status_t
submit_tx_command(bt_usb_dev* bdev, snet_buffer* snbuf)
{
uint8 bRequestType = bdev->ctrl_req;
uint8 bRequest = 0;
uint16 wIndex = 0;
uint16 value = 0;
uint16 wLength = B_HOST_TO_LENDIAN_INT16(snb_size(snbuf));
status_t error;
if (!GET_BIT(bdev->state, RUNNING)) {
return B_DEV_NOT_READY;
}
// set cookie
snb_set_cookie(snbuf, bdev);
debugf("@%p\n", snb_get(snbuf));
error = usb->queue_request(bdev->dev, bRequestType, bRequest,
value, wIndex, wLength, snb_get(snbuf),
#ifndef HAIKU_TARGET_PLATFORM_HAIKU
wLength,
#endif
command_complete, (void*) snbuf);
if (error != B_OK) {
bdev->stat.rejectedTX++;
} else {
bdev->stat.acceptedTX++;
}
return error;
}
void
PCL6Writer::Append(uint16 value)
{
int16 v = B_HOST_TO_LENDIAN_INT16(value);
Append(BYTE_AT(v, 0));
Append(BYTE_AT(v, 1));
}
ssize_t
QuickCamDevice::ReadIIC16(uint8 address, uint16 *data)
{
status_t err;
uint8 buffer[0x23];
memset(buffer, 0, sizeof(buffer));
buffer[0x20] = Sensor() ? Sensor()->IICReadAddress() : 0;
buffer[0x21] = 1 - 1;
buffer[0x22] = 0x03;
buffer[0] = address;
err = SendCommand(USB_REQTYPE_DEVICE_OUT, 0x04, STV_I2C_WRITE, 0, 0x23, buffer);
if (err < B_OK)
return err;
buffer[0] = 0xaa;
buffer[1] = 0xaa;
err = SendCommand(USB_REQTYPE_DEVICE_IN, 0x04, STV_I2C_READ, 0, 0x2, buffer);
PRINT((CH ": SendCommand: %s" CT, strerror(err)));
if (err < B_OK)
return err;
if (fChipIsBigEndian)
*data = B_HOST_TO_BENDIAN_INT16(*(uint16 *)(&buffer[0]));
else
*data = B_HOST_TO_LENDIAN_INT16(*(uint16 *)(&buffer[0]));
PRINT((CH ": 0x%04x" CT, *data));
return 2;
}
// utf8 to LENDIAN unicode
static status_t
_utf8_to_lendian_unicode(
const char *src,
size_t *srcLen,
char *dst,
size_t *dstLen)
{
size_t srcLimit = *srcLen;
size_t dstLimit = *dstLen - 1;
size_t srcCount = 0;
size_t dstCount = 0;
status_t status = B_ERROR;
while ((srcCount < srcLimit) && (dstCount < dstLimit)) {
uint16 unicode;
uint16 *UNICODE = &unicode;
uchar *UTF8 = (uchar *)src + srcCount;
int err_flag;
if ((srcCount + utf8_char_len(src[srcCount])) > srcLimit)
break;
utf8_to_u_hostendian(UTF8, UNICODE, err_flag);
if (err_flag == 1)
return EINVAL;
unicode = B_HOST_TO_LENDIAN_INT16(unicode);
if ((dstCount + 1) > dstLimit) {
status = B_BUFFER_OVERFLOW;
break;
}
dst[dstCount++] = unicode & 0xFF;
dst[dstCount++] = unicode >> 8;
srcCount += UTF8 - ((uchar *)(src + srcCount));
status = B_OK;
}
*srcLen = srcCount;
*dstLen = dstCount;
return status;
}
// utf8 to LENDIAN unicode
static status_t
_utf8_to_lendian_unicode(
const char *src,
int32 *srcLen,
char *dst,
uint32 *dstLen)
{
int32 srcLimit = *srcLen;
int32 dstLimit = *dstLen - 1;
int32 srcCount = 0;
int32 dstCount = 0;
while ((srcCount < srcLimit) && (dstCount < dstLimit)) {
uint16 unicode;
uint16 *UNICODE = &unicode;
uchar *UTF8 = (uchar *)src + srcCount;
int err_flag;
if ((srcCount + utf8_char_len(src[srcCount])) > srcLimit)
break;
utf8_to_u_hostendian(UTF8, UNICODE, err_flag);
if(err_flag == 1)
return EINVAL;
unicode = B_HOST_TO_LENDIAN_INT16(unicode);
dst[dstCount++] = unicode & 0xFF;
dst[dstCount++] = unicode >> 8;
srcCount += UTF8 - ((uchar *)(src + srcCount));
}
*srcLen = srcCount;
*dstLen = dstCount;
return ((dstCount > 0) ? B_NO_ERROR : B_ERROR);
}
status_t Initialize(int fatbits, const char *device, const char *label, bool noprompt, bool testmode)
{
if (fatbits != 0 && fatbits != 12 && fatbits != 16 && fatbits != 32) {
fprintf(stderr,"Error: don't know how to create a %d bit fat\n",fatbits);
return B_ERROR;
}
//XXX the following two checks can be removed when this is fixed:
#ifndef WITH_FLOPPY_SUPPORT
if (0 != strstr(device,"floppy")) {
fprintf(stderr,"Error: floppy B_GET_GEOMETRY and B_GET_BIOS_GEOMETRY calls are broken, floppy not supported\n");
return B_ERROR;
}
if (fatbits == 12) {
fprintf(stderr,"Error: can't create a 12 bit fat on a device other than floppy\n");
return B_ERROR;
}
#endif
printf("device = %s\n",device);
int fd = open(device, O_RDWR);
if (fd < 0) {
fprintf(stderr, "Error: couldn't open file for device %s (%s)\n", device, strerror(errno));
return B_ERROR;
}
bool isRawDevice;
bool hasBiosGeometry;
bool hasDeviceGeometry;
bool hasPartitionInfo;
device_geometry biosGeometry;
device_geometry deviceGeometry;
partition_info partitionInfo;
isRawDevice = 0 != strstr(device, "/raw");
hasBiosGeometry = B_OK == ioctl(fd, B_GET_BIOS_GEOMETRY, &biosGeometry, sizeof(biosGeometry));
hasDeviceGeometry = B_OK == ioctl(fd, B_GET_GEOMETRY, &deviceGeometry, sizeof(deviceGeometry));
hasPartitionInfo = B_OK == ioctl(fd, B_GET_PARTITION_INFO, &partitionInfo, sizeof(partitionInfo));
if (!isRawDevice && !hasBiosGeometry && !hasDeviceGeometry && !hasPartitionInfo)
isRawDevice = true;
if (hasBiosGeometry) {
printf("bios geometry: %ld heads, %ld cylinders, %ld sectors/track, %ld bytes/sector\n",
biosGeometry.head_count,biosGeometry.cylinder_count,biosGeometry.sectors_per_track,biosGeometry.bytes_per_sector);
}
if (hasBiosGeometry) {
printf("device geometry: %ld heads, %ld cylinders, %ld sectors/track, %ld bytes/sector\n",
deviceGeometry.head_count,deviceGeometry.cylinder_count,deviceGeometry.sectors_per_track,deviceGeometry.bytes_per_sector);
}
if (hasPartitionInfo) {
printf("partition info: start at %Ld bytes (%Ld sectors), %Ld KB, %Ld MB, %Ld GB\n",
partitionInfo.offset,
