// JLH = James Hammons <jlhamm@acm.org>
//
// Who When What
-// --- ---------- -------------------------------------------------------------
+// --- ---------- -----------------------------------------------------------
// JLH 01/16/2010 Created this log ;-)
//
//#define OP_DEBUG
//#define OP_DEBUG_BMP
-#define BLEND_Y(dst, src) op_blend_y[(((uint16)dst<<8)) | ((uint16)(src))]
-#define BLEND_CR(dst, src) op_blend_cr[(((uint16)dst)<<8) | ((uint16)(src))]
+#define BLEND_Y(dst, src) op_blend_y[(((uint16_t)dst<<8)) | ((uint16_t)(src))]
+#define BLEND_CR(dst, src) op_blend_cr[(((uint16_t)dst)<<8) | ((uint16_t)(src))]
#define OBJECT_TYPE_BITMAP 0 // 000
#define OBJECT_TYPE_SCALE 1 // 001
// Private function prototypes
-void OPProcessFixedBitmap(uint64 p0, uint64 p1, bool render);
-void OPProcessScaledBitmap(uint64 p0, uint64 p1, uint64 p2, bool render);
-void OPDiscoverObjects(uint32 address);
+void OPProcessFixedBitmap(uint64_t p0, uint64_t p1, bool render);
+void OPProcessScaledBitmap(uint64_t p0, uint64_t p1, uint64_t p2, bool render);
+void OPDiscoverObjects(uint32_t address);
void OPDumpObjectList(void);
-void DumpScaledObject(uint64 p0, uint64 p1, uint64 p2);
-void DumpFixedObject(uint64 p0, uint64 p1);
-void DumpBitmapCore(uint64 p0, uint64 p1);
-uint64 OPLoadPhrase(uint32 offset);
+void DumpScaledObject(uint64_t p0, uint64_t p1, uint64_t p2);
+void DumpFixedObject(uint64_t p0, uint64_t p1);
+void DumpBitmapCore(uint64_t p0, uint64_t p1);
+uint64_t OPLoadPhrase(uint32_t offset);
// Local global variables
// Blend tables (64K each)
-static uint8 op_blend_y[0x10000];
-static uint8 op_blend_cr[0x10000];
+static uint8_t op_blend_y[0x10000];
+static uint8_t op_blend_cr[0x10000];
// There may be a problem with this "RAM" overlapping (and thus being independent of)
// some of the regular TOM RAM...
//#warning objectp_ram is separated from TOM RAM--need to fix that!
-//static uint8 objectp_ram[0x40]; // This is based at $F00000
-uint8 objectp_running = 0;
+//static uint8_t objectp_ram[0x40]; // This is based at $F00000
+uint8_t objectp_running = 0;
//bool objectp_stop_reading_list;
-static uint8 op_bitmap_bit_depth[8] = { 1, 2, 4, 8, 16, 24, 32, 0 };
-//static uint32 op_bitmap_bit_size[8] =
-// { (uint32)(0.125*65536), (uint32)(0.25*65536), (uint32)(0.5*65536), (uint32)(1*65536),
-// (uint32)(2*65536), (uint32)(1*65536), (uint32)(1*65536), (uint32)(1*65536) };
-static uint32 op_pointer;
+static uint8_t op_bitmap_bit_depth[8] = { 1, 2, 4, 8, 16, 24, 32, 0 };
+//static uint32_t op_bitmap_bit_size[8] =
+// { (uint32_t)(0.125*65536), (uint32_t)(0.25*65536), (uint32_t)(0.5*65536), (uint32_t)(1*65536),
+// (uint32_t)(2*65536), (uint32_t)(1*65536), (uint32_t)(1*65536), (uint32_t)(1*65536) };
+static uint32_t op_pointer;
-int32 phraseWidthToPixels[8] = { 64, 32, 16, 8, 4, 2, 0, 0 };
+int32_t phraseWidthToPixels[8] = { 64, 32, 16, 8, 4, 2, 0, 0 };
//
for(int i=0; i<256*256; i++)
{
int y = (i >> 8) & 0xFF;
- int dy = (int8)i; // Sign extend the Y index
+ int dy = (int8_t)i; // Sign extend the Y index
int c1 = (i >> 8) & 0x0F;
- int dc1 = (int8)(i << 4) >> 4; // Sign extend the R index
+ int dc1 = (int8_t)(i << 4) >> 4; // Sign extend the R index
int c2 = (i >> 12) & 0x0F;
- int dc2 = (int8)(i & 0xF0) >> 4; // Sign extend the C index
+ int dc2 = (int8_t)(i & 0xF0) >> 4; // Sign extend the C index
y += dy;
{ "(BITMAP)", "(SCALED BITMAP)", "(GPU INT)", "(BRANCH)", "(STOP)", "???", "???", "???" };
static const char * ccType[8] =
{ "==", "<", ">", "(opflag set)", "(second half line)", "?", "?", "?" };
-static uint32 object[8192];
-static uint32 numberOfObjects;
-//static uint32 objectLink[8192];
-//static uint32 numberOfLinks;
+static uint32_t object[8192];
+static uint32_t numberOfObjects;
+//static uint32_t objectLink[8192];
+//static uint32_t numberOfLinks;
void OPDone(void)
// const char * ccType[8] =
// { "\"==\"", "\"<\"", "\">\"", "(opflag set)", "(second half line)", "?", "?", "?" };
- uint32 olp = OPGetListPointer();
+ uint32_t olp = OPGetListPointer();
WriteLog("\nOP: OLP = $%08X\n", olp);
WriteLog("OP: Phrase dump\n ----------\n");
#if 0
- for(uint32 i=0; i<0x100; i+=8)
+ for(uint32_t i=0; i<0x100; i+=8)
{
- uint32 hi = JaguarReadLong(olp + i, OP), lo = JaguarReadLong(olp + i + 4, OP);
+ uint32_t hi = JaguarReadLong(olp + i, OP), lo = JaguarReadLong(olp + i + 4, OP);
WriteLog("\t%08X: %08X %08X %s", olp + i, hi, lo, opType[lo & 0x07]);
if ((lo & 0x07) == 3)
{
- uint16 ypos = (lo >> 3) & 0x7FF;
- uint8 cc = (lo >> 14) & 0x03;
- uint32 link = ((hi << 11) | (lo >> 21)) & 0x3FFFF8;
+ uint16_t ypos = (lo >> 3) & 0x7FF;
+ uint8_t cc = (lo >> 14) & 0x03;
+ uint32_t link = ((hi << 11) | (lo >> 21)) & 0x3FFFF8;
WriteLog(" YPOS=%u, CC=%s, link=%08X", ypos, ccType[cc], link);
}
}
-bool OPObjectExists(uint32 address)
+bool OPObjectExists(uint32_t address)
{
// Yes, we really do a linear search, every time. :-/
- for(uint32 i=0; i<numberOfObjects; i++)
+ for(uint32_t i=0; i<numberOfObjects; i++)
{
if (address == object[i])
return true;
}
-void OPDiscoverObjects(uint32 address)
+void OPDiscoverObjects(uint32_t address)
{
- uint8 objectType = 0;
+ uint8_t objectType = 0;
do
{
object[numberOfObjects++] = address;
// Get the object & decode its type, link address
- uint32 hi = JaguarReadLong(address + 0, OP);
- uint32 lo = JaguarReadLong(address + 4, OP);
+ uint32_t hi = JaguarReadLong(address + 0, OP);
+ uint32_t lo = JaguarReadLong(address + 4, OP);
objectType = lo & 0x07;
- uint32 link = ((hi << 11) | (lo >> 21)) & 0x3FFFF8;
+ uint32_t link = ((hi << 11) | (lo >> 21)) & 0x3FFFF8;
if (objectType == 3)
{
- // Recursion needed to follow all links! This does depth-first recursion
- // on the not-taken objects
- OPDiscoverObjects(address + 8);
+ // Branch if YPOS < 2047 can be treated as a GOTO, so don't do any
+ // discovery in that case. Otherwise, have at it:
+ if ((lo & 0xFFFF) != 0x7FFB)
+ // Recursion needed to follow all links! This does depth-first
+ // recursion on the not-taken objects
+ OPDiscoverObjects(address + 8);
}
// Get the next object...
void OPDumpObjectList(void)
{
- for(uint32 i=0; i<numberOfObjects; i++)
+ for(uint32_t i=0; i<numberOfObjects; i++)
{
- uint32 address = object[i];
+ uint32_t address = object[i];
- uint32 hi = JaguarReadLong(address + 0, OP);
- uint32 lo = JaguarReadLong(address + 4, OP);
- uint8 objectType = lo & 0x07;
- uint32 link = ((hi << 11) | (lo >> 21)) & 0x3FFFF8;
- WriteLog("%08X: %08X %08X %s -> $08X", address, hi, lo, opType[objectType], link);
+ uint32_t hi = JaguarReadLong(address + 0, OP);
+ uint32_t lo = JaguarReadLong(address + 4, OP);
+ uint8_t objectType = lo & 0x07;
+ uint32_t link = ((hi << 11) | (lo >> 21)) & 0x3FFFF8;
+ WriteLog("%08X: %08X %08X %s -> $%08X", address, hi, lo, opType[objectType], link);
if (objectType == 3)
{
- uint16 ypos = (lo >> 3) & 0x7FF;
- uint8 cc = (lo >> 14) & 0x07; // Proper # of bits == 3
+ uint16_t ypos = (lo >> 3) & 0x7FF;
+ uint8_t cc = (lo >> 14) & 0x07; // Proper # of bits == 3
WriteLog(" YPOS %s %u", ccType[cc], ypos);
}
WriteLog("\n");
+ // Yes, this is how the OP finds follow-on phrases for bitmap/scaled
+ // bitmap objects...!
if (objectType == 0)
- DumpFixedObject(OPLoadPhrase(address + 0), OPLoadPhrase(address + 8));
+ DumpFixedObject(OPLoadPhrase(address + 0),
+ OPLoadPhrase(address | 0x08));
if (objectType == 1)
- DumpScaledObject(OPLoadPhrase(address + 0), OPLoadPhrase(address + 8),
- OPLoadPhrase(address + 16));
+ DumpScaledObject(OPLoadPhrase(address + 0),
+ OPLoadPhrase(address | 0x08), OPLoadPhrase(address | 0x10));
if (address == link) // Ruh roh...
