void open_wav(char *wav)
{
TCHANINFO *inf;
int i;
struct t_wave *wavinf;
FILE *snd;
i=find_free_channel();
if (i==-1) return;
last_channel=i;
inf=chaninfo+i;
snd=fopen(wav,"rb");
if (snd==NULL)
{
printf("Soubor %s neexistuje.\n",wav);
return;
}
if (find_chunk(snd,WAV_FMT)==-1)
{
printf("Soubor %s ma poskozenou hlavicku\n",wav);
fclose(snd);
return;
}
wavinf=(struct t_wave *)malloc(get_chunk_size(snd));
if (wavinf==NULL)
{
puts("Nedostatek pamˆti.");
return;
}
read_chunk(snd,wavinf);
if (wavinf->wav_mode!=1)
{
printf("Tento program podporuje pouze WAVy typu 1 (%s)\n",wav);
free(wavinf);
fclose(snd);
return;
}
inf->chans=wavinf->chans;
inf->bit8=wavinf->freq*wavinf->chans==wavinf->bps;
inf->repstart=-1;
inf->id=-1;
inf->left.volume=32768;
inf->right.volume=32768;
inf->left.vls=0;
inf->right.vls=0;
free(wavinf);
if (find_chunk(snd,WAV_DATA)==0)
{
printf("Soubor %s je poskozen\n",wav);
fclose(snd);
return;
}
inf->size=get_chunk_size(snd);
fseek(snd,4,SEEK_CUR);
inf->snd=snd;
}
// binary search to find chunk for this instr
uint32_t find_chunk(uint64_t instr, uint32_t c1, uint32_t c2) {
assert (c1 <= c2);
if (c1 == c2) return c1;
uint32_t mid = (c1 + c2) / 2;
// if we ask for instr that is before every instr in log or after every one,
// return first / last chunk
if (instr < thePandalog->dir.instr[c1]) return c1;
if (instr > thePandalog->dir.instr[c2]) return c2;
if (thePandalog->dir.instr[c1] <= instr && instr <= thePandalog->dir.instr[mid]) {
return find_chunk(instr, c1, mid);
}
assert (thePandalog->dir.instr[mid] <= instr && instr <= thePandalog->dir.instr[c2]);
return find_chunk(instr, mid, c2);
}
void
wav_reader_c::parse_file() {
int chunk_idx;
if (m_in->read(&m_wheader.riff, sizeof(m_wheader.riff)) != sizeof(m_wheader.riff))
throw mtx::input::header_parsing_x();
scan_chunks();
if ((chunk_idx = find_chunk("fmt ")) == -1)
throw mtx::input::header_parsing_x();
m_in->setFilePointer(m_chunks[chunk_idx].pos, seek_beginning);
try {
if (m_in->read(&m_wheader.format, sizeof(m_wheader.format)) != sizeof(m_wheader.format))
throw false;
if (static_cast<uint64_t>(m_chunks[chunk_idx].len) >= sizeof(alWAVEFORMATEXTENSIBLE)) {
alWAVEFORMATEXTENSIBLE format;
if (m_in->read(&format, sizeof(format)) != sizeof(format))
throw false;
memcpy(&m_wheader.common, &format, sizeof(m_wheader.common));
m_format_tag = get_uint16_le(&m_wheader.common.wFormatTag);
if (0xfffe == m_format_tag)
m_format_tag = get_uint32_le(&format.extension.guid.data1);
} else if (m_in->read(&m_wheader.common, sizeof(m_wheader.common)) != sizeof(m_wheader.common))
throw false;
else
m_format_tag = get_uint16_le(&m_wheader.common.wFormatTag);
} catch (...) {
throw mtx::input::header_parsing_x();
}
if ((m_cur_data_chunk_idx = find_chunk("data", 0, false)) == -1)
throw mtx::input::header_parsing_x();
if (debugging_c::requested("wav_reader|wav_reader_headers"))
dump_headers();
m_in->setFilePointer(m_chunks[m_cur_data_chunk_idx].pos + sizeof(struct chunk_struct), seek_beginning);
m_remaining_bytes_in_current_data_chunk = m_chunks[m_cur_data_chunk_idx].len;
}
void
chunk_registry::mark (void* ptr)
{
auto header = find_chunk (ptr);
assert (header && "Must be a valid ptr");
header->set_mark (ptr);
}
bool
chunk_registry::is_marked (void* ptr)
{
auto header = find_chunk (ptr);
assert (header && "Must be a valid ptr");
return header->is_marked (ptr);
}
void ensure_chunks(Chunk *chunks, int *chunk_count, int p, int q, int force) {
int count = *chunk_count;
for (int i = 0; i < count; i++) {
Chunk *chunk = chunks + i;
if (chunk_distance(chunk, p, q) >= DELETE_CHUNK_RADIUS) {
map_free(&chunk->map);
glDeleteBuffers(1, &chunk->position_buffer);
glDeleteBuffers(1, &chunk->normal_buffer);
glDeleteBuffers(1, &chunk->uv_buffer);
Chunk *other = chunks + (--count);
memcpy(chunk, other, sizeof(Chunk));
}
}
int n = CREATE_CHUNK_RADIUS;
for (int i = -n; i <= n; i++) {
for (int j = -n; j <= n; j++) {
int a = p + i;
int b = q + j;
if (!find_chunk(chunks, count, a, b)) {
make_chunk(chunks + count, a, b);
count++;
if (!force) {
*chunk_count = count;
return;
}
}
}
}
*chunk_count = count;
}
file_status_e
wav_reader_c::read(generic_packetizer_c *,
bool) {
if (!m_demuxer)
return FILE_STATUS_DONE;
int64_t requested_bytes = std::min(m_remaining_bytes_in_current_data_chunk, m_demuxer->get_preferred_input_size());
unsigned char *buffer = m_demuxer->get_buffer();
int64_t num_read;
num_read = m_in->read(buffer, requested_bytes);