partitionInfo.offset / 512,
partitionInfo.offset / 1024,
partitionInfo.offset / (1024 * 1024),
partitionInfo.offset / (1024 * 1024 * 1024));
printf("partition info: size %Ld bytes, %Ld KB, %Ld MB, %Ld GB\n",
partitionInfo.size,
partitionInfo.size / 1024,
partitionInfo.size / (1024 * 1024),
partitionInfo.size / (1024 * 1024 * 1024));
}
if (!isRawDevice && !hasPartitionInfo) {
fprintf(stderr,"Warning: couldn't get partition information\n");
}
if ((hasBiosGeometry && biosGeometry.bytes_per_sector != 512)
|| (hasDeviceGeometry && deviceGeometry.bytes_per_sector != 512)) {
fprintf(stderr,"Error: geometry block size not 512 bytes\n");
close(fd);
return B_ERROR;
} else if (hasPartitionInfo && partitionInfo.logical_block_size != 512) {
printf("partition logical block size is not 512, it's %ld bytes\n",
partitionInfo.logical_block_size);
}
if (hasDeviceGeometry && deviceGeometry.read_only) {
fprintf(stderr,"Error: this is a read-only device\n");
close(fd);
return B_ERROR;
}
if (hasDeviceGeometry && deviceGeometry.write_once) {
fprintf(stderr,"Error: this is a write-once device\n");
close(fd);
return B_ERROR;
}
uint64 size = 0;
if (hasPartitionInfo) {
size = partitionInfo.size;
} else if (hasDeviceGeometry) {
size = uint64(deviceGeometry.bytes_per_sector) * deviceGeometry.sectors_per_track * deviceGeometry.cylinder_count * deviceGeometry.head_count;
} else if (hasBiosGeometry) {
size = uint64(biosGeometry.bytes_per_sector) * biosGeometry.sectors_per_track * biosGeometry.cylinder_count * biosGeometry.head_count;
} else {
// maybe it's just a file
struct stat stat;
if (fstat(fd, &stat) < 0) {
fprintf(stderr, "Error: couldn't get device partition or geometry information, nor size\n");
close(fd);
return B_ERROR;
}
size = stat.st_size;
}
// TODO still valid on Haiku ?
/*if (isRawDevice && size > FLOPPY_MAX_SIZE) {
fprintf(stderr,"Error: device too large for floppy, or raw devices not supported\n");
close(fd);
return B_ERROR;
}*/
printf("size = %Ld bytes (%Ld sectors), %Ld KB, %Ld MB, %Ld GB\n",
size,
size / 512,
size / 1024,
size / (1024 * 1024),
size / (1024 * 1024 * 1024));
if (fatbits == 0) {
//auto determine fat type
if (isRawDevice && size <= FLOPPY_MAX_SIZE && (size / FAT12_CLUSTER_MAX_SIZE) < FAT12_MAX_CLUSTER_COUNT) {
fatbits = 12;
} else if ((size / CLUSTER_MAX_SIZE) < FAT16_MAX_CLUSTER_COUNT) {
fatbits = 16;
} else if ((size / CLUSTER_MAX_SIZE) < FAT32_MAX_CLUSTER_COUNT) {
fatbits = 32;
}
}
if (fatbits == 0) {
fprintf(stderr,"Error: device too large for 32 bit fat\n");
close(fd);
return B_ERROR;
}
int sectorPerCluster;
sectorPerCluster = 0;
if (fatbits == 12) {
sectorPerCluster = 0;
if (size <= 4182016LL)
sectorPerCluster = 2; // XXX don't know the correct value
if (size <= 2091008LL)
sectorPerCluster = 1; // XXX don't know the correct value
} else if (fatbits == 16) {
// special BAD_CLUSTER value is 0xFFF7,
// but this should work anyway, since space required by
// two FATs will make maximum cluster count smaller.
// at least, this is what I think *should* happen
sectorPerCluster = 0; //larger than 2 GB must fail
if (size <= (2048 * 1024 * 1024LL)) // up to 2GB, use 32k clusters
sectorPerCluster = 64;
if (size <= (1024 * 1024 * 1024LL)) // up to 1GB, use 16k clusters
sectorPerCluster = 32;
if (size <= (512 * 1024 * 1024LL)) // up to 512MB, use 8k clusters
sectorPerCluster = 16;
if (size <= (256 * 1024 * 1024LL)) // up to 256MB, use 4k clusters
sectorPerCluster = 8;
if (size <= (128 * 1024 * 1024LL)) // up to 128MB, use 2k clusters
sectorPerCluster = 4;
if (size <= (16 * 1024 * 1024LL)) // up to 16MB, use 2k clusters
sectorPerCluster = 2;
if (size <= 4182016LL) // smaller than fat32 must fail
sectorPerCluster = 0;
}
if (fatbits == 32) {
sectorPerCluster = 64; // default is 32k clusters
if (size <= (32 * 1024 * 1024 * 1024LL)) // up to 32GB, use 16k clusters
sectorPerCluster = 32;
if (size <= (16 * 1024 * 1024 * 1024LL)) // up to 16GB, use 8k clusters
sectorPerCluster = 16;
if (size <= (8 * 1024 * 1024 * 1024LL)) // up to 8GB, use 4k clusters
sectorPerCluster = 8;
if (size <= (532480 * 512LL)) // up to 260 MB, use 0.5k clusters
sectorPerCluster = 1;
if (size <= (66600 * 512LL)) // smaller than 32.5 MB must fail
sectorPerCluster = 0;
}
if (sectorPerCluster == 0) {
fprintf(stderr,"Error: failed to determine sector per cluster value, partition too large for %d bit fat\n",fatbits);
close(fd);
return B_ERROR;
}
int reservedSectorCount = 0; // avoid compiler warning
int rootEntryCount = 0; // avoid compiler warning
int numFATs;
int sectorSize;
uint8 biosDriveId;
// get bios drive-id, or use 0x80
if (B_OK != ioctl(fd, B_GET_BIOS_DRIVE_ID, &biosDriveId, sizeof(biosDriveId))) {
biosDriveId = 0x80;
} else {
printf("bios drive id: 0x%02x\n", (int)biosDriveId);
}
// default parameters for the bootsector
numFATs = 2;
sectorSize = 512;
if (fatbits == 12 || fatbits == 16)
reservedSectorCount = 1;
if (fatbits == 32)
reservedSectorCount = 32;
if (fatbits == 12)
rootEntryCount = 128; // XXX don't know the correct value
if (fatbits == 16)
rootEntryCount = 512;
if (fatbits == 32)
rootEntryCount = 0;
// Determine FATSize
// calculation done as MS recommends
uint64 dskSize = size / sectorSize;
uint32 rootDirSectors = ((rootEntryCount * 32) + (sectorSize - 1)) / sectorSize;