{
//
#if 0
-uint8 OPReadByte(uint32 offset, uint32 who/*=UNKNOWN*/)
+uint8_t OPReadByte(uint32_t offset, uint32_t who/*=UNKNOWN*/)
{
offset &= 0x3F;
return objectp_ram[offset];
}
-uint16 OPReadWord(uint32 offset, uint32 who/*=UNKNOWN*/)
+uint16_t OPReadWord(uint32_t offset, uint32_t who/*=UNKNOWN*/)
{
offset &= 0x3F;
return GET16(objectp_ram, offset);
}
-void OPWriteByte(uint32 offset, uint8 data, uint32 who/*=UNKNOWN*/)
+void OPWriteByte(uint32_t offset, uint8_t data, uint32_t who/*=UNKNOWN*/)
{
offset &= 0x3F;
objectp_ram[offset] = data;
}
-void OPWriteWord(uint32 offset, uint16 data, uint32 who/*=UNKNOWN*/)
+void OPWriteWord(uint32_t offset, uint16_t data, uint32_t who/*=UNKNOWN*/)
{
offset &= 0x3F;
SET16(objectp_ram, offset, data);
#endif
-uint32 OPGetListPointer(void)
+uint32_t OPGetListPointer(void)
{
// Note: This register is LO / HI WORD, hence the funky look of this...
return GET16(tomRam8, 0x20) | (GET16(tomRam8, 0x22) << 16);
// This is WRONG, since the OBF is only 16 bits wide!!! [FIXED]
-uint32 OPGetStatusRegister(void)
+uint32_t OPGetStatusRegister(void)
{
return GET16(tomRam8, 0x26);
}
// This is WRONG, since the OBF is only 16 bits wide!!! [FIXED]
-void OPSetStatusRegister(uint32 data)
+void OPSetStatusRegister(uint32_t data)
{
tomRam8[0x26] = (data & 0x0000FF00) >> 8;
tomRam8[0x27] |= (data & 0xFE);
}
-void OPSetCurrentObject(uint64 object)
+void OPSetCurrentObject(uint64_t object)
{
//Not sure this is right... Wouldn't it just be stored 64 bit BE?
// Stored as least significant 32 bits first, ms32 last in big endian
}
-uint64 OPLoadPhrase(uint32 offset)
+uint64_t OPLoadPhrase(uint32_t offset)
{
offset &= ~0x07; // 8 byte alignment
- return ((uint64)JaguarReadLong(offset, OP) << 32) | (uint64)JaguarReadLong(offset+4, OP);
+ return ((uint64_t)JaguarReadLong(offset, OP) << 32) | (uint64_t)JaguarReadLong(offset+4, OP);
}
-void OPStorePhrase(uint32 offset, uint64 p)
+void OPStorePhrase(uint32_t offset, uint64_t p)
{
offset &= ~0x07; // 8 byte alignment
JaguarWriteLong(offset, p >> 32, OP);
//
// Debugging routines
//
-void DumpScaledObject(uint64 p0, uint64 p1, uint64 p2)
+void DumpScaledObject(uint64_t p0, uint64_t p1, uint64_t p2)
{
- WriteLog(" %08X %08X\n", (uint32)(p1>>32), (uint32)(p1&0xFFFFFFFF));
- WriteLog(" %08X %08X\n", (uint32)(p2>>32), (uint32)(p2&0xFFFFFFFF));
+ WriteLog(" %08X %08X\n", (uint32_t)(p1>>32), (uint32_t)(p1&0xFFFFFFFF));
+ WriteLog(" %08X %08X\n", (uint32_t)(p2>>32), (uint32_t)(p2&0xFFFFFFFF));
DumpBitmapCore(p0, p1);
- uint32 hscale = p2 & 0xFF;
- uint32 vscale = (p2 >> 8) & 0xFF;
- uint32 remainder = (p2 >> 16) & 0xFF;
+ uint32_t hscale = p2 & 0xFF;
+ uint32_t vscale = (p2 >> 8) & 0xFF;
+ uint32_t remainder = (p2 >> 16) & 0xFF;
WriteLog(" [hsc: %02X, vsc: %02X, rem: %02X]\n", hscale, vscale, remainder);
}
-void DumpFixedObject(uint64 p0, uint64 p1)
+void DumpFixedObject(uint64_t p0, uint64_t p1)
{
- WriteLog(" %08X %08X\n", (uint32)(p1>>32), (uint32)(p1&0xFFFFFFFF));
+ WriteLog(" %08X %08X\n", (uint32_t)(p1>>32), (uint32_t)(p1&0xFFFFFFFF));
DumpBitmapCore(p0, p1);
}
-void DumpBitmapCore(uint64 p0, uint64 p1)
+void DumpBitmapCore(uint64_t p0, uint64_t p1)
{
- uint32 bdMultiplier[8] = { 64, 32, 16, 8, 4, 2, 1, 1 };
- uint8 bitdepth = (p1 >> 12) & 0x07;
-//WAS: int16 ypos = ((p0 >> 3) & 0x3FF); // ??? What if not interlaced (/2)?
- int16 ypos = ((p0 >> 3) & 0x7FF); // ??? What if not interlaced (/2)?
- int32 xpos = p1 & 0xFFF;
+ uint32_t bdMultiplier[8] = { 64, 32, 16, 8, 4, 2, 1, 1 };
+ uint8_t bitdepth = (p1 >> 12) & 0x07;
+//WAS: int16_t ypos = ((p0 >> 3) & 0x3FF); // ??? What if not interlaced (/2)?
+ int16_t ypos = ((p0 >> 3) & 0x7FF); // ??? What if not interlaced (/2)?
+ int32_t xpos = p1 & 0xFFF;
xpos = (xpos & 0x800 ? xpos | 0xFFFFF000 : xpos); // Sign extend that mutha!
- uint32 iwidth = ((p1 >> 28) & 0x3FF);
- uint32 dwidth = ((p1 >> 18) & 0x3FF); // Unsigned!
- uint16 height = ((p0 >> 14) & 0x3FF);
- uint32 link = ((p0 >> 24) & 0x7FFFF) << 3;
- uint32 ptr = ((p0 >> 43) & 0x1FFFFF) << 3;
- uint32 firstPix = (p1 >> 49) & 0x3F;
- uint8 flags = (p1 >> 45) & 0x0F;
- uint8 idx = (p1 >> 38) & 0x7F;
- uint32 pitch = (p1 >> 15) & 0x07;
+ uint32_t iwidth = ((p1 >> 28) & 0x3FF);
+ uint32_t dwidth = ((p1 >> 18) & 0x3FF); // Unsigned!
+ uint16_t height = ((p0 >> 14) & 0x3FF);
+ uint32_t link = ((p0 >> 24) & 0x7FFFF) << 3;
+ uint32_t ptr = ((p0 >> 43) & 0x1FFFFF) << 3;
+ uint32_t firstPix = (p1 >> 49) & 0x3F;
+ uint8_t flags = (p1 >> 45) & 0x0F;
+ uint8_t idx = (p1 >> 38) & 0x7F;
+ uint32_t pitch = (p1 >> 15) & 0x07;
WriteLog(" [%u x %u @ (%i, %u) (iw:%u, dw:%u) (%u bpp), p:%08X fp:%02X, fl:%s%s%s%s, idx:%02X, pt:%02X]\n",
iwidth * bdMultiplier[bitdepth],
height, xpos, ypos, iwidth, dwidth, op_bitmap_bit_depth[bitdepth],
void OPProcessList(int halfline, bool render)
{
#warning "!!! NEED TO HANDLE MULTIPLE FIELDS PROPERLY !!!"
-// We ignore them, for now; not good
+// We ignore them, for now; not good D-:
+// N.B.: Half-lines are exactly that, half-lines. When in interlaced mode, it
+// draws the screen exactly the same way as it does in non, one line at a
+// time. The only way you know you're in field #2 is that the topmost bit
+// of VC is set. Half-line mode is so you can draw higher horizontal
+// resolutions than you normally could, as the line buffer is only 720
+// pixels wide...
halfline &= 0x7FF;
extern int op_start_log;
-// char * condition_to_str[8] =
-// { "==", "<", ">", "(opflag set)", "(second half line)", "?", "?", "?" };
op_pointer = OPGetListPointer();
int bitmapCounter = 0;
// *** END OP PROCESSOR TESTING ONLY ***
- uint32 opCyclesToRun = 30000; // This is a pulled-out-of-the-air value (will need to be fixed, obviously!)
+ uint32_t opCyclesToRun = 30000; // This is a pulled-out-of-the-air value (will need to be fixed, obviously!)
// if (op_pointer) WriteLog(" new op list at 0x%.8x halfline %i\n",op_pointer,halfline);
while (op_pointer)
// if (objectp_stop_reading_list)
// return;
- uint64 p0 = OPLoadPhrase(op_pointer);
+ uint64_t p0 = OPLoadPhrase(op_pointer);
op_pointer += 8;
-//WriteLog("\t%08X type %i\n", op_pointer, (uint8)p0 & 0x07);
+//WriteLog("\t%08X type %i\n", op_pointer, (uint8_t)p0 & 0x07);
#if 1
if (halfline == TOMGetVDB() && op_start_log)
if ((p0 & 0x07) == OBJECT_TYPE_BITMAP)
{
WriteLog(" (BITMAP) ");
-uint64 p1 = OPLoadPhrase(op_pointer);
+uint64_t p1 = OPLoadPhrase(op_pointer);
WriteLog("\n%08X --> phrase %08X %08X ", op_pointer, (int)(p1>>32), (int)(p1&0xFFFFFFFF));
- uint8 bitdepth = (p1 >> 12) & 0x07;
-//WAS: int16 ypos = ((p0 >> 3) & 0x3FF); // ??? What if not interlaced (/2)?
- int16 ypos = ((p0 >> 3) & 0x7FF); // ??? What if not interlaced (/2)?
-int32 xpos = p1 & 0xFFF;
+ uint8_t bitdepth = (p1 >> 12) & 0x07;
+//WAS: int16_t ypos = ((p0 >> 3) & 0x3FF); // ??? What if not interlaced (/2)?