if (0 >= num_read)
return flush_packetizers();
m_demuxer->process(num_read);
m_remaining_bytes_in_current_data_chunk -= num_read;
if (!m_remaining_bytes_in_current_data_chunk) {
m_cur_data_chunk_idx = find_chunk("data", m_cur_data_chunk_idx + 1, false);
if (-1 == m_cur_data_chunk_idx)
return flush_packetizers();
m_in->setFilePointer(m_chunks[m_cur_data_chunk_idx].pos + sizeof(struct chunk_struct), seek_beginning);
m_remaining_bytes_in_current_data_chunk = m_chunks[m_cur_data_chunk_idx].len;
}
return FILE_STATUS_MOREDATA;
}
// another binary search to find first index into current chunk for this instr
uint32_t find_ind(uint64_t instr, uint32_t i1, uint32_t i2) {
assert (i1 <= i2);
if (i1 == i2) return i1;
uint32_t mid = (i1 + i2) / 2;
PandalogChunk *chunk = &(thePandalog->chunk);
if (instr < chunk->entry[i1]->instr) {
// just means first instr in log is after what we want
return i1;
}
if (instr > chunk->entry[i2]->instr) {
// just means we asked for instr that is after last instr in log
return i2;
}
if (chunk->entry[i1]->instr <= instr && instr <= chunk->entry[mid]->instr) {
return find_chunk(instr, i1, mid);
}
assert (chunk->entry[mid]->instr <= instr && instr <= chunk->entry[i2]->instr);
return find_chunk(instr, mid, i2);
}
CStreamReader *CStreamReader::open_chunk (const u32 &chunk_id)
{
BOOL compressed;
u32 size = find_chunk(chunk_id,&compressed);
if (!size)
return (0);
R_ASSERT2 (!compressed,"cannot use CStreamReader on compressed chunks");
CStreamReader *result = xr_new<CStreamReader>();
result->construct (file_mapping_handle(),m_start_offset + tell(),size,m_archive_size,m_window_size);
return (result);
}
void _set_block(
Chunk *chunks, int chunk_count,
int p, int q, int x, int y, int z, int w)
{
Chunk *chunk = find_chunk(chunks, chunk_count, p, q);
if (chunk) {
Map *map = &chunk->map;
map_set(map, x, y, z, w);
update_chunk(chunk);
}
db_insert_block(p, q, x, y, z, w);
}
int get_block(
Chunk *chunks, int chunk_count,
int x, int y, int z)
{
int p = chunked(x);
int q = chunked(z);
Chunk *chunk = find_chunk(chunks, chunk_count, p, q);
if (chunk) {
Map *map = &chunk->map;
return map_get(map, x, y, z);
}
return 0;
}
void _set_block(
Chunk *chunks, int chunk_count,
int p, int q, int x, int y, int z, int w)
{
Chunk *chunk = find_chunk(chunks, chunk_count, p, q);
if (chunk) {
Map *map = &chunk->map;
if (map_get(map, x, y, z) != w) {
map_set(map, x, y, z, w);
chunk->dirty = 1;
}
}
db_insert_block(p, q, x, y, z, w);
}
void ensure_chunks(
Chunk *chunks, int *chunk_count,
float x, float y, float z, int force)
{
int p = chunked(x);
int q = chunked(z);
int count = *chunk_count;
for (int i = 0; i < count; i++) {
Chunk *chunk = chunks + i;
if (chunk_distance(chunk, p, q) >= DELETE_CHUNK_RADIUS) {
map_free(&chunk->map);
glDeleteBuffers(1, &chunk->position_buffer);
glDeleteBuffers(1, &chunk->normal_buffer);
glDeleteBuffers(1, &chunk->uv_buffer);
Chunk *other = chunks + (--count);
memcpy(chunk, other, sizeof(Chunk));
}
}
int rings = force ? 1 : CREATE_CHUNK_RADIUS;
int generated = 0;
for (int ring = 0; ring <= rings; ring++) {
for (int dp = -ring; dp <= ring; dp++) {
for (int dq = -ring; dq <= ring; dq++) {
if (ring != MAX(ABS(dp), ABS(dq))) {
continue;
}
if (!force && generated && ring > 1) {
continue;
}
int a = p + dp;
int b = q + dq;
Chunk *chunk = find_chunk(chunks, count, a, b);
if (chunk) {
if (chunk->dirty) {
gen_chunk_buffers(chunk);
generated++;
}
}
else {
if (count < MAX_CHUNKS) {
create_chunk(chunks + count, a, b);
generated++;
count++;
}
}
}
}
}
*chunk_count = count;
}
//---------------------------------------------------
// base stream
IReader* IReader::open_chunk(u32 ID)
{
BOOL bCompressed;
u32 dwSize = find_chunk(ID,&bCompressed);
if (dwSize!=0) {
if (bCompressed) {
BYTE* dest;
unsigned dest_sz;
_decompressLZ(&dest,&dest_sz,pointer(),dwSize);
return new CTempReader(dest, dest_sz, tell()+dwSize);
} else {
return new IReader(pointer(), dwSize, tell()+dwSize);
}
} else return 0;
};
model decode_omdl(const path_t& path
, const void* buffer, size_t size
, const layout_t& desired_layout
, const allocator& subsets_alloc
, const allocator& mesh_alloc
, const allocator& temp_alloc)
{
if (!is_omdl(buffer, size))
return model();
auto hdr = (const file_header*)buffer;
auto chk = hdr->find_chunk(omdl_info_signature);
if (!chk)
oThrow(std::errc::invalid_argument, "invalid omdl: no info section");
auto info = *chk->data<info_t>();
model mdl(info, subsets_alloc, mesh_alloc);