uint64 tmpVal1 = dskSize - (reservedSectorCount + rootDirSectors);
uint64 tmpVal2 = (256 * sectorPerCluster) + numFATs;
if (fatbits == 32)
tmpVal2 = tmpVal2 / 2;
uint32 FATSize = (tmpVal1 + (tmpVal2 - 1)) / tmpVal2;
// FATSize should now contain the size of *one* FAT, measured in sectors
// RootDirSectors should now contain the size of the fat12/16 root directory, measured in sectors
printf("fatbits = %d, clustersize = %d\n", fatbits, sectorPerCluster * 512);
printf("FAT size is %ld sectors\n", FATSize);
printf("disk label: %s\n", label);
char bootsector[512];
memset(bootsector,0x00,512);
memcpy(bootsector + BOOTJMP_START_OFFSET, bootjmp, sizeof(bootjmp));
memcpy(bootsector + BOOTCODE_START_OFFSET, bootcode, sizeof(bootcode));
if (fatbits == 32) {
bootsector32 *bs = (bootsector32 *)bootsector;
uint16 temp16;
uint32 temp32;
memcpy(bs->BS_OEMName,"Haiku ",8);
bs->BPB_BytsPerSec = B_HOST_TO_LENDIAN_INT16(sectorSize);
bs->BPB_SecPerClus = sectorPerCluster;
bs->BPB_RsvdSecCnt = B_HOST_TO_LENDIAN_INT16(reservedSectorCount);
bs->BPB_NumFATs = numFATs;
bs->BPB_RootEntCnt = B_HOST_TO_LENDIAN_INT16(rootEntryCount);
bs->BPB_TotSec16 = B_HOST_TO_LENDIAN_INT16(0);
bs->BPB_Media = 0xF8;
bs->BPB_FATSz16 = B_HOST_TO_LENDIAN_INT16(0);
temp16 = hasBiosGeometry ? biosGeometry.sectors_per_track : 63;
bs->BPB_SecPerTrk = B_HOST_TO_LENDIAN_INT16(temp16);
temp16 = hasBiosGeometry ? biosGeometry.head_count : 255;
bs->BPB_NumHeads = B_HOST_TO_LENDIAN_INT16(temp16);
temp32 = hasPartitionInfo ? (partitionInfo.size / 512) : 0;
bs->BPB_HiddSec = B_HOST_TO_LENDIAN_INT32(temp32);
temp32 = size / 512;
bs->BPB_TotSec32 = B_HOST_TO_LENDIAN_INT32(temp32);
bs->BPB_FATSz32 = B_HOST_TO_LENDIAN_INT32(FATSize);
bs->BPB_ExtFlags = B_HOST_TO_LENDIAN_INT16(0);
bs->BPB_FSVer = B_HOST_TO_LENDIAN_INT16(0);
bs->BPB_RootClus = B_HOST_TO_LENDIAN_INT32(FAT32_ROOT_CLUSTER);
bs->BPB_FSInfo = B_HOST_TO_LENDIAN_INT16(FSINFO_SECTOR_NUM);
bs->BPB_BkBootSec = B_HOST_TO_LENDIAN_INT16(BACKUP_SECTOR_NUM);
memset(bs->BPB_Reserved,0,12);
bs->BS_DrvNum = biosDriveId;
bs->BS_Reserved1 = 0x00;
bs->BS_BootSig = 0x29;
*(uint32*)bs->BS_VolID = (uint32)system_time();
memcpy(bs->BS_VolLab,"NO NAME ",11);
memcpy(bs->BS_FilSysType,"FAT32 ",8);
bs->signature = B_HOST_TO_LENDIAN_INT16(0xAA55);
} else {
bootsector1216 *bs = (bootsector1216 *)bootsector;
uint16 temp16;
uint32 temp32;
uint32 sectorcount = size / 512;
memcpy(bs->BS_OEMName, "Haiku ", 8);
bs->BPB_BytsPerSec = B_HOST_TO_LENDIAN_INT16(sectorSize);
bs->BPB_SecPerClus = sectorPerCluster;
bs->BPB_RsvdSecCnt = B_HOST_TO_LENDIAN_INT16(reservedSectorCount);
bs->BPB_NumFATs = numFATs;
bs->BPB_RootEntCnt = B_HOST_TO_LENDIAN_INT16(rootEntryCount);
temp16 = (sectorcount <= 65535) ? sectorcount : 0;
bs->BPB_TotSec16 = B_HOST_TO_LENDIAN_INT16(temp16);
bs->BPB_Media = 0xF8;
bs->BPB_FATSz16 = B_HOST_TO_LENDIAN_INT16(FATSize);
temp16 = hasBiosGeometry ? biosGeometry.sectors_per_track : 63;
bs->BPB_SecPerTrk = B_HOST_TO_LENDIAN_INT16(temp16);
temp16 = hasBiosGeometry ? biosGeometry.head_count : 255;
bs->BPB_NumHeads = B_HOST_TO_LENDIAN_INT16(temp16);
temp32 = hasPartitionInfo ? (partitionInfo.size / 512) : 0;
bs->BPB_HiddSec = B_HOST_TO_LENDIAN_INT32(temp32);
temp32 = (sectorcount <= 65535) ? 0 : sectorcount;
bs->BPB_TotSec32 = B_HOST_TO_LENDIAN_INT32(temp32);
bs->BS_DrvNum = biosDriveId;
bs->BS_Reserved1 = 0x00;
bs->BS_BootSig = 0x29;
*(uint32*)bs->BS_VolID = (uint32)system_time();
memcpy(bs->BS_VolLab,"NO NAME ",11);
memcpy(bs->BS_FilSysType,(fatbits == 12) ? "FAT12 " : "FAT16 ",8);
bs->signature = B_HOST_TO_LENDIAN_INT16(0xAA55);
}
if (!noprompt) {
printf("\n");
printf("Initializing will erase all existing data on the drive.\n");
printf("Do you wish to proceed? ");
char answer[1000];
char *p;
memset(answer, 0, 1000);
fflush(stdout);
p = fgets(answer, 1000, stdin);
if (p && (p=strchr(p, '\n')))
*p = '\0'; /* remove newline */
if ((p == NULL) || (strlen(answer) < 1) || (0 != strncasecmp(answer, "yes", strlen(answer)))) {
printf("drive NOT initialized\n");
close(fd);
return B_OK;
}
}
if (testmode) {
close(fd);
return B_OK;
}
// Disk layout:
// 0) reserved sectors, this includes the bootsector, fsinfosector and bootsector backup
// 1) FAT
// 2) root directory (not on fat32)
// 3) file & directory data
ssize_t written;
// initialize everything with zero first
// avoid doing 512 byte writes here, they are slow
printf("Writing FAT\n");
char * zerobuffer = (char *)malloc(65536);
memset(zerobuffer,0,65536);
int64 bytes_to_write = 512LL * (reservedSectorCount + (numFATs * FATSize) + rootDirSectors);
int64 pos = 0;
while (bytes_to_write > 0) {
ssize_t writesize = min_c(bytes_to_write, 65536);
written = write_pos(fd, pos, zerobuffer, writesize);
if (written != writesize) {
fprintf(stderr,"Error: write error near sector %Ld\n",pos / 512);
close(fd);
return B_ERROR;
}
bytes_to_write -= writesize;
pos += writesize;
}
free(zerobuffer);
//write boot sector
printf("Writing boot block\n");
written = write_pos(fd, BOOT_SECTOR_NUM * 512, bootsector, 512);
if (written != 512) {
fprintf(stderr,"Error: write error at sector %d\n", BOOT_SECTOR_NUM);
close(fd);
return B_ERROR;
}
if (fatbits == 32) {
written = write_pos(fd, BACKUP_SECTOR_NUM * 512, bootsector, 512);