+ int16_t ypos = ((p0 >> 3) & 0x7FF); // ??? What if not interlaced (/2)?
+int32_t xpos = p1 & 0xFFF;
xpos = (xpos & 0x800 ? xpos | 0xFFFFF000 : xpos);
- uint32 iwidth = ((p1 >> 28) & 0x3FF);
- uint32 dwidth = ((p1 >> 18) & 0x3FF); // Unsigned!
- uint16 height = ((p0 >> 14) & 0x3FF);
- uint32 link = ((p0 >> 24) & 0x7FFFF) << 3;
- uint32 ptr = ((p0 >> 43) & 0x1FFFFF) << 3;
- uint32 firstPix = (p1 >> 49) & 0x3F;
- uint8 flags = (p1 >> 45) & 0x0F;
- uint8 idx = (p1 >> 38) & 0x7F;
- uint32 pitch = (p1 >> 15) & 0x07;
+ uint32_t iwidth = ((p1 >> 28) & 0x3FF);
+ uint32_t dwidth = ((p1 >> 18) & 0x3FF); // Unsigned!
+ uint16_t height = ((p0 >> 14) & 0x3FF);
+ uint32_t link = ((p0 >> 24) & 0x7FFFF) << 3;
+ uint32_t ptr = ((p0 >> 43) & 0x1FFFFF) << 3;
+ uint32_t firstPix = (p1 >> 49) & 0x3F;
+ uint8_t flags = (p1 >> 45) & 0x0F;
+ uint8_t idx = (p1 >> 38) & 0x7F;
+ uint32_t pitch = (p1 >> 15) & 0x07;
WriteLog("\n [%u (%u) x %u @ (%i, %u) (%u bpp), l: %08X, p: %08X fp: %02X, fl:%s%s%s%s, idx:%02X, pt:%02X]\n",
iwidth, dwidth, height, xpos, ypos, op_bitmap_bit_depth[bitdepth], link, ptr, firstPix, (flags&OPFLAG_REFLECT ? "REFLECT " : ""), (flags&OPFLAG_RMW ? "RMW " : ""), (flags&OPFLAG_TRANS ? "TRANS " : ""), (flags&OPFLAG_RELEASE ? "RELEASE" : ""), idx, pitch);
}
if ((p0 & 0x07) == OBJECT_TYPE_SCALE)
{
WriteLog(" (SCALED BITMAP)");
-uint64 p1 = OPLoadPhrase(op_pointer), p2 = OPLoadPhrase(op_pointer+8);
+uint64_t p1 = OPLoadPhrase(op_pointer), p2 = OPLoadPhrase(op_pointer+8);
WriteLog("\n%08X --> phrase %08X %08X ", op_pointer, (int)(p1>>32), (int)(p1&0xFFFFFFFF));
WriteLog("\n%08X --> phrase %08X %08X ", op_pointer+8, (int)(p2>>32), (int)(p2&0xFFFFFFFF));
- uint8 bitdepth = (p1 >> 12) & 0x07;
-//WAS: int16 ypos = ((p0 >> 3) & 0x3FF); // ??? What if not interlaced (/2)?
- int16 ypos = ((p0 >> 3) & 0x7FF); // ??? What if not interlaced (/2)?
-int32 xpos = p1 & 0xFFF;
+ uint8_t bitdepth = (p1 >> 12) & 0x07;
+//WAS: int16_t ypos = ((p0 >> 3) & 0x3FF); // ??? What if not interlaced (/2)?
+ int16_t ypos = ((p0 >> 3) & 0x7FF); // ??? What if not interlaced (/2)?
+int32_t xpos = p1 & 0xFFF;
xpos = (xpos & 0x800 ? xpos | 0xFFFFF000 : xpos);
- uint32 iwidth = ((p1 >> 28) & 0x3FF);
- uint32 dwidth = ((p1 >> 18) & 0x3FF); // Unsigned!
- uint16 height = ((p0 >> 14) & 0x3FF);
- uint32 link = ((p0 >> 24) & 0x7FFFF) << 3;
- uint32 ptr = ((p0 >> 43) & 0x1FFFFF) << 3;
- uint32 firstPix = (p1 >> 49) & 0x3F;
- uint8 flags = (p1 >> 45) & 0x0F;
- uint8 idx = (p1 >> 38) & 0x7F;
- uint32 pitch = (p1 >> 15) & 0x07;
+ uint32_t iwidth = ((p1 >> 28) & 0x3FF);
+ uint32_t dwidth = ((p1 >> 18) & 0x3FF); // Unsigned!
+ uint16_t height = ((p0 >> 14) & 0x3FF);
+ uint32_t link = ((p0 >> 24) & 0x7FFFF) << 3;
+ uint32_t ptr = ((p0 >> 43) & 0x1FFFFF) << 3;
+ uint32_t firstPix = (p1 >> 49) & 0x3F;
+ uint8_t flags = (p1 >> 45) & 0x0F;
+ uint8_t idx = (p1 >> 38) & 0x7F;
+ uint32_t pitch = (p1 >> 15) & 0x07;
WriteLog("\n [%u (%u) x %u @ (%i, %u) (%u bpp), l: %08X, p: %08X fp: %02X, fl:%s%s%s%s, idx:%02X, pt:%02X]\n",
iwidth, dwidth, height, xpos, ypos, op_bitmap_bit_depth[bitdepth], link, ptr, firstPix, (flags&OPFLAG_REFLECT ? "REFLECT " : ""), (flags&OPFLAG_RMW ? "RMW " : ""), (flags&OPFLAG_TRANS ? "TRANS " : ""), (flags&OPFLAG_RELEASE ? "RELEASE" : ""), idx, pitch);
- uint32 hscale = p2 & 0xFF;
- uint32 vscale = (p2 >> 8) & 0xFF;
- uint32 remainder = (p2 >> 16) & 0xFF;
+ uint32_t hscale = p2 & 0xFF;
+ uint32_t vscale = (p2 >> 8) & 0xFF;
+ uint32_t remainder = (p2 >> 16) & 0xFF;
WriteLog(" [hsc: %02X, vsc: %02X, rem: %02X]\n", hscale, vscale, remainder);
}
if ((p0 & 0x07) == OBJECT_TYPE_GPU)
if ((p0 & 0x07) == OBJECT_TYPE_BRANCH)
{
WriteLog(" (BRANCH)\n");
-uint8 * jaguarMainRam = GetRamPtr();
+uint8_t * jaguarMainRam = GetRamPtr();
WriteLog("[RAM] --> ");
for(int k=0; k<8; k++)
WriteLog("%02X ", jaguarMainRam[op_pointer-8 + k]);
}
#endif
- switch ((uint8)p0 & 0x07)
+ switch ((uint8_t)p0 & 0x07)
{
case OBJECT_TYPE_BITMAP:
{
-//WAS: uint16 ypos = (p0 >> 3) & 0x3FF;
- uint16 ypos = (p0 >> 3) & 0x7FF;
+ uint16_t ypos = (p0 >> 3) & 0x7FF;
// This is only theory implied by Rayman...!
-// It seems that if the YPOS is zero, then bump the YPOS value so that it coincides with
-// the VDB value. With interlacing, this would be slightly more tricky.
-// There's probably another bit somewhere that enables this mode--but so far, doesn't seem
-// to affect any other game in a negative way (that I've seen).
-// Either that, or it's an undocumented bug...
+// It seems that if the YPOS is zero, then bump the YPOS value so that it
+// coincides with the VDB value. With interlacing, this would be slightly more
+// tricky. There's probably another bit somewhere that enables this mode--but
+// so far, doesn't seem to affect any other game in a negative way (that I've
+// seen). Either that, or it's an undocumented bug...
//No, the reason this was needed is that the OP code before was wrong. Any value
//less than VDB will get written to the top line of the display!
if (ypos == 0)
ypos = TOMReadWord(0xF00046, OP) / 2; // Get the VDB value
#endif
-// Actually, no. Any item less than VDB will get only the lines that hang over VDB displayed.
-// Actually, this is incorrect. It seems that VDB value is wrong somewhere and that's
-// what's causing things to fuck up. Still no idea why.
+// Actually, no. Any item less than VDB will get only the lines that hang over
+// VDB displayed. Actually, this is incorrect. It seems that VDB value is wrong
+// somewhere and that's what's causing things to fuck up. Still no idea why.
- uint32 height = (p0 & 0xFFC000) >> 14;
- uint32 oldOPP = op_pointer - 8;
+ uint32_t height = (p0 & 0xFFC000) >> 14;
+ uint32_t oldOPP = op_pointer - 8;
// *** BEGIN OP PROCESSOR TESTING ONLY ***
if (inhibit && op_start_log)
WriteLog("!!! ^^^ This object is INHIBITED! ^^^ !!!\n");
// *** END OP PROCESSOR TESTING ONLY ***
if (halfline >= ypos && height > 0)
{
- uint64 p1 = OPLoadPhrase(op_pointer);
- op_pointer += 8;
+ // Believe it or not, this is what the OP actually does...
+ // which is why they're required to be on a dphrase boundary!
+ uint64_t p1 = OPLoadPhrase(oldOPP | 0x08);
+//unneeded op_pointer += 8;
//WriteLog("OP: Writing halfline %d with ypos == %d...\n", halfline, ypos);
//WriteLog("--> Writing %u BPP bitmap...\n", op_bitmap_bit_depth[(p1 >> 12) & 0x07]);
// OPProcessFixedBitmap(halfline, p0, p1, render);
// OP write-backs
-//???Does this really happen??? Doesn't seem to work if you do this...!
-//Probably not. Must be a bug in the documentation...!
-// uint32 link = (p0 & 0x7FFFF000000) >> 21;
-// SET16(tom_ram_8, 0x20, link & 0xFFFF); // OLP
-// SET16(tom_ram_8, 0x22, link >> 16);
-/* uint32 height = (p0 & 0xFFC000) >> 14;
- if (height - 1 > 0)
- height--;*/
- // NOTE: Would subtract 2 if in interlaced mode...!