chk = chk->next();
if (chk->fourcc != omdl_subsets_signature)
oThrow(std::errc::invalid_argument, "invalid omdl: no subsets section");
memcpy(mdl.subsets(), chk->data<subset_t>(), chk->uncompressed_bytes);
chk = chk->next();
if (chk->fourcc != omdl_indices_signature)
oThrow(std::errc::invalid_argument, "invalid omdl: no indices section");
memcpy(mdl.indices(), chk->data<uint16_t>(), chk->uncompressed_bytes);
const uint32_t nslots = info.num_slots;
for (uint32_t slot = 0; slot < nslots; slot++)
{
chk = chk->next();
if (chk->fourcc != omdl_vertex_slot_signature)
oThrow(std::errc::invalid_argument, "invalid omdl: no vertices slot section");
memcpy(mdl.vertices(slot), chk->data<void>(), chk->uncompressed_bytes);
}
return mdl;
}
int highest_block(Chunk *chunks, int chunk_count, float x, float z) {
int result = -1;
int nx = roundf(x);
int nz = roundf(z);
int p = floorf(roundf(x) / CHUNK_SIZE);
int q = floorf(roundf(z) / CHUNK_SIZE);
Chunk *chunk = find_chunk(chunks, chunk_count, p, q);
if (chunk) {
Map *map = &chunk->map;
MAP_FOR_EACH(map, e) {
if (is_obstacle(e->w) && e->x == nx && e->z == nz) {
result = MAX(result, e->y);
}
} END_MAP_FOR_EACH;
}
return result;
}
int collide(
Chunk *chunks, int chunk_count,
int height, float *x, float *y, float *z)
{
int result = 0;
int p = floorf(roundf(*x) / CHUNK_SIZE);
int q = floorf(roundf(*z) / CHUNK_SIZE);
Chunk *chunk = find_chunk(chunks, chunk_count, p, q);
if (!chunk) {
return result;
}
Map *map = &chunk->map;
int nx = roundf(*x);
int ny = roundf(*y);
int nz = roundf(*z);
float px = *x - nx;
float py = *y - ny;
float pz = *z - nz;
float pad = 0.25;
for (int dy = 0; dy < height; dy++) {
if (px < -pad && is_obstacle(map_get(map, nx - 1, ny - dy, nz))) {
*x = nx - pad;
}
if (px > pad && is_obstacle(map_get(map, nx + 1, ny - dy, nz))) {
*x = nx + pad;
}
if (py < -pad && is_obstacle(map_get(map, nx, ny - dy - 1, nz))) {
*y = ny - pad;
result = 1;
}
if (py > pad && is_obstacle(map_get(map, nx, ny - dy + 1, nz))) {
*y = ny + pad;
result = 1;
}
if (pz < -pad && is_obstacle(map_get(map, nx, ny - dy, nz - 1))) {
*z = nz - pad;
}
if (pz > pad && is_obstacle(map_get(map, nx, ny - dy, nz + 1))) {
*z = nz + pad;
}
}
return result;
}
void *malloc(size_t size)
{
if (size == 0 )
return NULL;
size_t lenght = word_align(size);
struct chunk *c = find_chunk(size);
if(c->next==NULL)
{
if (extend_heap(c,lenght) == 0)
return NULL;
}
else
{
c->next->free = 0;
}
return (&c->next->data);
}
void pandalog_seek(uint64_t instr) {
assert(in_read_mode());
// figure out which chunk this instr in is
uint32_t c = find_chunk(instr, 0, thePandalog->dir.max_chunks-1);
thePandalog->chunk_num = c;
unmarshall_chunk(c);
// figure out ind
uint32_t ind = find_ind(instr, 0, thePandalog->dir.num_entries[c]-1);
if (thePandalog->mode == PL_MODE_READ_BWD) {
// need *last* entry with that instr for backward mode
uint32_t i;
// uint8_t found_entry = 0;
for (i=ind; i<thePandalog->dir.num_entries[c]; i++) {
Panda__LogEntry *ple = thePandalog->chunk.entry[i];
if (ple->instr != instr || instr > ple->instr) {
ind --;
break;
}
}
}
thePandalog->chunk.ind_entry = ind;
}
void ensure_chunks(Chunk *chunks, int *chunk_count, int p, int q, int force) {
int count = *chunk_count;
for (int i = 0; i < count; i++) {
Chunk *chunk = chunks + i;
if (chunk_distance(chunk, p, q) >= DELETE_CHUNK_RADIUS) {
map_free(&chunk->map);
glDeleteBuffers(1, &chunk->position_buffer);
glDeleteBuffers(1, &chunk->normal_buffer);
glDeleteBuffers(1, &chunk->uv_buffer);
Chunk *other = chunks + (--count);
memcpy(chunk, other, sizeof(Chunk));
}
}
int n = force ? 1 : CREATE_CHUNK_RADIUS;
for (int i = 0; i <= n; i++) {
for (int dp = -n; dp <= n; dp++) {
for (int dq = -n; dq <= n; dq++) {
int j = MAX(ABS(dp), ABS(dq));
if (i != j) {
continue;
}
int a = p + dp;
int b = q + dq;
if (!find_chunk(chunks, count, a, b)) {
make_chunk(chunks + count, a, b);
count++;
if (!force) {
*chunk_count = count;
return;
}
}
}
}
}
*chunk_count = count;
}
void mix_buffer(int size)
{
int chan,i;
memset(source,0,size*2);
for(chan=0;chan<CHANNELS;chan++)
{
if (chaninfo[chan].snd!=NULL)
{
TCHANINFO *inf=chaninfo+chan;
for(i=0;i<size;i+=2)
{
int left,right;
if (inf->bit8)
{
fread(&left,1,1,inf->snd);left=(short)(left*256);
left^=0xffff8000;
inf->size--;
}
else
{
fread(&left,1,2,inf->snd);left=(short)left;
inf->size-=2;
}
if (inf->chans==1) right=left;
else
if (inf->bit8)
{
fread(&right,1,1,inf->snd);right=(short)(right*256);