if (written != 512) {
fprintf(stderr,"Error: write error at sector %d\n", BACKUP_SECTOR_NUM);
close(fd);
return B_ERROR;
}
}
//write first fat sector
printf("Writing first FAT sector\n");
uint8 sec[512];
memset(sec,0,512);
if (fatbits == 12) {
//FAT[0] contains media byte in lower 8 bits, all other bits set to 1
//FAT[1] contains EOF marker
sec[0] = 0xF8;
sec[1] = 0xFF;
sec[2] = 0xFF;
} else if (fatbits == 16) {
//FAT[0] contains media byte in lower 8 bits, all other bits set to 1
sec[0] = 0xF8;
sec[1] = 0xFF;
//FAT[1] contains EOF marker
sec[2] = 0xFF;
sec[3] = 0xFF;
} else if (fatbits == 32) {
//FAT[0] contains media byte in lower 8 bits, all other bits set to 1
sec[0] = 0xF8;
sec[1] = 0xFF;
sec[2] = 0xFF;
sec[3] = 0xFF;
//FAT[1] contains EOF marker
sec[4] = 0xFF;
sec[5] = 0xFF;
sec[6] = 0xFF;
sec[7] = 0x0F;
//FAT[2] contains EOF marker, used to terminate root directory
sec[8] = 0xFF;
sec[9] = 0xFF;
sec[10] = 0xFF;
sec[11] = 0x0F;
}
written = write_pos(fd, reservedSectorCount * 512, sec, 512);
if (written != 512) {
fprintf(stderr,"Error: write error at sector %d\n", reservedSectorCount);
close(fd);
return B_ERROR;
}
if (numFATs > 1) {
written = write_pos(fd, (reservedSectorCount + FATSize) * 512,sec,512);
if (written != 512) {
fprintf(stderr,"Error: write error at sector %ld\n", reservedSectorCount + FATSize);
close(fd);
return B_ERROR;
}
}
//write fsinfo sector
if (fatbits == 32) {
printf("Writing boot info\n");
//calculate total sector count first
uint64 free_count = size / 512;
//now account for already by metadata used sectors
free_count -= reservedSectorCount + (numFATs * FATSize) + rootDirSectors;
//convert from sector to clustercount
free_count /= sectorPerCluster;
//and account for 1 already used cluster of root directory
free_count -= 1;
fsinfosector32 fsinfosector;
memset(&fsinfosector,0x00,512);
fsinfosector.FSI_LeadSig = B_HOST_TO_LENDIAN_INT32(0x41615252);
fsinfosector.FSI_StrucSig = B_HOST_TO_LENDIAN_INT32(0x61417272);
fsinfosector.FSI_Free_Count = B_HOST_TO_LENDIAN_INT32((uint32)free_count);
fsinfosector.FSI_Nxt_Free = B_HOST_TO_LENDIAN_INT32(3);
fsinfosector.FSI_TrailSig = B_HOST_TO_LENDIAN_INT32(0xAA550000);
written = write_pos(fd, FSINFO_SECTOR_NUM * 512, &fsinfosector, 512);
if (written != 512) {
fprintf(stderr,"Error: write error at sector %d\n", FSINFO_SECTOR_NUM);
close(fd);
return B_ERROR;
}
}
//write volume label into root directory
printf("Writing root directory\n");
if (fatbits == 12 || fatbits == 16) {
uint8 data[512];
memset(data, 0, 512);
CreateVolumeLabel(data, label);
uint32 rootDirSector = reservedSectorCount + (numFATs * FATSize);
written = write_pos(fd, rootDirSector * 512, data, 512);
if (written != 512) {
fprintf(stderr,"Error: write error at sector %ld\n", rootDirSector);
close(fd);
return B_ERROR;
}
} else if (fatbits == 32) {
int size = 512 * sectorPerCluster;
uint8 *cluster = (uint8*)malloc(size);
memset(cluster, 0, size);
CreateVolumeLabel(cluster, label);
uint32 rootDirSector = reservedSectorCount + (numFATs * FATSize) + rootDirSectors;
written = write_pos(fd, rootDirSector * 512, cluster, size);
free(cluster);
if (written != size) {
fprintf(stderr,"Error: write error at sector %ld\n", rootDirSector);
close(fd);
return B_ERROR;
}
}
ioctl(fd, B_FLUSH_DRIVE_CACHE);
close(fd);
return B_OK;
}
void
MemoryView::_GetNextHexBlock(char* buffer, int32 bufferSize,
const char* address)
{
switch(fHexMode) {
case HexMode8BitInt:
{
snprintf(buffer, bufferSize, "%02" B_PRIx8,
*((const uint8*)address));
break;
}
case HexMode16BitInt:
{
uint16 data = *((const uint16*)address);
switch(fCurrentEndianMode)
{
case EndianModeBigEndian:
{
data = B_HOST_TO_BENDIAN_INT16(data);
}
break;
case EndianModeLittleEndian:
{
data = B_HOST_TO_LENDIAN_INT16(data);
}
break;
}
snprintf(buffer, bufferSize, "%04" B_PRIx16,
data);
break;
}
case HexMode32BitInt:
{
uint32 data = *((const uint32*)address);
switch(fCurrentEndianMode)
{
case EndianModeBigEndian:
{
data = B_HOST_TO_BENDIAN_INT32(data);
}
break;
case EndianModeLittleEndian:
{
data = B_HOST_TO_LENDIAN_INT32(data);
}
break;
}
snprintf(buffer, bufferSize, "%08" B_PRIx32,
data);
break;
}
case HexMode64BitInt:
{
uint64 data = *((const uint64*)address);
switch(fCurrentEndianMode)
{
case EndianModeBigEndian:
{
data = B_HOST_TO_BENDIAN_INT64(data);
}
break;
case EndianModeLittleEndian:
{
data = B_HOST_TO_LENDIAN_INT64(data);
}
break;
}
snprintf(buffer, bufferSize, "%0*" B_PRIx64,
16, data);
break;
}
}
}
status_t
pll_set(uint8 pllID, uint32 pixelClock, uint8 crtcID)
{
uint32 connectorIndex = gDisplay[crtcID]->connectorIndex;
pll_info *pll = &gConnector[connectorIndex]->encoder.pll;
pll->pixelClock = pixelClock;
pll->id = pllID;
pll_setup_flags(pll, crtcID);
// set up any special flags
pll_adjust(pll, crtcID);
// get any needed clock adjustments, set reference/post dividers
pll_compute(pll);
// compute dividers
int index = GetIndexIntoMasterTable(COMMAND, SetPixelClock);
union set_pixel_clock args;
memset(&args, 0, sizeof(args));
uint8 tableMajor;
uint8 tableMinor;
atom_parse_cmd_header(gAtomContext, index, &tableMajor, &tableMinor);
uint32 bitsPerChannel = 8;
// TODO: Digital Depth, EDID 1.4+ on digital displays
// isn't in Haiku edid common code?