-// uint64 height = ((p0 & 0xFFC000) - 0x4000) & 0xFFC000;
-// if (height)
height--;
- uint64 data = (p0 & 0xFFFFF80000000000LL) >> 40;
- uint64 dwidth = (p1 & 0xFFC0000) >> 15;
+ uint64_t data = (p0 & 0xFFFFF80000000000LL) >> 40;
+ uint64_t dwidth = (p1 & 0xFFC0000) >> 15;
data += dwidth;
p0 &= ~0xFFFFF80000FFC000LL; // Mask out old data...
- p0 |= (uint64)height << 14;
+ p0 |= (uint64_t)height << 14;
p0 |= data << 40;
OPStorePhrase(oldOPP, p0);
}
-//WriteLog("\t\tOld OP: %08X -> ", op_pointer);
-//Temp, for testing...
-//No doubt, this type of check will break all kinds of stuff... !!! FIX !!!
-//And it does! !!! FIX !!!
-//Let's remove this "fix" since it screws up more than it fixes.
-/* if (op_pointer > ((p0 & 0x000007FFFF000000LL) >> 21))
- return;*/
-
-// NOTE: The link address only replaces bits 3-21 in the OLP, and this replaces
-// EVERYTHING. !!! FIX !!! [DONE]
-#warning "!!! Link address is not linked properly for all object types !!!"
-#warning "!!! Only BITMAP is properly handled !!!"
- op_pointer &= 0xFFC00007;
- op_pointer |= (p0 & 0x000007FFFF000000LL) >> 21;
-//WriteLog("New OP: %08X\n", op_pointer);
-//kludge: Seems that memory access is mirrored in the first 8MB of memory...
-if (op_pointer > 0x1FFFFF && op_pointer < 0x800000)
- op_pointer &= 0xFF1FFFFF; // Knock out bits 21-23
+
+ // OP bottom 3 bits are hardwired to zero. The link address
+ // reflects this, so we only need the top 19 bits of the address
+ // (which is why we only shift 21, and not 24).
+ op_pointer = (p0 & 0x000007FFFF000000LL) >> 21;
+
+ // KLUDGE: Seems that memory access is mirrored in the first 8MB of
+ // memory...
+ if (op_pointer > 0x1FFFFF && op_pointer < 0x800000)
+ op_pointer &= 0xFF1FFFFF; // Knock out bits 21-23
break;
}
case OBJECT_TYPE_SCALE:
{
-//WAS: uint16 ypos = (p0 >> 3) & 0x3FF;
- uint16 ypos = (p0 >> 3) & 0x7FF;
- uint32 height = (p0 & 0xFFC000) >> 14;
- uint32 oldOPP = op_pointer - 8;
+//WAS: uint16_t ypos = (p0 >> 3) & 0x3FF;
+ uint16_t ypos = (p0 >> 3) & 0x7FF;
+ uint32_t height = (p0 & 0xFFC000) >> 14;
+ uint32_t oldOPP = op_pointer - 8;
//WriteLog("OP: Scaled Object (ypos=%04X, height=%04X", ypos, height);
// *** BEGIN OP PROCESSOR TESTING ONLY ***
if (inhibit && op_start_log)
// *** END OP PROCESSOR TESTING ONLY ***
if (halfline >= ypos && height > 0)
{
- uint64 p1 = OPLoadPhrase(op_pointer);
- op_pointer += 8;
- uint64 p2 = OPLoadPhrase(op_pointer);
- op_pointer += 8;
-//WriteLog("OP: %08X (%d) %08X%08X %08X%08X %08X%08X\n", oldOPP, halfline, (uint32)(p0>>32), (uint32)(p0&0xFFFFFFFF), (uint32)(p1>>32), (uint32)(p1&0xFFFFFFFF), (uint32)(p2>>32), (uint32)(p2&0xFFFFFFFF));
+ // Believe it or not, this is what the OP actually does...
+ // which is why they're required to be on a qphrase boundary!
+ uint64_t p1 = OPLoadPhrase(oldOPP | 0x08);
+ uint64_t p2 = OPLoadPhrase(oldOPP | 0x10);
+//unneeded op_pointer += 16;
OPProcessScaledBitmap(p0, p1, p2, render);
// OP write-backs
- uint16 remainder = (p2 >> 16) & 0xFF;//, vscale = p2 >> 8;
- uint8 /*remainder = p2 >> 16,*/ vscale = p2 >> 8;
+ uint16_t remainder = (p2 >> 16) & 0xFF;//, vscale = p2 >> 8;
+ uint8_t /*remainder = p2 >> 16,*/ vscale = p2 >> 8;
//Actually, we should skip this object if it has a vscale of zero.
//Or do we? Not sure... Atari Karts has a few lines that look like:
// (SCALED BITMAP)
*/
//Here's another problem:
// [hsc: 20, vsc: 20, rem: 00]
-// Since we're not checking for $E0 (but that's what we get from the above), we end
-// up repeating this halfline unnecessarily... !!! FIX !!! [DONE, but... still not quite
-// right. Either that, or the Accolade team that wrote Bubsy screwed up royal.]
+// Since we're not checking for $E0 (but that's what we get from the above), we
+// end up repeating this halfline unnecessarily... !!! FIX !!! [DONE, but...
+// still not quite right. Either that, or the Accolade team that wrote Bubsy
+// screwed up royal.]
//Also note: $E0 = 7.0 which IS a legal vscale value...
// if (remainder & 0x80) // I.e., it's negative
// I.e., it's < 1.0f -> means it'll go negative when we subtract 1.0f.
if (remainder < 0x20)
{
- uint64 data = (p0 & 0xFFFFF80000000000LL) >> 40;
- uint64 dwidth = (p1 & 0xFFC0000) >> 15;
+ uint64_t data = (p0 & 0xFFFFF80000000000LL) >> 40;
+ uint64_t dwidth = (p1 & 0xFFC0000) >> 15;
// while (remainder & 0x80)
// while ((remainder & 0x80) || remainder == 0)
}
p0 &= ~0xFFFFF80000FFC000LL; // Mask out old data...
- p0 |= (uint64)height << 14;
+ p0 |= (uint64_t)height << 14;
p0 |= data << 40;
OPStorePhrase(oldOPP, p0);
}
//if (start_logging)
// WriteLog("--> Finished writebacks...\n");//*/
-//WriteLog(" [%08X%08X -> ", (uint32)(p2>>32), (uint32)(p2&0xFFFFFFFF));
+//WriteLog(" [%08X%08X -> ", (uint32_t)(p2>>32), (uint32_t)(p2&0xFFFFFFFF));
p2 &= ~0x0000000000FF0000LL;
- p2 |= (uint64)remainder << 16;
-//WriteLog("%08X%08X]\n", (uint32)(p2>>32), (uint32)(p2&0xFFFFFFFF));
+ p2 |= (uint64_t)remainder << 16;
+//WriteLog("%08X%08X]\n", (uint32_t)(p2>>32), (uint32_t)(p2&0xFFFFFFFF));
OPStorePhrase(oldOPP + 16, p2);
-//remainder = (uint8)(p2 >> 16), vscale = (uint8)(p2 >> 8);
+//remainder = (uint8_t)(p2 >> 16), vscale = (uint8_t)(p2 >> 8);
//WriteLog(" [after]: rem=%02X, vscale=%02X\n", remainder, vscale);
}
+ // OP bottom 3 bits are hardwired to zero. The link address
+ // reflects this, so we only need the top 19 bits of the address
+ // (which is why we only shift 21, and not 24).
op_pointer = (p0 & 0x000007FFFF000000LL) >> 21;
+
+ // KLUDGE: Seems that memory access is mirrored in the first 8MB of
+ // memory...
+ if (op_pointer > 0x1FFFFF && op_pointer < 0x800000)
+ op_pointer &= 0xFF1FFFFF; // Knock out bits 21-23
+
break;
}
case OBJECT_TYPE_GPU:
}
case OBJECT_TYPE_BRANCH:
{
- uint16 ypos = (p0 >> 3) & 0x7FF;
+ uint16_t ypos = (p0 >> 3) & 0x7FF;
// NOTE: The JTRM sez there are only 2 bits used for the CC, but lists *five*
// conditions! Need at least one more bit for that! :-P
// Also, the ASIC nets imply that it uses bits 14-16 (height in BM & SBM objects)
#warning "!!! Possibly bad CC handling in OP (missing 1 bit) !!!"
- uint8 cc = (p0 >> 14) & 0x03;
- uint32 link = (p0 >> 21) & 0x3FFFF8;
+ uint8_t cc = (p0 >> 14) & 0x03;
+ uint32_t link = (p0 >> 21) & 0x3FFFF8;
// if ((ypos!=507)&&(ypos!=25))
// WriteLog("\t%i%s%i link=0x%.8x\n",halfline,condition_to_str[cc],ypos>>1,link);
if (p0 & 0x08)
{
- // We need to check whether these interrupts are enabled or not, THEN
- // set an IRQ + pending flag if necessary...
+ // We need to check whether these interrupts are enabled or
+ // not, THEN set an IRQ + pending flag if necessary...
if (TOMIRQEnabled(IRQ_OPFLAG))
{
TOMSetPendingObjectInt();
- m68k_set_irq(2); // Cause a 68K IPL 2 to occur...
+ m68k_set_irq(2); // Cause a 68K IPL 2 to occur...
}
}
// break;
}
default:
-// WriteLog("op: unknown object type %i\n", ((uint8)p0 & 0x07));
- return;
+// WriteLog("op: unknown object type %i\n", ((uint8_t)p0 & 0x07));
+// return;
+ ;
}
- // Here is a little sanity check to keep the OP from locking up the machine
- // when fed bad data. Better would be to count how many actual cycles it used
- // and bail out/reenter to properly simulate an overloaded OP... !!! FIX !!!
+ // Here is a little sanity check to keep the OP from locking up the
+ // machine when fed bad data. Better would be to count how many actual
+ // cycles it used and bail out/reenter to properly simulate an
+ // overloaded OP... !!! FIX !!!
#warning "Better would be to count how many actual cycles it used and bail out/reenter to properly simulate an overloaded OP... !!! FIX !!!"
opCyclesToRun--;
//
// Store fixed size bitmap in line buffer
//
-void OPProcessFixedBitmap(uint64 p0, uint64 p1, bool render)
+void OPProcessFixedBitmap(uint64_t p0, uint64_t p1, bool render)
{
// Need to make sure that when writing that it stays within the line buffer...