right^=0xffff8000;
inf->size--;
}
else
{
fread(&right,1,2,inf->snd);right=(short)right;
inf->size-=2;
}
left=(int)left*inf->left.volume/(32768);
right=(int)right*inf->right.volume/(32768);
left=left*glob_volume/256;
right=right*glob_volume/256;
calc_vls(&inf->left);
calc_vls(&inf->right);
left+=source[i];
right+=source[i+1];
if (left>32767) left=32767;
if (left<-32767) left=-32767;
if (right>32767) right=32767;
if (right<-32767) right=-32767;
source[i]=left;
source[i+1]=right;
if (inf->size<=0)
{
if (inf->repstart!=-1)
{
fseek(inf->snd,0,SEEK_SET);
find_chunk(inf->snd,WAV_DATA);
inf->size=get_chunk_size(inf->snd);
fseek(inf->snd,4,SEEK_CUR);
fseek(inf->snd,inf->repstart,SEEK_CUR);
inf->size-=inf->repstart;
}
else
{
fclose(inf->snd);
inf->snd=NULL;
break;
}
}
}
}
}
}
/** Prepares "start" RDA packet with channel names determined from the corresponding chunk (or empty)
Also converts to little-endian if this machine is big endian
@param hdr Points to headerdef_t structure, will be filled, may not be NULL
@return created start item, or NULL on error (connection / out of memory)
*/
rda_buffer_item_t *rda_aux_get_hdr_prep_start(int ft_buffer, headerdef_t *hdr) {
rda_buffer_item_t *item = NULL;
const ft_chunk_t *chunk;
rda_msg_start_t *R;
char *str;
double *dRes;
const void *dResSource;
size_t bytesTotal;
int i,r,numExtraZeros,sizeOrgNames;
message_t req, *resp = NULL;
messagedef_t msg_def;
req.def = &msg_def;
req.buf = NULL;
msg_def.version = VERSION;
msg_def.command = GET_HDR;
msg_def.bufsize = 0;
r = clientrequest(ft_buffer, &req, &resp);
if (r<0 || resp == NULL || resp->def == NULL) {
goto cleanup;
}
if (resp->def->command != GET_OK || resp->def->bufsize < sizeof(headerdef_t) || resp->buf == NULL) {
goto cleanup;
}
memcpy(hdr, resp->buf, sizeof(headerdef_t));
/* Ok, we have the basic header, now look for proper FT_CHUNK_RESOLUTIONS */
chunk = find_chunk(resp->buf, sizeof(headerdef_t), resp->def->bufsize, FT_CHUNK_RESOLUTIONS);
if (chunk != NULL && chunk->def.size == hdr->nchans*sizeof(double)) {
dResSource = chunk->data;
/* fine - we just need a memcpy later on */
} else {
dResSource = NULL;
/* no suitable chunk found - set defaults later on */
}
/* Now see if we can find channel names */
chunk = find_chunk(resp->buf, sizeof(headerdef_t), resp->def->bufsize, FT_CHUNK_CHANNEL_NAMES);
if (chunk != NULL && chunk->def.size >= hdr->nchans) {
/* The chunk seems ok - check whether we really have N (0-terminated) strings */
int k,nz = 0;
for (k = 0; k<chunk->def.size && nz<=hdr->nchans; k++) {
if (chunk->data[k] == 0) nz++;
}
/* Okay, either k is at the end and we have nz<=N, or we have reached N=nz before the
end of the chunk. In both cases, it's safe to transmit the first 'k' bytes and
add (N-nz) trailing zeros */
numExtraZeros = hdr->nchans - nz;
sizeOrgNames = k;
} else {
sizeOrgNames = 0;
numExtraZeros = hdr->nchans;
}
bytesTotal = sizeof(rda_msg_start_t) + hdr->nchans*(sizeof(double)) + sizeOrgNames + numExtraZeros;
item = rda_aux_alloc_item(bytesTotal);
if (item == NULL) goto cleanup;
R = (rda_msg_start_t *) item->data;
memcpy(R->hdr.guid, _rda_guid, sizeof(_rda_guid));
R->hdr.nSize = bytesTotal;
R->hdr.nType = RDA_START_MSG;
R->nChannels = hdr->nchans;
R->dSamplingInterval = 1.0e6/(double) hdr->fsample; /* should be in microseconds */
if (_i_am_big_endian_) {
/* take care of hdr.nSize, hdr.nType, nChannels */
ft_swap32(3, &(R->hdr.nSize));
ft_swap64(1, &(R->dSamplingInterval));
}
/* R+1 points to first byte after header info */
dRes = (double *) ((void *)(R+1));
if (dResSource == NULL) {
/* Fill with resolution = 1.0 -- we have nothing better */
for (i=0;i<hdr->nchans;i++) dRes[i]=1.0;
} else {
memcpy(dRes, dResSource, hdr->nchans * sizeof(double));
}
/* swap byte order if necessary */
if (_i_am_big_endian_) {
ft_swap64(hdr->nchans, dRes);
}
/* Let 'str' point to first byte after the resolution values */
str = (char *) ((void *)(dRes + hdr->nchans));
if (sizeOrgNames > 0) {
memcpy(str, chunk->data, sizeOrgNames);
}
for (i=0;i<numExtraZeros;i++) str[sizeOrgNames + i] = 0;
/* done */
cleanup:
if (resp) {
if (resp->def) free(resp->def);
if (resp->buf) free(resp->buf);
free(resp);
}
return item;
}
static z_blorb_map *fizmo_blorb_init(z_file *blorb_file)
{
z_blorb_map *result_wrapper;
fizmo_blorb_map *result;
fizmo_blorb *blorb;
int resource_chunk_size;
char buf[5];
int nof_resources, nof_loops, blorb_index, resource_number;
if (find_chunk("RIdx", blorb_file) == -1)