switch (tableMinor) {
case 1:
args.v1.usPixelClock
= B_HOST_TO_LENDIAN_INT16(pll->pixelClock / 10);
args.v1.usRefDiv = B_HOST_TO_LENDIAN_INT16(pll->referenceDiv);
args.v1.usFbDiv = B_HOST_TO_LENDIAN_INT16(pll->feedbackDiv);
args.v1.ucFracFbDiv = pll->feedbackDivFrac;
args.v1.ucPostDiv = pll->postDiv;
args.v1.ucPpll = pll->id;
args.v1.ucCRTC = crtcID;
args.v1.ucRefDivSrc = 1;
break;
case 2:
args.v2.usPixelClock
= B_HOST_TO_LENDIAN_INT16(pll->pixelClock / 10);
args.v2.usRefDiv = B_HOST_TO_LENDIAN_INT16(pll->referenceDiv);
args.v2.usFbDiv = B_HOST_TO_LENDIAN_INT16(pll->feedbackDiv);
args.v2.ucFracFbDiv = pll->feedbackDivFrac;
args.v2.ucPostDiv = pll->postDiv;
args.v2.ucPpll = pll->id;
args.v2.ucCRTC = crtcID;
args.v2.ucRefDivSrc = 1;
break;
case 3:
args.v3.usPixelClock
= B_HOST_TO_LENDIAN_INT16(pll->pixelClock / 10);
args.v3.usRefDiv = B_HOST_TO_LENDIAN_INT16(pll->referenceDiv);
args.v3.usFbDiv = B_HOST_TO_LENDIAN_INT16(pll->feedbackDiv);
args.v3.ucFracFbDiv = pll->feedbackDivFrac;
args.v3.ucPostDiv = pll->postDiv;
args.v3.ucPpll = pll->id;
args.v3.ucMiscInfo = (pll->id << 2);
// if (ss_enabled && (ss->type & ATOM_EXTERNAL_SS_MASK))
// args.v3.ucMiscInfo |= PIXEL_CLOCK_MISC_REF_DIV_SRC;
args.v3.ucTransmitterId
= gConnector[connectorIndex]->encoder.objectID;
args.v3.ucEncoderMode = display_get_encoder_mode(connectorIndex);
break;
case 5:
args.v5.ucCRTC = crtcID;
args.v5.usPixelClock
= B_HOST_TO_LENDIAN_INT16(pll->pixelClock / 10);
args.v5.ucRefDiv = pll->referenceDiv;
args.v5.usFbDiv = B_HOST_TO_LENDIAN_INT16(pll->feedbackDiv);
args.v5.ulFbDivDecFrac
= B_HOST_TO_LENDIAN_INT32(pll->feedbackDivFrac * 100000);
args.v5.ucPostDiv = pll->postDiv;
args.v5.ucMiscInfo = 0; /* HDMI depth, etc. */
// if (ss_enabled && (ss->type & ATOM_EXTERNAL_SS_MASK))
// args.v5.ucMiscInfo |= PIXEL_CLOCK_V5_MISC_REF_DIV_SRC;
switch (bitsPerChannel) {
case 8:
default:
args.v5.ucMiscInfo |= PIXEL_CLOCK_V5_MISC_HDMI_24BPP;
break;
case 10:
args.v5.ucMiscInfo |= PIXEL_CLOCK_V5_MISC_HDMI_30BPP;
break;
}
args.v5.ucTransmitterID
= gConnector[connectorIndex]->encoder.objectID;
args.v5.ucEncoderMode
= display_get_encoder_mode(connectorIndex);
args.v5.ucPpll = pllID;
break;
case 6:
args.v6.ulDispEngClkFreq
= B_HOST_TO_LENDIAN_INT32(crtcID << 24 | pll->pixelClock / 10);
args.v6.ucRefDiv = pll->referenceDiv;
args.v6.usFbDiv = B_HOST_TO_LENDIAN_INT16(pll->feedbackDiv);
args.v6.ulFbDivDecFrac
= B_HOST_TO_LENDIAN_INT32(pll->feedbackDivFrac * 100000);
args.v6.ucPostDiv = pll->postDiv;
args.v6.ucMiscInfo = 0; /* HDMI depth, etc. */
// if (ss_enabled && (ss->type & ATOM_EXTERNAL_SS_MASK))
// args.v6.ucMiscInfo |= PIXEL_CLOCK_V6_MISC_REF_DIV_SRC;
switch (bitsPerChannel) {
case 8:
default:
args.v6.ucMiscInfo |= PIXEL_CLOCK_V6_MISC_HDMI_24BPP;
break;
case 10:
args.v6.ucMiscInfo |= PIXEL_CLOCK_V6_MISC_HDMI_30BPP;
break;
case 12:
args.v6.ucMiscInfo |= PIXEL_CLOCK_V6_MISC_HDMI_36BPP;
break;
case 16:
args.v6.ucMiscInfo |= PIXEL_CLOCK_V6_MISC_HDMI_48BPP;
break;
}
args.v6.ucTransmitterID
= gConnector[connectorIndex]->encoder.objectID;
args.v6.ucEncoderMode = display_get_encoder_mode(connectorIndex);
args.v6.ucPpll = pllID;
break;
default:
TRACE("%s: ERROR: table version %" B_PRIu8 ".%" B_PRIu8 " TODO\n",
__func__, tableMajor, tableMinor);
return B_ERROR;
}
TRACE("%s: set adjusted pixel clock %" B_PRIu32 " (was %" B_PRIu32 ")\n",
__func__, pll->pixelClock, pixelClock);
return atom_execute_table(gAtomContext, index, (uint32*)&args);
}
status_t
pll_adjust(pll_info *pll, uint8 crtcID)
{
// TODO: PLL flags
radeon_shared_info &info = *gInfo->shared_info;
uint32 pixelClock = pll->pixelClock;