// LBUF ($F01800 - $F01D9E) 360 x 32-bit RAM
- uint8 depth = (p1 >> 12) & 0x07; // Color depth of image
- int32 xpos = ((int16)((p1 << 4) & 0xFFFF)) >> 4;// Image xpos in LBUF
- uint32 iwidth = (p1 >> 28) & 0x3FF; // Image width in *phrases*
- uint32 data = (p0 >> 40) & 0xFFFFF8; // Pixel data address
+ uint8_t depth = (p1 >> 12) & 0x07; // Color depth of image
+ int32_t xpos = ((int16_t)((p1 << 4) & 0xFFFF)) >> 4;// Image xpos in LBUF
+ uint32_t iwidth = (p1 >> 28) & 0x3FF; // Image width in *phrases*
+ uint32_t data = (p0 >> 40) & 0xFFFFF8; // Pixel data address
//#ifdef OP_DEBUG_BMP
- uint32 firstPix = (p1 >> 49) & 0x3F;
+ uint32_t firstPix = (p1 >> 49) & 0x3F;
// "The LSB is significant only for scaled objects..." -JTRM
// "In 1 BPP mode, all five bits are significant. In 2 BPP mode, the top four are significant..."
firstPix &= 0x3E;
//#endif
// We can ignore the RELEASE (high order) bit for now--probably forever...!
-// uint8 flags = (p1 >> 45) & 0x0F; // REFLECT, RMW, TRANS, RELEASE
+// uint8_t flags = (p1 >> 45) & 0x0F; // REFLECT, RMW, TRANS, RELEASE
//Optimize: break these out to their own BOOL values
- uint8 flags = (p1 >> 45) & 0x07; // REFLECT (0), RMW (1), TRANS (2)
+ uint8_t flags = (p1 >> 45) & 0x07; // REFLECT (0), RMW (1), TRANS (2)
bool flagREFLECT = (flags & OPFLAG_REFLECT ? true : false),
flagRMW = (flags & OPFLAG_RMW ? true : false),
flagTRANS = (flags & OPFLAG_TRANS ? true : false);
// "For images with 1 to 4 bits/pixel the top 7 to 4 bits of the index
// provide the most significant bits of the palette address."
- uint8 index = (p1 >> 37) & 0xFE; // CLUT index offset (upper pix, 1-4 bpp)
- uint32 pitch = (p1 >> 15) & 0x07; // Phrase pitch
+ uint8_t index = (p1 >> 37) & 0xFE; // CLUT index offset (upper pix, 1-4 bpp)
+ uint32_t pitch = (p1 >> 15) & 0x07; // Phrase pitch
pitch <<= 3; // Optimization: Multiply pitch by 8
-// int16 scanlineWidth = tom_getVideoModeWidth();
- uint8 * tomRam8 = TOMGetRamPointer();
- uint8 * paletteRAM = &tomRam8[0x400];
+// int16_t scanlineWidth = tom_getVideoModeWidth();
+ uint8_t * tomRam8 = TOMGetRamPointer();
+ uint8_t * paletteRAM = &tomRam8[0x400];
// This is OK as long as it's used correctly: For 16-bit RAM to RAM direct copies--NOT
// for use when using endian-corrected data (i.e., any of the *_word_read functions!)
- uint16 * paletteRAM16 = (uint16 *)paletteRAM;
+ uint16_t * paletteRAM16 = (uint16_t *)paletteRAM;
// WriteLog("bitmap %ix? %ibpp at %i,? firstpix=? data=0x%.8x pitch %i hflipped=%s dwidth=? (linked to ?) RMW=%s Tranparent=%s\n",
// iwidth, op_bitmap_bit_depth[bitdepth], xpos, ptr, pitch, (flags&OPFLAG_REFLECT ? "yes" : "no"), (flags&OPFLAG_RMW ? "yes" : "no"), (flags&OPFLAG_TRANS ? "yes" : "no"));
// iwidth, height, op_bitmap_bit_depth[bitdepth], xpos, ypos, firstPix, ptr, pitch, (flags&OPFLAG_REFLECT ? "yes" : "no"), dwidth, op_pointer, (flags&OPFLAG_RMW ? "yes" : "no"));
//#endif
-// int32 leftMargin = xpos, rightMargin = (xpos + (phraseWidthToPixels[depth] * iwidth)) - 1;
- int32 startPos = xpos, endPos = xpos +
+// int32_t leftMargin = xpos, rightMargin = (xpos + (phraseWidthToPixels[depth] * iwidth)) - 1;
+ int32_t startPos = xpos, endPos = xpos +
(!flagREFLECT ? (phraseWidthToPixels[depth] * iwidth) - 1
: -((phraseWidthToPixels[depth] * iwidth) + 1));
- uint32 clippedWidth = 0, phraseClippedWidth = 0, dataClippedWidth = 0;//, phrasePixel = 0;
+ uint32_t clippedWidth = 0, phraseClippedWidth = 0, dataClippedWidth = 0;//, phrasePixel = 0;
bool in24BPPMode = (((GET16(tomRam8, 0x0028) >> 1) & 0x03) == 1 ? true : false); // VMODE
// Not sure if this is Jaguar Two only location or what...
// From the docs, it is... If we want to limit here we should think of something else.
-// int32 limit = GET16(tom_ram_8, 0x0008); // LIMIT
-// int32 limit = 720;
-// int32 lbufWidth = (!in24BPPMode ? limit - 1 : (limit / 2) - 1); // Zero based limit...
+// int32_t limit = GET16(tom_ram_8, 0x0008); // LIMIT
+// int32_t limit = 720;
+// int32_t lbufWidth = (!in24BPPMode ? limit - 1 : (limit / 2) - 1); // Zero based limit...
//printf("[OP:xpos=%i,spos=%i,epos=%i>", xpos, startPos, endPos);
// This is correct, the OP line buffer is a constant size...
- int32 limit = 720;
- int32 lbufWidth = 719;
+ int32_t limit = 720;
+ int32_t lbufWidth = 719;
// If the image is completely to the left or right of the line buffer, then bail.
//If in REFLECT mode, then these values are swapped! !!! FIX !!! [DONE]
// NOTE: When the bitmap is in REFLECT mode, the XPOS marks the *right* side of the
// bitmap! This makes clipping & etc. MUCH, much easier...!
-// uint32 lbufAddress = 0x1800 + (!in24BPPMode ? leftMargin * 2 : leftMargin * 4);
+// uint32_t lbufAddress = 0x1800 + (!in24BPPMode ? leftMargin * 2 : leftMargin * 4);
//Why does this work right when multiplying startPos by 2 (instead of 4) for 24 BPP mode?
//Is this a bug in the OP?
//It's because in 24bpp mode, each pixel takes *4* bytes, instead of the usual 2.
//Though it looks like we're doing it here no matter what...
-// uint32 lbufAddress = 0x1800 + (!in24BPPMode ? startPos * 2 : startPos * 2);
+// uint32_t lbufAddress = 0x1800 + (!in24BPPMode ? startPos * 2 : startPos * 2);
//Let's try this:
- uint32 lbufAddress = 0x1800 + (startPos * 2);
- uint8 * currentLineBuffer = &tomRam8[lbufAddress];
+ uint32_t lbufAddress = 0x1800 + (startPos * 2);
+ uint8_t * currentLineBuffer = &tomRam8[lbufAddress];
// Render.
if (depth == 0) // 1 BPP
{
// The LSB of flags is OPFLAG_REFLECT, so sign extend it and or 2 into it.
- int32 lbufDelta = ((int8)((flags << 7) & 0xFF) >> 5) | 0x02;
+ int32_t lbufDelta = ((int8_t)((flags << 7) & 0xFF) >> 5) | 0x02;
// Fetch 1st phrase...
- uint64 pixels = ((uint64)JaguarReadLong(data, OP) << 32) | JaguarReadLong(data + 4, OP);
+ uint64_t pixels = ((uint64_t)JaguarReadLong(data, OP) << 32) | JaguarReadLong(data + 4, OP);
//Note that firstPix should only be honored *if* we start with the 1st phrase of the bitmap
//i.e., we didn't clip on the margin... !!! FIX !!!
pixels <<= firstPix; // Skip first N pixels (N=firstPix)...
{
while (i++ < 64)
{
- uint8 bit = pixels >> 63;
+ uint8_t bit = pixels >> 63;
#ifndef OP_USES_PALETTE_ZERO
if (flagTRANS && bit == 0)
#else
//Won't optimize RMW case though...
// This is the *only* correct use of endian-dependent code
// (i.e., mem-to-mem direct copying)!
- *(uint16 *)currentLineBuffer = paletteRAM16[index | bit];
+ *(uint16_t *)currentLineBuffer = paletteRAM16[index | bit];
else
*currentLineBuffer =
BLEND_CR(*currentLineBuffer, paletteRAM[(index | bit) << 1]),
i = 0;
// Fetch next phrase...
data += pitch;
- pixels = ((uint64)JaguarReadLong(data, OP) << 32) | JaguarReadLong(data + 4, OP);
+ pixels = ((uint64_t)JaguarReadLong(data, OP) << 32) | JaguarReadLong(data + 4, OP);
}
}
else if (depth == 1) // 2 BPP
WriteLog("OP: Fixed bitmap @ 2 BPP requesting FIRSTPIX! (fp=%u)\n", firstPix);
index &= 0xFC; // Top six bits form CLUT index
// The LSB is OPFLAG_REFLECT, so sign extend it and or 2 into it.
- int32 lbufDelta = ((int8)((flags << 7) & 0xFF) >> 5) | 0x02;
+ int32_t lbufDelta = ((int8_t)((flags << 7) & 0xFF) >> 5) | 0x02;
while (iwidth--)
{
// Fetch phrase...
- uint64 pixels = ((uint64)JaguarReadLong(data, OP) << 32) | JaguarReadLong(data + 4, OP);
+ uint64_t pixels = ((uint64_t)JaguarReadLong(data, OP) << 32) | JaguarReadLong(data + 4, OP);
data += pitch;
for(int i=0; i<32; i++)
{
- uint8 bits = pixels >> 62;
+ uint8_t bits = pixels >> 62;
// Seems to me that both of these are in the same endian, so we could cast it as
-// uint16 * and do straight across copies (what about 24 bpp? Treat it differently...)