{
fsi->closefile(blorb_file);
return NULL;
}
if (read_chunk_length(blorb_file) == -1)
i18n_translate_and_exit(
libfizmo_module_name,
i18n_libfizmo_FUNCTION_CALL_P0S_RETURNED_ERROR_CODE_P1D,
-0x0101,
"read_chunk_length",
errno);
result = fizmo_malloc(sizeof(fizmo_blorb_map));
result->blorb_file = blorb_file;
result_wrapper = fizmo_malloc(sizeof(z_blorb_map));
result_wrapper->blorb_map_implementation = result;
resource_chunk_size = get_last_chunk_length();
nof_resources = (resource_chunk_size - 4) / 12;
// Skip next number of resources.
if ((fsi->setfilepos(result->blorb_file, 4, SEEK_CUR)) != 0)
i18n_translate_and_exit(
libfizmo_module_name,
i18n_libfizmo_FUNCTION_CALL_P0S_RETURNED_ERROR_CODE_P1D,
-0x0101,
"setfilepos",
errno);
TRACE_LOG("Number of resources in blorb file: %d.\n", nof_resources);
// Count number of images and sounds.
result->blorbs = fizmo_malloc(sizeof(fizmo_blorb*) * (nof_resources+1));
buf[4] = '\0';
blorb_index = 0;
while (nof_resources > 0)
{
blorb = fizmo_malloc(sizeof(fizmo_blorb));
if (fsi->readchars(buf, 4, result->blorb_file) != 4)
i18n_translate_and_exit(
libfizmo_module_name,
i18n_libfizmo_FUNCTION_CALL_P0S_ABORTED_DUE_TO_ERROR,
-0x0106,
"readchars");
TRACE_LOG("Type descriptor: %s\n", buf);
if (strcmp(buf, "Pict") == 0)
blorb->type = Z_BLORB_TYPE_PICT;
else if (strcmp(buf, "Snd ") == 0)
blorb->type = Z_BLORB_TYPE_SOUND;
else if (strcmp(buf, "Exec") == 0)
blorb->type = Z_BLORB_TYPE_EXEC;
else
// Unknown resource.
i18n_translate_and_exit(
libfizmo_module_name,
i18n_libfizmo_UNKNOWN_ERROR_CASE,
-1);
blorb->resource_number = read_four_byte_number(result->blorb_file);
blorb->offset = read_four_byte_number(result->blorb_file) + 8;
blorb->v3_number_of_loops = -1;
result->blorbs[blorb_index++] = blorb;
nof_resources--;
}
result->blorbs[blorb_index] = NULL;
if (find_chunk("Fspc", result->blorb_file) == 0)
{
if ((fsi->setfilepos(result->blorb_file, 4, SEEK_CUR)) != 0)
i18n_translate_and_exit(
libfizmo_module_name,
i18n_libfizmo_FUNCTION_CALL_P0S_RETURNED_ERROR_CODE_P1D,
-0x0101,
"setfilepos",
errno);
result->frontispiece_image_no = read_four_byte_number(result->blorb_file);
}
else
result->frontispiece_image_no = -1;
if (ver < 5)
{
if (find_chunk("Loop", result->blorb_file) == 0)
{
nof_resources = read_four_byte_number(result->blorb_file) / 8;
TRACE_LOG("Number of loop entries: %d.\n", nof_resources);
while (nof_resources > 0)
{
resource_number = read_four_byte_number(result->blorb_file);
nof_loops = read_four_byte_number(result->blorb_file);
TRACE_LOG("Trying to find resource #%d.\n", resource_number);
if ((blorb = fizmo_get_blorb(
result_wrapper, Z_BLORB_TYPE_SOUND, resource_number)) != NULL)
{
TRACE_LOG("Resource found, setting nof_loops to %d.\n",
nof_loops);
blorb->v3_number_of_loops = nof_loops;
}
nof_resources--;
}
}
}
return result_wrapper;
}
// Besides passing in type, also pass some necessary fields as parameters
// Other fields in the parameters can be arbitrary values
// To make a WHOHAS packet, pass in the request and *packet_count
// To make a IHAVE packet, pass in a WHOHAS packet as packet_in
// To make a Get packet, pass in p_chunk
//
struct packet* make_packet(unsigned char packet_type, struct Chunk* p_chunk, char* data, int data_size, int seq_number, int ack_number, struct packet* packet_in, int* packet_count, struct Request* request){
unsigned char i = 0;
int j = 0;
int unfinished_chunk_count = 0;
struct packet* packet = NULL;
switch(packet_type){
case WHOHAS:
for(i=0;i<request->chunk_number;i++){
// TODO: here may need to change add more state to chunks
if(request->chunks[i].state == NOT_STARTED){
unfinished_chunk_count++;
}
}
if(unfinished_chunk_count%CHUNK_PER_PACKET==0){
*packet_count = unfinished_chunk_count/CHUNK_PER_PACKET;
}
else{
*packet_count = unfinished_chunk_count/CHUNK_PER_PACKET + 1;
}
struct packet* packets = (struct packet*)malloc(sizeof(struct packet)* (*packet_count));
memset(packets, 0, sizeof(struct packet)* (*packet_count));
if(unfinished_chunk_count==0){
free_packets(packets, *packet_count);
packets = NULL;
}
int current_chunk_index = 0;
for(j=0;j<(*packet_count);j++){
unsigned char chunk_count = CHUNK_PER_PACKET;
if(*packet_count <= j+1){
chunk_count = (unsigned char)(unfinished_chunk_count - j*CHUNK_PER_PACKET);
}
fill_header(&packets[j].header, WHOHAS, chunk_count*SHA1_HASH_SIZE+HEADER_LENGTH+CHUNK_NUMBER_AND_PADDING_SIZE, 0, 0);
*(packets[j].payload) = chunk_count;