// original as pixel_clock will be adjusted
uint32 connectorIndex = gDisplay[crtcID]->connectorIndex;
uint32 encoderID = gConnector[connectorIndex]->encoder.objectID;
uint32 encoderMode = display_get_encoder_mode(connectorIndex);
if (info.device_chipset >= (RADEON_R600 | 0x20)) {
union adjust_pixel_clock args;
uint8 tableMajor;
uint8 tableMinor;
int index = GetIndexIntoMasterTable(COMMAND, AdjustDisplayPll);
if (atom_parse_cmd_header(gAtomContext, index, &tableMajor, &tableMinor)
!= B_OK) {
return B_ERROR;
}
memset(&args, 0, sizeof(args));
switch (tableMajor) {
case 1:
switch (tableMinor) {
case 1:
case 2:
args.v1.usPixelClock
= B_HOST_TO_LENDIAN_INT16(pixelClock / 10);
args.v1.ucTransmitterID = encoderID;
args.v1.ucEncodeMode = encoderMode;
// TODO: SS and SS % > 0
if (0) {
args.v1.ucConfig
|= ADJUST_DISPLAY_CONFIG_SS_ENABLE;
}
atom_execute_table(gAtomContext, index, (uint32*)&args);
// get returned adjusted clock
pll->pixelClock
= B_LENDIAN_TO_HOST_INT16(args.v1.usPixelClock);
pll->pixelClock *= 10;
break;
case 3:
args.v3.sInput.usPixelClock
= B_HOST_TO_LENDIAN_INT16(pixelClock / 10);
args.v3.sInput.ucTransmitterID = encoderID;
args.v3.sInput.ucEncodeMode = encoderMode;
args.v3.sInput.ucDispPllConfig = 0;
// TODO: SS and SS % > 0
if (0) {
args.v3.sInput.ucDispPllConfig
|= DISPPLL_CONFIG_SS_ENABLE;
}
// TODO: if ATOM_DEVICE_DFP_SUPPORT
// TODO: display port DP
// TODO: is DP?
args.v3.sInput.ucExtTransmitterID = 0;
atom_execute_table(gAtomContext, index, (uint32*)&args);
// get returned adjusted clock
pll->pixelClock
= B_LENDIAN_TO_HOST_INT32(
args.v3.sOutput.ulDispPllFreq);
pll->pixelClock *= 10;
// convert to kHz for storage
if (args.v3.sOutput.ucRefDiv) {
pll->flags |= PLL_USE_FRAC_FB_DIV;
pll->flags |= PLL_USE_REF_DIV;
pll->referenceDiv = args.v3.sOutput.ucRefDiv;
}
if (args.v3.sOutput.ucPostDiv) {
pll->flags |= PLL_USE_FRAC_FB_DIV;
pll->flags |= PLL_USE_POST_DIV;
pll->postDiv = args.v3.sOutput.ucPostDiv;
}
break;
default:
TRACE("%s: ERROR: table version %" B_PRIu8 ".%" B_PRIu8
" unknown\n", __func__, tableMajor, tableMinor);
return B_ERROR;
}
break;
default:
TRACE("%s: ERROR: table version %" B_PRIu8 ".%" B_PRIu8
" unknown\n", __func__, tableMajor, tableMinor);
return B_ERROR;
}
}
TRACE("%s: was: %" B_PRIu32 ", now: %" B_PRIu32 "\n", __func__,
pixelClock, pll->pixelClock);
return B_OK;
}
status_t
pll_external_set(uint32 clock)
{
TRACE("%s: set external pll clock to %" B_PRIu32 "\n", __func__, clock);
if (clock == 0)
ERROR("%s: Warning: default display clock is 0?\n", __func__);
// also known as PLL display engineering
uint8 tableMajor;
uint8 tableMinor;
int index = GetIndexIntoMasterTable(COMMAND, SetPixelClock);
atom_parse_cmd_header(gAtomContext, index, &tableMajor, &tableMinor);
TRACE("%s: table %" B_PRIu8 ".%" B_PRIu8 "\n", __func__,
tableMajor, tableMinor);
union setPixelClock {
SET_PIXEL_CLOCK_PS_ALLOCATION base;
PIXEL_CLOCK_PARAMETERS v1;
PIXEL_CLOCK_PARAMETERS_V2 v2;
PIXEL_CLOCK_PARAMETERS_V3 v3;
PIXEL_CLOCK_PARAMETERS_V5 v5;
PIXEL_CLOCK_PARAMETERS_V6 v6;
};
union setPixelClock args;
memset(&args, 0, sizeof(args));
radeon_shared_info &info = *gInfo->shared_info;
uint32 dceVersion = (info.dceMajor * 100) + info.dceMinor;
switch (tableMajor) {
case 1:
switch(tableMinor) {
case 5:
// If the default DC PLL clock is specified,
// SetPixelClock provides the dividers.
args.v5.ucCRTC = ATOM_CRTC_INVALID;
args.v5.usPixelClock = B_HOST_TO_LENDIAN_INT16(clock / 10);
args.v5.ucPpll = ATOM_DCPLL;
break;
case 6:
// If the default DC PLL clock is specified,
// SetPixelClock provides the dividers.