+// uint16_t * and do straight across copies (what about 24 bpp? Treat it differently...)
// This only works for the palettized modes (1 - 8 BPP), since we actually have to
// copy data from memory in 16 BPP mode (or does it? Isn't this the same as the CLUT case?)
// No, it isn't because we read the memory in an endian safe way--this *won't* work...
else
{
if (!flagRMW)
- *(uint16 *)currentLineBuffer = paletteRAM16[index | bits];
+ *(uint16_t *)currentLineBuffer = paletteRAM16[index | bits];
else
*currentLineBuffer =
BLEND_CR(*currentLineBuffer, paletteRAM[(index | bits) << 1]),
WriteLog("OP: Fixed bitmap @ 4 BPP requesting FIRSTPIX! (fp=%u)\n", firstPix);
index &= 0xF0; // Top four bits form CLUT index
// The LSB is OPFLAG_REFLECT, so sign extend it and or 2 into it.
- int32 lbufDelta = ((int8)((flags << 7) & 0xFF) >> 5) | 0x02;
+ int32_t lbufDelta = ((int8_t)((flags << 7) & 0xFF) >> 5) | 0x02;
while (iwidth--)
{
// Fetch phrase...
- uint64 pixels = ((uint64)JaguarReadLong(data, OP) << 32) | JaguarReadLong(data + 4, OP);
+ uint64_t pixels = ((uint64_t)JaguarReadLong(data, OP) << 32) | JaguarReadLong(data + 4, OP);
data += pitch;
for(int i=0; i<16; i++)
{
- uint8 bits = pixels >> 60;
+ uint8_t bits = pixels >> 60;
// Seems to me that both of these are in the same endian, so we could cast it as
-// uint16 * and do straight across copies (what about 24 bpp? Treat it differently...)
+// uint16_t * and do straight across copies (what about 24 bpp? Treat it differently...)
// This only works for the palettized modes (1 - 8 BPP), since we actually have to
// copy data from memory in 16 BPP mode (or does it? Isn't this the same as the CLUT case?)
// No, it isn't because we read the memory in an endian safe way--this *won't* work...
else
{
if (!flagRMW)
- *(uint16 *)currentLineBuffer = paletteRAM16[index | bits];
+ *(uint16_t *)currentLineBuffer = paletteRAM16[index | bits];
else
*currentLineBuffer =
BLEND_CR(*currentLineBuffer, paletteRAM[(index | bits) << 1]),
else if (depth == 3) // 8 BPP
{
// The LSB is OPFLAG_REFLECT, so sign extend it and or 2 into it.
- int32 lbufDelta = ((int8)((flags << 7) & 0xFF) >> 5) | 0x02;
+ int32_t lbufDelta = ((int8_t)((flags << 7) & 0xFF) >> 5) | 0x02;
// Fetch 1st phrase...
- uint64 pixels = ((uint64)JaguarReadLong(data, OP) << 32) | JaguarReadLong(data + 4, OP);
+ uint64_t pixels = ((uint64_t)JaguarReadLong(data, OP) << 32) | JaguarReadLong(data + 4, OP);
//Note that firstPix should only be honored *if* we start with the 1st phrase of the bitmap
//i.e., we didn't clip on the margin... !!! FIX !!!
firstPix &= 0x30; // Only top two bits are valid for 8 BPP
{
while (i++ < 8)
{
- uint8 bits = pixels >> 56;
+ uint8_t bits = pixels >> 56;
// Seems to me that both of these are in the same endian, so we could cast it as
-// uint16 * and do straight across copies (what about 24 bpp? Treat it differently...)
+// uint16_t * and do straight across copies (what about 24 bpp? Treat it differently...)
// This only works for the palettized modes (1 - 8 BPP), since we actually have to
// copy data from memory in 16 BPP mode (or does it? Isn't this the same as the CLUT case?)
// No, it isn't because we read the memory in an endian safe way--this *won't* work...
else
{
if (!flagRMW)
- *(uint16 *)currentLineBuffer = paletteRAM16[bits];
+ *(uint16_t *)currentLineBuffer = paletteRAM16[bits];
else
*currentLineBuffer =
BLEND_CR(*currentLineBuffer, paletteRAM[bits << 1]),
i = 0;
// Fetch next phrase...
data += pitch;
- pixels = ((uint64)JaguarReadLong(data, OP) << 32) | JaguarReadLong(data + 4, OP);
+ pixels = ((uint64_t)JaguarReadLong(data, OP) << 32) | JaguarReadLong(data + 4, OP);
}
}
else if (depth == 4) // 16 BPP
if (firstPix)
WriteLog("OP: Fixed bitmap @ 16 BPP requesting FIRSTPIX! (fp=%u)\n", firstPix);
// The LSB is OPFLAG_REFLECT, so sign extend it and or 2 into it.
- int32 lbufDelta = ((int8)((flags << 7) & 0xFF) >> 5) | 0x02;
+ int32_t lbufDelta = ((int8_t)((flags << 7) & 0xFF) >> 5) | 0x02;
while (iwidth--)
{
// Fetch phrase...
- uint64 pixels = ((uint64)JaguarReadLong(data, OP) << 32) | JaguarReadLong(data + 4, OP);
+ uint64_t pixels = ((uint64_t)JaguarReadLong(data, OP) << 32) | JaguarReadLong(data + 4, OP);
data += pitch;
for(int i=0; i<4; i++)
{
- uint8 bitsHi = pixels >> 56, bitsLo = pixels >> 48;
+ uint8_t bitsHi = pixels >> 56, bitsLo = pixels >> 48;
// Seems to me that both of these are in the same endian, so we could cast it as
-// uint16 * and do straight across copies (what about 24 bpp? Treat it differently...)
+// uint16_t * and do straight across copies (what about 24 bpp? Treat it differently...)
// This only works for the palettized modes (1 - 8 BPP), since we actually have to
// copy data from memory in 16 BPP mode (or does it? Isn't this the same as the CLUT case?)
// No, it isn't because we read the memory in an endian safe way--it *won't* work...
WriteLog("OP: Fixed bitmap @ 24 BPP requesting FIRSTPIX! (fp=%u)\n", firstPix);
// Not sure, but I think RMW only works with 16 BPP and below, and only in CRY mode...
// The LSB of flags is OPFLAG_REFLECT, so sign extend it and OR 4 into it.
- int32 lbufDelta = ((int8)((flags << 7) & 0xFF) >> 4) | 0x04;
+ int32_t lbufDelta = ((int8_t)((flags << 7) & 0xFF) >> 4) | 0x04;
while (iwidth--)
{
// Fetch phrase...
- uint64 pixels = ((uint64)JaguarReadLong(data, OP) << 32) | JaguarReadLong(data + 4, OP);
+ uint64_t pixels = ((uint64_t)JaguarReadLong(data, OP) << 32) | JaguarReadLong(data + 4, OP);
data += pitch;
for(int i=0; i<2; i++)
{
// We don't use a 32-bit var here because of endian issues...!
- uint8 bits3 = pixels >> 56, bits2 = pixels >> 48,
+ uint8_t bits3 = pixels >> 56, bits2 = pixels >> 48,
bits1 = pixels >> 40, bits0 = pixels >> 32;
if (flagTRANS && (bits3 | bits2 | bits1 | bits0) == 0)
//
// Store scaled bitmap in line buffer
//
-void OPProcessScaledBitmap(uint64 p0, uint64 p1, uint64 p2, bool render)
+void OPProcessScaledBitmap(uint64_t p0, uint64_t p1, uint64_t p2, bool render)
{
// Need to make sure that when writing that it stays within the line buffer...
// LBUF ($F01800 - $F01D9E) 360 x 32-bit RAM
- uint8 depth = (p1 >> 12) & 0x07; // Color depth of image
- int32 xpos = ((int16)((p1 << 4) & 0xFFFF)) >> 4;// Image xpos in LBUF
- uint32 iwidth = (p1 >> 28) & 0x3FF; // Image width in *phrases*
- uint32 data = (p0 >> 40) & 0xFFFFF8; // Pixel data address
+ uint8_t depth = (p1 >> 12) & 0x07; // Color depth of image
+ int32_t xpos = ((int16_t)((p1 << 4) & 0xFFFF)) >> 4;// Image xpos in LBUF
+ uint32_t iwidth = (p1 >> 28) & 0x3FF; // Image width in *phrases*
+ uint32_t data = (p0 >> 40) & 0xFFFFF8; // Pixel data address
//#ifdef OP_DEBUG_BMP
// Prolly should use this... Though not sure exactly how.
//Use the upper bits as an offset into the phrase depending on the BPP. That's how!
- uint32 firstPix = (p1 >> 49) & 0x3F;
+ uint32_t firstPix = (p1 >> 49) & 0x3F;
//This is WEIRD! I'm sure I saw Atari Karts request 8 BPP FIRSTPIX! What happened???
if (firstPix)
WriteLog("OP: FIRSTPIX != 0! (Scaled BM)\n");
//#endif
// We can ignore the RELEASE (high order) bit for now--probably forever...!
-// uint8 flags = (p1 >> 45) & 0x0F; // REFLECT, RMW, TRANS, RELEASE
+// uint8_t flags = (p1 >> 45) & 0x0F; // REFLECT, RMW, TRANS, RELEASE
//Optimize: break these out to their own BOOL values [DONE]
- uint8 flags = (p1 >> 45) & 0x07; // REFLECT (0), RMW (1), TRANS (2)
+ uint8_t flags = (p1 >> 45) & 0x07; // REFLECT (0), RMW (1), TRANS (2)
bool flagREFLECT = (flags & OPFLAG_REFLECT ? true : false),
flagRMW = (flags & OPFLAG_RMW ? true : false),
flagTRANS = (flags & OPFLAG_TRANS ? true : false);
- uint8 index = (p1 >> 37) & 0xFE; // CLUT index offset (upper pix, 1-4 bpp)
- uint32 pitch = (p1 >> 15) & 0x07; // Phrase pitch
-
- uint8 * tomRam8 = TOMGetRamPointer();
- uint8 * paletteRAM = &tomRam8[0x400];
- // This is OK as long as it's used correctly: For 16-bit RAM to RAM direct copies--NOT
- // for use when using endian-corrected data (i.e., any of the *ReadWord functions!)