int k=0;
for(k=0;k<chunk_count;k++){
for(; current_chunk_index<request->chunk_number;current_chunk_index++){
if(request->chunks[current_chunk_index].state==NOT_STARTED){
memcpy(packets[j].payload+CHUNK_NUMBER_AND_PADDING_SIZE+k*SHA1_HASH_SIZE,(request->chunks)[current_chunk_index].hash, SHA1_HASH_SIZE);
current_chunk_index++;
break;
}
}
}
}
return packets;
case IHAVE:
packet = (struct packet*)malloc(sizeof(struct packet));
memset(packet, 0, sizeof(struct packet));
unsigned char chunk_count = *((char*)packet_in+16);
unsigned char count_ihave = 0;
for(i=0;i<chunk_count;i++){
uint8_t* hash = (uint8_t*)((char*)packet_in+16+CHUNK_NUMBER_AND_PADDING_SIZE+i*SHA1_HASH_SIZE);
if(find_chunk(hash)>0){
memcpy(packet->payload+CHUNK_NUMBER_AND_PADDING_SIZE+count_ihave*SHA1_HASH_SIZE, hash, SHA1_HASH_SIZE);
count_ihave++;
}
}
if(count_ihave==0){
free_packet(packet);
packet = NULL;
}
else{
fill_header(&(packet->header), IHAVE, count_ihave*SHA1_HASH_SIZE+HEADER_LENGTH+CHUNK_NUMBER_AND_PADDING_SIZE, 0, 0);
// *(packet->payload) = count_ihave;
memcpy(packet->payload, &count_ihave, 1);
}
break;
case GET:
packet = (struct packet*)malloc(sizeof(struct packet));
memset(packet, 0, sizeof(struct packet));
fill_header(&packet->header, GET, SHA1_HASH_SIZE+HEADER_LENGTH, 0, 0);
memcpy(packet->payload, p_chunk->hash, SHA1_HASH_SIZE);
break;
case DATA:
packet = (struct packet*)malloc(sizeof(struct packet));
memset(packet, 0, sizeof(struct packet));
fill_header(&packet->header, DATA, data_size+HEADER_LENGTH, seq_number, 0);
memcpy(packet->payload, data, data_size);
break;
case ACK:
packet = (struct packet*)malloc(sizeof(struct packet));
memset(packet, 0, sizeof(struct packet));
fill_header(&packet->header, ACK, HEADER_LENGTH, 0, ack_number);
break;
default:
printf("Should not happen in make_packet\n");
break;
}
return packet;
}
bool loadWavSampleFromBytes(const float *inData, int len, QuickVec<unsigned char> &outBuffer, int *channels, int *bitsPerSample, int* outSampleRate)
{
const char* start = (const char*)inData;
const char* end = start + len;
const char* ptr = start;
WAVE_Format wave_format;
RIFF_Header riff_header;
WAVE_Data wave_data;
unsigned char* data;
// Read in the first chunk into the struct
memcpy(&riff_header, ptr, sizeof(RIFF_Header));
ptr += sizeof(RIFF_Header);
//check for RIFF and WAVE tag in memeory
if ((riff_header.chunkID[0] != 'R' ||
riff_header.chunkID[1] != 'I' ||
riff_header.chunkID[2] != 'F' ||
riff_header.chunkID[3] != 'F') ||
(riff_header.format[0] != 'W' ||
riff_header.format[1] != 'A' ||
riff_header.format[2] != 'V' ||
riff_header.format[3] != 'E'))
{
LOG_SOUND("Invalid RIFF or WAVE Header!\n");
return false;
}
//Read in the 2nd chunk for the wave info
ptr = find_chunk(ptr, end, "fmt ");
if (!ptr) {
return false;
}
readStruct(wave_format, ptr);
//check for fmt tag in memory
if (wave_format.subChunkID[0] != 'f' ||
wave_format.subChunkID[1] != 'm' ||
wave_format.subChunkID[2] != 't' ||
wave_format.subChunkID[3] != ' ')
{
LOG_SOUND("Invalid Wave Format!\n");
return false;
}
ptr = find_chunk(ptr, end, "data");
if (!ptr) {
return false;
}
const char* base = readStruct(wave_data, ptr);
//check for data tag in memory
if (wave_data.subChunkID[0] != 'd' ||
wave_data.subChunkID[1] != 'a' ||
wave_data.subChunkID[2] != 't' ||
wave_data.subChunkID[3] != 'a')
{
LOG_SOUND("Invalid Wav Data Header!\n");
return false;
}
//Allocate memory for data
//data = new unsigned char[wave_data.subChunk2Size];
// Read in the sound data into the soundData variable
size_t size = wave_data.subChunkSize;
if (size > (end - base)) {
return false;
}
/*mlChannels = wave_format.numChannels;
if (mlChannels == 2)
{
if (wave_format.bitsPerSample == 8)
{
mFormat = AL_FORMAT_STEREO8;
mlSamples = size / 2;
}
else //if (wave_format.bitsPerSample == 16)
{
mlSamples = size / 4;
mFormat = AL_FORMAT_STEREO16;
}
} else //if (mlChannels == 1)
{
if (wave_format.bitsPerSample == 8)
{
mlSamples = size;
mFormat = AL_FORMAT_MONO8;
}
else //if (wave_format.bitsPerSample == 16)
{
mlSamples = size / 2;
mFormat = AL_FORMAT_MONO16;
}
}
mlFrequency = wave_format.sampleRate;
mfTotalTime = float(mlSamples) / float(mlFrequency);*/
//Store in the outbuffer
outBuffer.Set((unsigned char*)base, size);
//Now we set the variables that we passed in with the
//data from the structs
*outSampleRate = (int)wave_format.sampleRate;
//The format is worked out by looking at the number of
//channels and the bits per sample.