args.v6.ulDispEngClkFreq
= B_HOST_TO_LENDIAN_INT32(clock / 10);
if (dceVersion == 601)
args.v6.ucPpll = ATOM_EXT_PLL1;
else if (dceVersion >= 600)
args.v6.ucPpll = ATOM_PPLL0;
else
args.v6.ucPpll = ATOM_DCPLL;
break;
default:
ERROR("%s: Unknown table version %" B_PRIu8
".%" B_PRIu8 "\n", __func__, tableMajor, tableMinor);
}
break;
default:
ERROR("%s: Unknown table version %" B_PRIu8
".%" B_PRIu8 "\n", __func__, tableMajor, tableMinor);
}
return B_OK;
}
status_t
pll_set(display_mode* mode, uint8 crtcID)
{
uint32 connectorIndex = gDisplay[crtcID]->connectorIndex;
pll_info* pll = &gConnector[connectorIndex]->encoder.pll;
uint32 dp_clock = gConnector[connectorIndex]->dpInfo.linkRate;
bool ssEnabled = false;
pll->pixelClock = mode->timing.pixel_clock;
radeon_shared_info &info = *gInfo->shared_info;
// Probe for PLL spread spectrum info;
pll->ssPercentage = 0;
pll->ssType = 0;
pll->ssStep = 0;
pll->ssDelay = 0;
pll->ssRange = 0;
pll->ssReferenceDiv = 0;
switch (display_get_encoder_mode(connectorIndex)) {
case ATOM_ENCODER_MODE_DP_MST:
case ATOM_ENCODER_MODE_DP:
if (info.dceMajor >= 4)
pll_asic_ss_probe(pll, ASIC_INTERNAL_SS_ON_DP);
else {
if (dp_clock == 162000) {
ssEnabled = pll_ppll_ss_probe(pll, ATOM_DP_SS_ID2);
if (!ssEnabled)
// id2 failed, try id1
ssEnabled = pll_ppll_ss_probe(pll, ATOM_DP_SS_ID1);
} else
ssEnabled = pll_ppll_ss_probe(pll, ATOM_DP_SS_ID1);
}
break;
case ATOM_ENCODER_MODE_LVDS:
if (info.dceMajor >= 4)
ssEnabled = pll_asic_ss_probe(pll, gInfo->lvdsSpreadSpectrumID);
else
ssEnabled = pll_ppll_ss_probe(pll, gInfo->lvdsSpreadSpectrumID);
break;
case ATOM_ENCODER_MODE_DVI:
if (info.dceMajor >= 4)
ssEnabled = pll_asic_ss_probe(pll, ASIC_INTERNAL_SS_ON_TMDS);
break;
case ATOM_ENCODER_MODE_HDMI:
if (info.dceMajor >= 4)
ssEnabled = pll_asic_ss_probe(pll, ASIC_INTERNAL_SS_ON_HDMI);
break;
}
pll_setup_flags(pll, crtcID);
// set up any special flags
pll_adjust(pll, mode, crtcID);
// get any needed clock adjustments, set reference/post dividers
pll_compute(pll);
// compute dividers
display_crtc_ss(pll, ATOM_DISABLE);
// disable ss
uint8 tableMajor;
uint8 tableMinor;
int index = GetIndexIntoMasterTable(COMMAND, SetPixelClock);
atom_parse_cmd_header(gAtomContext, index, &tableMajor, &tableMinor);
TRACE("%s: table %" B_PRIu8 ".%" B_PRIu8 "\n", __func__,
tableMajor, tableMinor);
uint32 bitsPerColor = 8;
// TODO: Digital Depth, EDID 1.4+ on digital displays
// isn't in Haiku edid common code?
// Prepare arguments for AtomBIOS call
union setPixelClock {
SET_PIXEL_CLOCK_PS_ALLOCATION base;
PIXEL_CLOCK_PARAMETERS v1;
PIXEL_CLOCK_PARAMETERS_V2 v2;
PIXEL_CLOCK_PARAMETERS_V3 v3;
PIXEL_CLOCK_PARAMETERS_V5 v5;
PIXEL_CLOCK_PARAMETERS_V6 v6;
};
union setPixelClock args;
memset(&args, 0, sizeof(args));
switch (tableMinor) {
case 1:
args.v1.usPixelClock
= B_HOST_TO_LENDIAN_INT16(pll->pixelClock / 10);
args.v1.usRefDiv = B_HOST_TO_LENDIAN_INT16(pll->referenceDiv);
args.v1.usFbDiv = B_HOST_TO_LENDIAN_INT16(pll->feedbackDiv);
args.v1.ucFracFbDiv = pll->feedbackDivFrac;
args.v1.ucPostDiv = pll->postDiv;
args.v1.ucPpll = pll->id;
args.v1.ucCRTC = crtcID;
args.v1.ucRefDivSrc = 1;
break;
case 2:
args.v2.usPixelClock
= B_HOST_TO_LENDIAN_INT16(pll->pixelClock / 10);
args.v2.usRefDiv = B_HOST_TO_LENDIAN_INT16(pll->referenceDiv);
args.v2.usFbDiv = B_HOST_TO_LENDIAN_INT16(pll->feedbackDiv);
args.v2.ucFracFbDiv = pll->feedbackDivFrac;
args.v2.ucPostDiv = pll->postDiv;
args.v2.ucPpll = pll->id;
args.v2.ucCRTC = crtcID;
args.v2.ucRefDivSrc = 1;
break;
case 3:
args.v3.usPixelClock
= B_HOST_TO_LENDIAN_INT16(pll->pixelClock / 10);
args.v3.usRefDiv = B_HOST_TO_LENDIAN_INT16(pll->referenceDiv);
args.v3.usFbDiv = B_HOST_TO_LENDIAN_INT16(pll->feedbackDiv);
args.v3.ucFracFbDiv = pll->feedbackDivFrac;
args.v3.ucPostDiv = pll->postDiv;
args.v3.ucPpll = pll->id;
args.v3.ucMiscInfo = (pll->id << 2);
if (pll->ssPercentage > 0
&& (pll->ssType & ATOM_EXTERNAL_SS_MASK) != 0) {
args.v3.ucMiscInfo |= PIXEL_CLOCK_MISC_REF_DIV_SRC;
}
args.v3.ucTransmitterId
= gConnector[connectorIndex]->encoder.objectID;
args.v3.ucEncoderMode = display_get_encoder_mode(connectorIndex);
break;
case 5:
args.v5.ucCRTC = crtcID;
args.v5.usPixelClock
= B_HOST_TO_LENDIAN_INT16(pll->pixelClock / 10);
args.v5.ucRefDiv = pll->referenceDiv;
args.v5.usFbDiv = B_HOST_TO_LENDIAN_INT16(pll->feedbackDiv);
args.v5.ulFbDivDecFrac
= B_HOST_TO_LENDIAN_INT32(pll->feedbackDivFrac * 100000);
args.v5.ucPostDiv = pll->postDiv;
args.v5.ucMiscInfo = 0; /* HDMI depth, etc. */
if (pll->ssPercentage > 0
&& (pll->ssType & ATOM_EXTERNAL_SS_MASK) != 0) {
args.v5.ucMiscInfo |= PIXEL_CLOCK_V5_MISC_REF_DIV_SRC;
}
switch (bitsPerColor) {
case 8:
default:
args.v5.ucMiscInfo |= PIXEL_CLOCK_V5_MISC_HDMI_24BPP;
break;
case 10:
args.v5.ucMiscInfo |= PIXEL_CLOCK_V5_MISC_HDMI_30BPP;
break;
}
args.v5.ucTransmitterID
= gConnector[connectorIndex]->encoder.objectID;
args.v5.ucEncoderMode
= display_get_encoder_mode(connectorIndex);
args.v5.ucPpll = pll->id;
break;
case 6:
args.v6.ulDispEngClkFreq
= B_HOST_TO_LENDIAN_INT32(crtcID << 24 | pll->pixelClock / 10);