- uint16 * paletteRAM16 = (uint16 *)paletteRAM;
-
- uint16 hscale = p2 & 0xFF;
-// Hmm. It seems that fixing the horizontal scale necessitated re-fixing this. Not sure why,
-// but seems to be consistent with the vertical scaling now (and it may turn out to be wrong!)...
- uint16 horizontalRemainder = hscale; // Not sure if it starts full, but seems reasonable [It's not!]
-// uint8 horizontalRemainder = 0; // Let's try zero! Seems to work! Yay! [No, it doesn't!]
- int32 scaledWidthInPixels = (iwidth * phraseWidthToPixels[depth] * hscale) >> 5;
- uint32 scaledPhrasePixels = (phraseWidthToPixels[depth] * hscale) >> 5;
+ uint8_t index = (p1 >> 37) & 0xFE; // CLUT index offset (upper pix, 1-4 bpp)
+ uint32_t pitch = (p1 >> 15) & 0x07; // Phrase pitch
+
+ uint8_t * tomRam8 = TOMGetRamPointer();
+ uint8_t * paletteRAM = &tomRam8[0x400];
+ // This is OK as long as it's used correctly: For 16-bit RAM to RAM direct
+ // copies--NOT for use when using endian-corrected data (i.e., any of the
+ // *ReadWord functions!)
+ uint16_t * paletteRAM16 = (uint16_t *)paletteRAM;
+
+ uint16_t hscale = p2 & 0xFF;
+// Hmm. It seems that fixing the horizontal scale necessitated re-fixing this.
+// Not sure why, but seems to be consistent with the vertical scaling now (and
+// it may turn out to be wrong!)...
+ uint16_t horizontalRemainder = hscale; // Not sure if it starts full, but seems reasonable [It's not!]
+// uint8_t horizontalRemainder = 0; // Let's try zero! Seems to work! Yay! [No, it doesn't!]
+ int32_t scaledWidthInPixels = (iwidth * phraseWidthToPixels[depth] * hscale) >> 5;
+ uint32_t scaledPhrasePixels = (phraseWidthToPixels[depth] * hscale) >> 5;
// WriteLog("bitmap %ix? %ibpp at %i,? firstpix=? data=0x%.8x pitch %i hflipped=%s dwidth=? (linked to ?) RMW=%s Tranparent=%s\n",
// iwidth, op_bitmap_bit_depth[bitdepth], xpos, ptr, pitch, (flags&OPFLAG_REFLECT ? "yes" : "no"), (flags&OPFLAG_RMW ? "yes" : "no"), (flags&OPFLAG_TRANS ? "yes" : "no"));
// iwidth, height, op_bitmap_bit_depth[bitdepth], xpos, ypos, firstPix, ptr, pitch, (flags&OPFLAG_REFLECT ? "yes" : "no"), dwidth, op_pointer, (flags&OPFLAG_RMW ? "yes" : "no"));
//#endif
- int32 startPos = xpos, endPos = xpos +
+ int32_t startPos = xpos, endPos = xpos +
(!flagREFLECT ? scaledWidthInPixels - 1 : -(scaledWidthInPixels + 1));
- uint32 clippedWidth = 0, phraseClippedWidth = 0, dataClippedWidth = 0;
+ uint32_t clippedWidth = 0, phraseClippedWidth = 0, dataClippedWidth = 0;
bool in24BPPMode = (((GET16(tomRam8, 0x0028) >> 1) & 0x03) == 1 ? true : false); // VMODE
// Not sure if this is Jaguar Two only location or what...
// From the docs, it is... If we want to limit here we should think of something else.
-// int32 limit = GET16(tom_ram_8, 0x0008); // LIMIT
- int32 limit = 720;
-// int32 lbufWidth = (!in24BPPMode ? limit - 1 : (limit / 2) - 1); // Zero based limit...
- int32 lbufWidth = 719; // Zero based limit...
+// int32_t limit = GET16(tom_ram_8, 0x0008); // LIMIT
+ int32_t limit = 720;
+// int32_t lbufWidth = (!in24BPPMode ? limit - 1 : (limit / 2) - 1); // Zero based limit...
+ int32_t lbufWidth = 719; // Zero based limit...
// If the image is completely to the left or right of the line buffer, then bail.
//If in REFLECT mode, then these values are swapped! !!! FIX !!! [DONE]
return;
// Otherwise, find the clip limits and clip the phrase as well...
- // NOTE: I'm fudging here by letting the actual blit overstep the bounds of the
- // line buffer, but it shouldn't matter since there are two unused line
- // buffers below and nothing above and I'll at most write 40 bytes outside
- // the line buffer... I could use a fractional clip begin/end value, but
- // this makes the blit a *lot* more hairy. I might fix this in the future
- // if it becomes necessary. (JLH)
- // Probably wouldn't be *that* hairy. Just use a delta that tells the inner loop
- // which pixel in the phrase is being written, and quit when either end of phrases
- // is reached or line buffer extents are surpassed.
+ // NOTE: I'm fudging here by letting the actual blit overstep the bounds of
+ // the line buffer, but it shouldn't matter since there are two
+ // unused line buffers below and nothing above and I'll at most write
+ // 40 bytes outside the line buffer... I could use a fractional clip
+ // begin/end value, but this makes the blit a *lot* more hairy. I
+ // might fix this in the future if it becomes necessary. (JLH)
+ // Probably wouldn't be *that* hairy. Just use a delta that tells the
+ // inner loop which pixel in the phrase is being written, and quit
+ // when either end of phrases is reached or line buffer extents are
+ // surpassed.
//This stuff is probably wrong as well... !!! FIX !!!
-//The strange thing is that it seems to work, but that's no guarantee that it's bulletproof!
+//The strange thing is that it seems to work, but that's no guarantee that it's
+//bulletproof!
//Yup. Seems that JagMania doesn't work correctly with this...
-//Dunno if this is the problem, but Atari Karts is showing *some* of the road now...
-//Actually, it is! Or, it was. It doesn't seem to be clipping here, so the problem lies
-//elsewhere! Hmm. Putting the scaling code into the 1/2/8 BPP cases seems to draw the ground
-// a bit more accurately... Strange!
-//It's probably a case of the REFLECT flag being set and the background being written
-//from the right side of the screen...
+//Dunno if this is the problem, but Atari Karts is showing *some* of the road
+//now...
+//Actually, it is! Or, it was. It doesn't seem to be clipping here, so the
+//problem lies elsewhere! Hmm. Putting the scaling code into the 1/2/8 BPP cases
+//seems to draw the ground a bit more accurately... Strange!
+//It's probably a case of the REFLECT flag being set and the background being
+//written from the right side of the screen...
//But no, it isn't... At least if the diagnostics are telling the truth!
// NOTE: We're just using endPos to figure out how much, if any, to clip by.
- // ALSO: There may be another case where we start out of bounds and end out of bounds...!
+ // ALSO: There may be another case where we start out of bounds and end out
+ // of bounds...!
// !!! FIX !!!
-//There's a problem here with scaledPhrasePixels in that it can be forced to zero when
-//the scaling factor is small. So fix it already! !!! FIX !!!
+//There's a problem here with scaledPhrasePixels in that it can be forced to
+//zero when the scaling factor is small. So fix it already! !!! FIX !!!
/*if (scaledPhrasePixels == 0)
{
WriteLog("OP: [Scaled] We're about to encounter a divide by zero error!\n");
// start position (14 * 27.75), we get -6.5... NOT -17!
//Now it seems we're working OK, at least for the first case...
-uint32 scaledPhrasePixelsUS = phraseWidthToPixels[depth] * hscale;
+uint32_t scaledPhrasePixelsUS = phraseWidthToPixels[depth] * hscale;
if (startPos < 0) // Case #1: Begin out, end in, L to R
{
// NOTE: When the bitmap is in REFLECT mode, the XPOS marks the *right* side of the
// bitmap! This makes clipping & etc. MUCH, much easier...!
-// uint32 lbufAddress = 0x1800 + (!in24BPPMode ? leftMargin * 2 : leftMargin * 4);
-// uint32 lbufAddress = 0x1800 + (!in24BPPMode ? startPos * 2 : startPos * 4);
- uint32 lbufAddress = 0x1800 + startPos * 2;
- uint8 * currentLineBuffer = &tomRam8[lbufAddress];
-//uint8 * lineBufferLowerLimit = &tom_ram_8[0x1800],
+// uint32_t lbufAddress = 0x1800 + (!in24BPPMode ? leftMargin * 2 : leftMargin * 4);
+// uint32_t lbufAddress = 0x1800 + (!in24BPPMode ? startPos * 2 : startPos * 4);
+ uint32_t lbufAddress = 0x1800 + startPos * 2;
+ uint8_t * currentLineBuffer = &tomRam8[lbufAddress];
+//uint8_t * lineBufferLowerLimit = &tom_ram_8[0x1800],
// * lineBufferUpperLimit = &tom_ram_8[0x1800 + 719];
// Render.
if (firstPix != 0)
WriteLog("OP: Scaled bitmap @ 1 BPP requesting FIRSTPIX!\n");
// The LSB of flags is OPFLAG_REFLECT, so sign extend it and or 2 into it.
- int32 lbufDelta = ((int8)((flags << 7) & 0xFF) >> 5) | 0x02;
+ int32_t lbufDelta = ((int8_t)((flags << 7) & 0xFF) >> 5) | 0x02;
int pixCount = 0;
- uint64 pixels = ((uint64)JaguarReadLong(data, OP) << 32) | JaguarReadLong(data + 4, OP);
+ uint64_t pixels = ((uint64_t)JaguarReadLong(data, OP) << 32) | JaguarReadLong(data + 4, OP);
- while ((int32)iwidth > 0)
+ while ((int32_t)iwidth > 0)
{
- uint8 bits = pixels >> 63;
+ uint8_t bits = pixels >> 63;
#ifndef OP_USES_PALETTE_ZERO
if (flagTRANS && bits == 0)
if (!flagRMW)
// This is the *only* correct use of endian-dependent code
// (i.e., mem-to-mem direct copying)!