*channels = wave_format.numChannels;
*bitsPerSample = wave_format.bitsPerSample;
//clean up and return true if successful
//fclose(f);
//delete[] data;
return true;
}
bool WAV::Decode (Resource *resource, AudioBuffer *audioBuffer) {
WAVE_Format wave_format;
RIFF_Header riff_header;
WAVE_Data wave_data;
unsigned char* data;
FILE_HANDLE *file = NULL;
if (resource->path) {
file = lime::fopen (resource->path, "rb");
if (!file) {
return false;
}
int result = lime::fread (&riff_header, sizeof (RIFF_Header), 1, file);
if ((riff_header.chunkID[0] != 'R' || riff_header.chunkID[1] != 'I' || riff_header.chunkID[2] != 'F' || riff_header.chunkID[3] != 'F') || (riff_header.format[0] != 'W' || riff_header.format[1] != 'A' || riff_header.format[2] != 'V' || riff_header.format[3] != 'E')) {
lime::fclose (file);
return false;
}
long int currentHead = 0;
bool foundFormat = false;
while (!foundFormat) {
currentHead = lime::ftell (file);
result = lime::fread (&wave_format, sizeof (WAVE_Format), 1, file);
if (result != 1) {
LOG_SOUND ("Invalid Wave Format!\n");
lime::fclose (file);
return false;
}
if (wave_format.subChunkID[0] != 'f' || wave_format.subChunkID[1] != 'm' || wave_format.subChunkID[2] != 't' || wave_format.subChunkID[3] != ' ') {
lime::fseek (file, wave_format.subChunkSize, SEEK_CUR);
} else {
foundFormat = true;
}
}
bool foundData = false;
while (!foundData) {
currentHead = lime::ftell (file);
result = lime::fread (&wave_data, sizeof (WAVE_Data), 1, file);
if (result != 1) {
LOG_SOUND ("Invalid Wav Data Header!\n");
lime::fclose (file);
return false;
}
if (wave_data.subChunkID[0] != 'd' || wave_data.subChunkID[1] != 'a' || wave_data.subChunkID[2] != 't' || wave_data.subChunkID[3] != 'a') {
lime::fseek (file, currentHead + sizeof (WAVE_Data) + wave_data.subChunkSize, SEEK_SET);
} else {
foundData = true;
}
}
audioBuffer->data = new Bytes (wave_data.subChunkSize);
audioBuffer->length = wave_data.subChunkSize;
if (!lime::fread (audioBuffer->data->Data (), wave_data.subChunkSize, 1, file)) {
LOG_SOUND ("error loading WAVE data into struct!\n");
lime::fclose (file);
return false;
}
lime::fclose (file);
} else {
const char* start = (const char*)resource->data->Data ();
const char* end = start + resource->data->Length ();
const char* ptr = start;
memcpy (&riff_header, ptr, sizeof (RIFF_Header));
ptr += sizeof (RIFF_Header);
if ((riff_header.chunkID[0] != 'R' || riff_header.chunkID[1] != 'I' || riff_header.chunkID[2] != 'F' || riff_header.chunkID[3] != 'F') || (riff_header.format[0] != 'W' || riff_header.format[1] != 'A' || riff_header.format[2] != 'V' || riff_header.format[3] != 'E')) {
return false;
}
ptr = find_chunk (ptr, end, "fmt ");
if (!ptr) {
return false;
}
readStruct (wave_format, ptr);
if (wave_format.subChunkID[0] != 'f' || wave_format.subChunkID[1] != 'm' || wave_format.subChunkID[2] != 't' || wave_format.subChunkID[3] != ' ') {
LOG_SOUND ("Invalid Wave Format!\n");
return false;
}
ptr = find_chunk (ptr, end, "data");
if (!ptr) {
return false;
}
const char* base = readStruct (wave_data, ptr);
if (wave_data.subChunkID[0] != 'd' || wave_data.subChunkID[1] != 'a' || wave_data.subChunkID[2] != 't' || wave_data.subChunkID[3] != 'a') {
LOG_SOUND ("Invalid Wav Data Header!\n");
return false;
}
audioBuffer->data->Resize (wave_data.subChunkSize);
size_t size = wave_data.subChunkSize;
if (size > (end - base)) {
return false;
}
unsigned char* bytes = audioBuffer->data->Data ();
memcpy (bytes, base, size);
}
audioBuffer->sampleRate = (int)wave_format.sampleRate;
audioBuffer->channels = wave_format.numChannels;
audioBuffer->bitsPerSample = wave_format.bitsPerSample;
return true;
}
int load_pic(char *name)
{
FILE *fd = fopen(name, "rb");
Uint32 type;
/* Couldn't open */
if (!fd) return 0;
type = read_header(fd);
/* Not an IFF file */
if (!type)
{
fclose(fd);
return 0;
}
switch(type)
{
case PBM:
{
if (find_chunk(fd, BMHD))
{
Uint16 sizex = freadhe16(fd);
Uint16 sizey = freadhe16(fd);
Uint8 compression;
int colors = 256;
Uint32 bodylength;
/*
* Hop over the "hotspot", planes & masking (stencil pictures are
* always saved as ILBMs!