args.v6.ucRefDiv = pll->referenceDiv;
args.v6.usFbDiv = B_HOST_TO_LENDIAN_INT16(pll->feedbackDiv);
args.v6.ulFbDivDecFrac
= B_HOST_TO_LENDIAN_INT32(pll->feedbackDivFrac * 100000);
args.v6.ucPostDiv = pll->postDiv;
args.v6.ucMiscInfo = 0; /* HDMI depth, etc. */
if (pll->ssPercentage > 0
&& (pll->ssType & ATOM_EXTERNAL_SS_MASK) != 0) {
args.v6.ucMiscInfo |= PIXEL_CLOCK_V6_MISC_REF_DIV_SRC;
}
switch (bitsPerColor) {
case 8:
default:
args.v6.ucMiscInfo |= PIXEL_CLOCK_V6_MISC_HDMI_24BPP;
break;
case 10:
args.v6.ucMiscInfo |= PIXEL_CLOCK_V6_MISC_HDMI_30BPP;
break;
case 12:
args.v6.ucMiscInfo |= PIXEL_CLOCK_V6_MISC_HDMI_36BPP;
break;
case 16:
args.v6.ucMiscInfo |= PIXEL_CLOCK_V6_MISC_HDMI_48BPP;
break;
}
args.v6.ucTransmitterID
= gConnector[connectorIndex]->encoder.objectID;
args.v6.ucEncoderMode = display_get_encoder_mode(connectorIndex);
args.v6.ucPpll = pll->id;
break;
default:
TRACE("%s: ERROR: table version %" B_PRIu8 ".%" B_PRIu8 " TODO\n",
__func__, tableMajor, tableMinor);
return B_ERROR;
}
TRACE("%s: set adjusted pixel clock %" B_PRIu32 " (was %" B_PRIu32 ")\n",
__func__, pll->pixelClock, mode->timing.pixel_clock);
status_t result = atom_execute_table(gAtomContext, index, (uint32*)&args);
if (ssEnabled)
display_crtc_ss(pll, ATOM_ENABLE);
return result;
}
status_t
pll_adjust(pll_info* pll, display_mode* mode, uint8 crtcID)
{
radeon_shared_info &info = *gInfo->shared_info;
uint32 pixelClock = pll->pixelClock;
// original as pixel_clock will be adjusted
uint32 connectorIndex = gDisplay[crtcID]->connectorIndex;
connector_info* connector = gConnector[connectorIndex];
uint32 encoderID = connector->encoder.objectID;
uint32 encoderMode = display_get_encoder_mode(connectorIndex);
uint32 connectorFlags = connector->flags;
uint32 externalEncoderID = 0;
pll->adjustedClock = pll->pixelClock;
if (connector->encoderExternal.isDPBridge)
externalEncoderID = connector->encoderExternal.objectID;
if (info.dceMajor >= 3) {
uint8 tableMajor;
uint8 tableMinor;
int index = GetIndexIntoMasterTable(COMMAND, AdjustDisplayPll);
if (atom_parse_cmd_header(gAtomContext, index, &tableMajor, &tableMinor)
!= B_OK) {
ERROR("%s: Couldn't find AtomBIOS PLL adjustment\n", __func__);
return B_ERROR;
}
TRACE("%s: table %" B_PRIu8 ".%" B_PRIu8 "\n", __func__,
tableMajor, tableMinor);
// Prepare arguments for AtomBIOS call
union adjustPixelClock {
ADJUST_DISPLAY_PLL_PS_ALLOCATION v1;
ADJUST_DISPLAY_PLL_PS_ALLOCATION_V3 v3;
};
union adjustPixelClock args;
memset(&args, 0, sizeof(args));
switch (tableMajor) {
case 1:
switch (tableMinor) {
case 1:
case 2:
args.v1.usPixelClock
= B_HOST_TO_LENDIAN_INT16(pixelClock / 10);
args.v1.ucTransmitterID = encoderID;
args.v1.ucEncodeMode = encoderMode;
if (pll->ssPercentage > 0) {
args.v1.ucConfig
|= ADJUST_DISPLAY_CONFIG_SS_ENABLE;
}
atom_execute_table(gAtomContext, index, (uint32*)&args);
// get returned adjusted clock
pll->adjustedClock
= B_LENDIAN_TO_HOST_INT16(args.v1.usPixelClock);
pll->adjustedClock *= 10;
break;
case 3:
args.v3.sInput.usPixelClock
= B_HOST_TO_LENDIAN_INT16(pixelClock / 10);
args.v3.sInput.ucTransmitterID = encoderID;
args.v3.sInput.ucEncodeMode = encoderMode;
args.v3.sInput.ucDispPllConfig = 0;
if (pll->ssPercentage > 0) {
args.v3.sInput.ucDispPllConfig
|= DISPPLL_CONFIG_SS_ENABLE;
}
// Handle DP adjustments
if (encoderMode == ATOM_ENCODER_MODE_DP
|| encoderMode == ATOM_ENCODER_MODE_DP_MST) {
TRACE("%s: encoderMode is DP\n", __func__);
args.v3.sInput.ucDispPllConfig
|= DISPPLL_CONFIG_COHERENT_MODE;
/* 162000 or 270000 */
uint32 dpLinkSpeed
= dp_get_link_rate(connectorIndex, mode);
/* 16200 or 27000 */
args.v3.sInput.usPixelClock
= B_HOST_TO_LENDIAN_INT16(dpLinkSpeed / 10);
} else if ((connectorFlags & ATOM_DEVICE_DFP_SUPPORT)
!= 0) {
#if 0
if (encoderMode == ATOM_ENCODER_MODE_HDMI) {
/* deep color support */
args.v3.sInput.usPixelClock =
cpu_to_le16((mode->clock * bpc / 8) / 10);
}
#endif
if (pixelClock > 165000) {
args.v3.sInput.ucDispPllConfig
|= DISPPLL_CONFIG_DUAL_LINK;
}
if (1) { // dig coherent mode?
args.v3.sInput.ucDispPllConfig
|= DISPPLL_CONFIG_COHERENT_MODE;
}
}
args.v3.sInput.ucExtTransmitterID = externalEncoderID;
atom_execute_table(gAtomContext, index, (uint32*)&args);
// get returned adjusted clock
pll->adjustedClock = B_LENDIAN_TO_HOST_INT32(
args.v3.sOutput.ulDispPllFreq);
pll->adjustedClock *= 10;
// convert to kHz for storage
if (args.v3.sOutput.ucRefDiv) {
pll->flags |= PLL_USE_FRAC_FB_DIV;
pll->flags |= PLL_USE_REF_DIV;
pll->referenceDiv = args.v3.sOutput.ucRefDiv;
}
if (args.v3.sOutput.ucPostDiv) {
pll->flags |= PLL_USE_FRAC_FB_DIV;
pll->flags |= PLL_USE_POST_DIV;
pll->postDiv = args.v3.sOutput.ucPostDiv;
}
break;
default:
TRACE("%s: ERROR: table version %" B_PRIu8 ".%" B_PRIu8
" unknown\n", __func__, tableMajor, tableMinor);
return B_ERROR;
}
break;
default:
TRACE("%s: ERROR: table version %" B_PRIu8 ".%" B_PRIu8
" unknown\n", __func__, tableMajor, tableMinor);
return B_ERROR;
}
}
TRACE("%s: was: %" B_PRIu32 ", now: %" B_PRIu32 "\n", __func__,
pixelClock, pll->adjustedClock);
return B_OK;
}
