true;

  1957 							else if(affected)

  1958 								break;

  1959 							if(affNow != 2)

  1960 								++iter;

  1961 						}

  1962 

  1963 						if(!j) UpdateRamSearchProgressBar(50 + (i * 50 / selCount)), j = 16;

  1964 					}

  1965 					UpdateRamSearchTitleBar();

  1966 

  1967 					// careful -- if the above two time-saving tricks aren't working,

  1968 					// the runtime can absolutely explode (seconds -> hours) when there are lots of regions

  1969 

  1970 					ListView_SetItemState(ramListControl, -1, 0, LVIS_SELECTED); // deselect all

  1971 					signal_new_size();

  1972 					{rv = true; break;}

  1973 				}

  1974 				//case IDOK:

  1975 				case IDCANCEL:

  1976 					RamSearchHWnd = NULL;

  1977 /*					if (theApp.pauseDuringCheatSearch)

  1978 						EndDialog(hDlg, true);	// this should never be called on a modeless dialog

  1979 					else

  1980 */

  1981 						DestroyWindow(hDlg);

  1982 					{rv = true; break;}

  1983 			}

  1984 

  1985 			// check refresh for comparison preview color update

  1986 			// also, update rs_val if needed

  1987 			bool needRefresh = false;

  1988 			switch(LOWORD(wParam))

  1989 			{

  1990 				case IDC_LESSTHAN:

  1991 				case IDC_MORETHAN:

  1992 				case IDC_NOMORETHAN:

  1993 				case IDC_NOLESSTHAN:

  1994 				case IDC_EQUALTO:

  1995 				case IDC_DIFFERENTFROM:

  1996 				case IDC_DIFFERENTBY:

  1997 				case IDC_MODULO:

  1998 				case IDC_PREVIOUSVALUE:

  1999 				case IDC_SPECIFICVALUE:

  2000 				case IDC_SPECIFICADDRESS:

  2001 				case IDC_NUMBEROFCHANGES:

  2002 				case IDC_SIGNED:

  2003 				case IDC_UNSIGNED:

  2004 				case IDC_HEX:

  2005 					rs_val_valid = Set_RS_Val();

  2006 					needRefresh = true;

  2007 					break;

  2008 				case IDC_EDIT_COMPAREVALUE:

  2009 				case IDC_EDIT_COMPAREADDRESS:

  2010 				case IDC_EDIT_COMPARECHANGES:

  2011 				case IDC_EDIT_DIFFBY:

  2012 				case IDC_EDIT_MODBY:

  2013 					if(HIWORD(wParam) == EN_CHANGE)

  2014 					{

  2015 						rs_val_valid = Set_RS_Val();

  2016 						needRefresh = true;

  2017 					}

  2018 					break;

  2019 			}

  2020 			if(needRefresh)

  2021 				ListView_Update(GetDlgItem(hDlg,IDC_RAMLIST), -1);

  2022 

  2023 

  2024 			return rv;

  2025 		}	break;

  2026 

  2027 		case WM_CLOSE:

  2028 			RECT r;

  2029 			GetWindowRect(hDlg, &r);

  2030 			regSetDwordValue("ramSearchX", r.left);

  2031 			regSetDwordValue("ramSearchY", r.top);

  2032 			SendMessage(RamSearchHWnd, WM_DESTROY, 0, 0);

  2033 			break;

  2034 		case WM_DESTROY:

  2035 			RamSearchHWnd = NULL;

  2036 //			theApp.modelessCheatDialogIsOpen = false;

  2037 //			return true;

  2038 			break;

  2039 	}

  2040 

  2041 	return false;

  2042 }

  2043 

  2044 void UpdateRamSearchTitleBar(int percent)

  2045 {

  2046 #define HEADER_STR " RAM Search - "

  2047 #define PROGRESS_STR " %d%% ... "

  2048 #define STATUS_STR "%d Possibilit%s (%d Region%s)"

  2049 

  2050 	int poss = last_rs_possible;