- *(uint16 *)currentLineBuffer = paletteRAM16[index | bits];
+ *(uint16_t *)currentLineBuffer = paletteRAM16[index | bits];
else
*currentLineBuffer =
BLEND_CR(*currentLineBuffer, paletteRAM[(index | bits) << 1]),
/*
The reason we subtract the horizontalRemainder *after* the test is because we had too few
bytes for horizontalRemainder to properly recognize a negative number. But now it's 16 bits
-wide, so we could probably go back to that (as long as we make it an int16 and not a uint16!)
+wide, so we could probably go back to that (as long as we make it an int16_t and not a uint16!)
*/
/* horizontalRemainder -= 0x20; // Subtract 1.0f in [3.5] fixed point format
while (horizontalRemainder & 0x80)
int phrasesToSkip = pixCount / 64, pixelShift = pixCount % 64;
data += (pitch << 3) * phrasesToSkip;
- pixels = ((uint64)JaguarReadLong(data, OP) << 32) | JaguarReadLong(data + 4, OP);
+ pixels = ((uint64_t)JaguarReadLong(data, OP) << 32) | JaguarReadLong(data + 4, OP);
pixels <<= 1 * pixelShift;
iwidth -= phrasesToSkip;
pixCount = pixelShift;
WriteLog("OP: Scaled bitmap @ 2 BPP requesting FIRSTPIX!\n");
index &= 0xFC; // Top six bits form CLUT index
// The LSB is OPFLAG_REFLECT, so sign extend it and or 2 into it.
- int32 lbufDelta = ((int8)((flags << 7) & 0xFF) >> 5) | 0x02;
+ int32_t lbufDelta = ((int8_t)((flags << 7) & 0xFF) >> 5) | 0x02;
int pixCount = 0;
- uint64 pixels = ((uint64)JaguarReadLong(data, OP) << 32) | JaguarReadLong(data + 4, OP);
+ uint64_t pixels = ((uint64_t)JaguarReadLong(data, OP) << 32) | JaguarReadLong(data + 4, OP);
- while ((int32)iwidth > 0)
+ while ((int32_t)iwidth > 0)
{
- uint8 bits = pixels >> 62;
+ uint8_t bits = pixels >> 62;
#ifndef OP_USES_PALETTE_ZERO
if (flagTRANS && bits == 0)
if (!flagRMW)
// This is the *only* correct use of endian-dependent code
// (i.e., mem-to-mem direct copying)!
- *(uint16 *)currentLineBuffer = paletteRAM16[index | bits];
+ *(uint16_t *)currentLineBuffer = paletteRAM16[index | bits];
else
*currentLineBuffer =
BLEND_CR(*currentLineBuffer, paletteRAM[(index | bits) << 1]),
int phrasesToSkip = pixCount / 32, pixelShift = pixCount % 32;
data += (pitch << 3) * phrasesToSkip;
- pixels = ((uint64)JaguarReadLong(data, OP) << 32) | JaguarReadLong(data + 4, OP);
+ pixels = ((uint64_t)JaguarReadLong(data, OP) << 32) | JaguarReadLong(data + 4, OP);
pixels <<= 2 * pixelShift;
iwidth -= phrasesToSkip;
pixCount = pixelShift;
WriteLog("OP: Scaled bitmap @ 4 BPP requesting FIRSTPIX!\n");
index &= 0xF0; // Top four bits form CLUT index
// The LSB is OPFLAG_REFLECT, so sign extend it and or 2 into it.
- int32 lbufDelta = ((int8)((flags << 7) & 0xFF) >> 5) | 0x02;
+ int32_t lbufDelta = ((int8_t)((flags << 7) & 0xFF) >> 5) | 0x02;
int pixCount = 0;
- uint64 pixels = ((uint64)JaguarReadLong(data, OP) << 32) | JaguarReadLong(data + 4, OP);
+ uint64_t pixels = ((uint64_t)JaguarReadLong(data, OP) << 32) | JaguarReadLong(data + 4, OP);
- while ((int32)iwidth > 0)
+ while ((int32_t)iwidth > 0)
{
- uint8 bits = pixels >> 60;
+ uint8_t bits = pixels >> 60;
#ifndef OP_USES_PALETTE_ZERO
if (flagTRANS && bits == 0)
if (!flagRMW)
// This is the *only* correct use of endian-dependent code
// (i.e., mem-to-mem direct copying)!
- *(uint16 *)currentLineBuffer = paletteRAM16[index | bits];
+ *(uint16_t *)currentLineBuffer = paletteRAM16[index | bits];
else
*currentLineBuffer =
BLEND_CR(*currentLineBuffer, paletteRAM[(index | bits) << 1]),
int phrasesToSkip = pixCount / 16, pixelShift = pixCount % 16;
data += (pitch << 3) * phrasesToSkip;
- pixels = ((uint64)JaguarReadLong(data, OP) << 32) | JaguarReadLong(data + 4, OP);
+ pixels = ((uint64_t)JaguarReadLong(data, OP) << 32) | JaguarReadLong(data + 4, OP);
pixels <<= 4 * pixelShift;
iwidth -= phrasesToSkip;
pixCount = pixelShift;
if (firstPix)
WriteLog("OP: Scaled bitmap @ 8 BPP requesting FIRSTPIX! (fp=%u)\n", firstPix);
// The LSB is OPFLAG_REFLECT, so sign extend it and or 2 into it.
- int32 lbufDelta = ((int8)((flags << 7) & 0xFF) >> 5) | 0x02;
+ int32_t lbufDelta = ((int8_t)((flags << 7) & 0xFF) >> 5) | 0x02;
int pixCount = 0;
- uint64 pixels = ((uint64)JaguarReadLong(data, OP) << 32) | JaguarReadLong(data + 4, OP);
+ uint64_t pixels = ((uint64_t)JaguarReadLong(data, OP) << 32) | JaguarReadLong(data + 4, OP);
- while ((int32)iwidth > 0)
+ while ((int32_t)iwidth > 0)
{
- uint8 bits = pixels >> 56;
+ uint8_t bits = pixels >> 56;
#ifndef OP_USES_PALETTE_ZERO
if (flagTRANS && bits == 0)
if (!flagRMW)
// This is the *only* correct use of endian-dependent code
// (i.e., mem-to-mem direct copying)!
- *(uint16 *)currentLineBuffer = paletteRAM16[bits];
+ *(uint16_t *)currentLineBuffer = paletteRAM16[bits];
/* {
if (currentLineBuffer >= lineBufferLowerLimit && currentLineBuffer <= lineBufferUpperLimit)
- *(uint16 *)currentLineBuffer = paletteRAM16[bits];
+ *(uint16_t *)currentLineBuffer = paletteRAM16[bits];
}*/
else
*currentLineBuffer =
int phrasesToSkip = pixCount / 8, pixelShift = pixCount % 8;
data += (pitch << 3) * phrasesToSkip;
- pixels = ((uint64)JaguarReadLong(data, OP) << 32) | JaguarReadLong(data + 4, OP);
+ pixels = ((uint64_t)JaguarReadLong(data, OP) << 32) | JaguarReadLong(data + 4, OP);
pixels <<= 8 * pixelShift;
iwidth -= phrasesToSkip;
pixCount = pixelShift;
if (firstPix != 0)
WriteLog("OP: Scaled bitmap @ 16 BPP requesting FIRSTPIX!\n");
// The LSB is OPFLAG_REFLECT, so sign extend it and OR 2 into it.
- int32 lbufDelta = ((int8)((flags << 7) & 0xFF) >> 5) | 0x02;
+ int32_t lbufDelta = ((int8_t)((flags << 7) & 0xFF) >> 5) | 0x02;
int pixCount = 0;
- uint64 pixels = ((uint64)JaguarReadLong(data, OP) << 32) | JaguarReadLong(data + 4, OP);
+ uint64_t pixels = ((uint64_t)JaguarReadLong(data, OP) << 32) | JaguarReadLong(data + 4, OP);
- while ((int32)iwidth > 0)
+ while ((int32_t)iwidth > 0)
{
- uint8 bitsHi = pixels >> 56, bitsLo = pixels >> 48;
+ uint8_t bitsHi = pixels >> 56, bitsLo = pixels >> 48;
//This doesn't seem right... Let's try the encoded black value ($8800):
//Apparently, CRY 0 maps to $8800...
int phrasesToSkip = pixCount / 4, pixelShift = pixCount % 4;
data += (pitch << 3) * phrasesToSkip;
- pixels = ((uint64)JaguarReadLong(data, OP) << 32) | JaguarReadLong(data + 4, OP);
+ pixels = ((uint64_t)JaguarReadLong(data, OP) << 32) | JaguarReadLong(data + 4, OP);
pixels <<= 16 * pixelShift;
iwidth -= phrasesToSkip;
WriteLog("OP: Scaled bitmap @ 24 BPP requesting FIRSTPIX!\n");
// Not sure, but I think RMW only works with 16 BPP and below, and only in CRY mode...
// The LSB is OPFLAG_REFLECT, so sign extend it and or 4 into it.
- int32 lbufDelta = ((int8)((flags << 7) & 0xFF) >> 4) | 0x04;
+ int32_t lbufDelta = ((int8_t)((flags << 7) & 0xFF) >> 4) | 0x04;
while (iwidth--)
{
// Fetch phrase...
- uint64 pixels = ((uint64)JaguarReadLong(data, OP) << 32) | JaguarReadLong(data + 4, OP);
+ uint64_t pixels = ((uint64_t)JaguarReadLong(data, OP) << 32) | JaguarReadLong(data + 4, OP);
data += pitch << 3; // Multiply pitch * 8 (optimize: precompute this value)
for(int i=0; i<2; i++)
{
- uint8 bits3 = pixels >> 56, bits2 = pixels >> 48,
+ uint8_t bits3 = pixels >> 56, bits2 = pixels >> 48,
bits1 = pixels >> 40, bits0 = pixels >> 32;
if (flagTRANS && (bits3 | bits2 | bits1 | bits0) == 0)
projects / virtualjaguar / blobdiff