  2051 	int regions = last_rs_regions;

  2052 	if(poss <= 0)

  2053 		strcpy(Str_Tmp," RAM Search");

  2054 	else if(percent <= 0)

  2055 		sprintf(Str_Tmp, HEADER_STR STATUS_STR, poss, poss==1?"y":"ies", regions, regions==1?"":"s");

  2056 	else

  2057 		sprintf(Str_Tmp, PROGRESS_STR STATUS_STR, percent, poss, poss==1?"y":"ies", regions, regions==1?"":"s");

  2058 	SetWindowText(RamSearchHWnd, Str_Tmp);

  2059 }

  2060 

  2061 void UpdatePossibilities(int rs_possible, int regions)

  2062 {

  2063 	if(rs_possible != last_rs_possible)

  2064 	{

  2065 		last_rs_possible = rs_possible;

  2066 		last_rs_regions = regions;

  2067 		UpdateRamSearchTitleBar();

  2068 	}

  2069 }

  2070 

  2071 void SetRamSearchUndoType(HWND hDlg, int type)

  2072 {

  2073 	if(s_undoType != type)

  2074 	{

  2075 		if((s_undoType!=2 && s_undoType!=-1)!=(type!=2 && type!=-1))

  2076 			SendDlgItemMessage(hDlg,IDC_C_UNDO,WM_SETTEXT,0,(LPARAM)((type == 2 || type == -1) ? "Redo" : "Undo"));

  2077 		if((s_undoType>0)!=(type>0))

  2078 			EnableWindow(GetDlgItem(hDlg,IDC_C_UNDO),type>0);

  2079 		s_undoType = type;

  2080 	}

  2081 }

  2082 

  2083 void RamSearchSaveUndoStateIfNotTooBig(HWND hDlg)

  2084 {

  2085 	EnterCriticalSection(&s_activeMemoryRegionsCS);

  2086 	if(s_activeMemoryRegions.size() < tooManyRegionsForUndo)

  2087 	{

  2088 		s_activeMemoryRegionsBackup = s_activeMemoryRegions;

  2089 		LeaveCriticalSection(&s_activeMemoryRegionsCS);

  2090 		SetRamSearchUndoType(hDlg, 1);

  2091 	}

  2092 	else

  2093 	{

  2094 		LeaveCriticalSection(&s_activeMemoryRegionsCS);

  2095 		SetRamSearchUndoType(hDlg, 0);

  2096 	}

  2097 }

  2098 

  2099 struct InitRamSearch

  2100 {

  2101 	InitRamSearch()

  2102 	{

  2103 		InitializeCriticalSection(&s_activeMemoryRegionsCS);

  2104 	}

  2105 	~InitRamSearch()

  2106 	{

  2107 		DeleteCriticalSection(&s_activeMemoryRegionsCS);

  2108 	}

  2109 } initRamSearch;

  2110 

  2111 

  2112 void init_list_box(HWND Box, const char* Strs[], int numColumns, int *columnWidths) //initializes the ram search and/or ram watch listbox

  2113 {

  2114 	LVCOLUMN Col;

  2115 	Col.mask = LVCF_FMT | LVCF_ORDER | LVCF_SUBITEM | LVCF_TEXT | LVCF_WIDTH;

  2116 	Col.fmt = LVCFMT_CENTER;

  2117 	for (int i = 0; i < numColumns; i++)

  2118 	{

  2119 		Col.iOrder = i;

  2120 		Col.iSubItem = i;

  2121 		Col.pszText = (LPSTR)(Strs[i]);

  2122 		Col.cx = columnWidths[i];

  2123 		ListView_InsertColumn(Box,i,&Col);

  2124 	}

  2125 

  2126 	ListView_SetExtendedListViewStyle(Box, LVS_EX_FULLROWSELECT);

  2127 }
author	Robert McIntyre <rlm@mit.edu>
date	Sat, 03 Mar 2012 10:33:11 -0600
parents	f9f4f1b99eed
children