*/
fseek(fd, 6, SEEK_CUR);
compression = fread8(fd);
fread8(fd);
fread8(fd);
fread8(fd);
/*
* That was all we needed of the BMHD, now the CMAP (optional hehe!)
*/
if (find_chunk(fd, CMAP))
{
int count;
for (count = 0; count < colors; count++)
{
sc.red[count] = fread8(fd) >> 2;
sc.green[count] = fread8(fd) >> 2;
sc.blue[count] = fread8(fd) >> 2;
}
}
/*
* Now the BODY chunk, this is important!
*/
bodylength = find_chunk(fd, BODY);
if (bodylength)
{
sc.sizex = sizex;
sc.sizey = sizey;
sc.data = malloc(sc.sizex * sc.sizey);
if (!sc.data)
{
fclose(fd);
return 0;
}
if (!compression)
{
int ycount;
for (ycount = 0; ycount < sizey; ycount++)
{
fread(&sc.data[sc.sizex * ycount], sizex, 1, fd);
}
}
else
{
int ycount;
char *ptr = malloc(bodylength);
char *origptr = ptr;
if (!ptr)
{
fclose(fd);
return 0;
}
fread(ptr, bodylength, 1, fd);
/* Run-length encoding */
for (ycount = 0; ycount < sizey; ycount++)
{
int total = 0;
while (total < sizex)
{
signed char decision = *ptr++;
if (decision >= 0)
{
memcpy(&sc.data[sc.sizex * ycount + total], ptr, decision + 1);
ptr += decision + 1;
total += decision + 1;
}
if ((decision < 0) && (decision != -128))
{
memset(&sc.data[sc.sizex * ycount + total], *ptr++, -decision + 1);
total += -decision + 1;
}
}
}
free(origptr);
}
}
}
}
break;
case ILBM:
{
if (find_chunk(fd, BMHD))
{
Uint16 sizex = freadhe16(fd);
Uint16 sizey = freadhe16(fd);
Uint8 compression;
Uint8 planes;
Uint8 mask;
int colors;
Uint32 bodylength;
/*
* Hop over the "hotspot"
*/
fseek(fd, 4, SEEK_CUR);
planes = fread8(fd);
mask = fread8(fd);
compression = fread8(fd);
fread8(fd);
fread8(fd);
fread8(fd);
colors = poweroftwo[planes];
if (mask > 1) mask = 0;
/*
* That was all we needed of the BMHD, now the CMAP (optional hehe!)
*/
if (find_chunk(fd, CMAP))
{
int count;
for (count = 0; count < 256; count++)
{
sc.red[count] = 0;
sc.green[count] = 0;
sc.blue[count] = 0;
}
sc.red[255] = 255;
sc.green[255] = 255;
sc.blue[255] = 255;
for (count = 0; count < colors; count++)
{
sc.red[count] = fread8(fd) >> 2;
sc.green[count] = fread8(fd) >> 2;
sc.blue[count] = fread8(fd) >> 2;
}
}
/*
* Now the BODY chunk, this is important!
*/
bodylength = find_chunk(fd, BODY);
if (bodylength)
{
char *ptr;
char *origptr;
char *unpackedptr;
char *workptr;
int ycount, plane;
int bytes, dbytes;
sc.sizex = sizex;
sc.sizey = sizey;
sc.data = malloc(sc.sizex * sc.sizey);
memset(sc.data, 0, sc.sizex * sc.sizey);
if (!sc.data)
{
fclose(fd);
return 0;
}
origptr = malloc(bodylength * 2);
ptr = origptr;
if (!origptr)
{
fclose(fd);
return 0;
}
fread(origptr, bodylength, 1, fd);
if (compression)
{
dbytes = sizey * (planes + mask) * ((sizex + 7) / 8);
unpackedptr = malloc(dbytes);
workptr = unpackedptr;
if (!unpackedptr)
{
fclose(fd);
return 0;
}
bytes = 0;
while (bytes < dbytes)
{
signed char decision = *ptr++;
if (decision >= 0)
{
memcpy(workptr, ptr, decision + 1);
workptr += decision + 1;
ptr += decision + 1;
bytes += decision + 1;
}
if ((decision < 0) && (decision != -128))
{
memset(workptr, *ptr++, -decision + 1);
workptr += -decision + 1;
bytes += -decision + 1;
}
}
free(origptr);
origptr = unpackedptr;
ptr = unpackedptr;
}
for (ycount = 0; ycount < sizey; ycount++)
{
for (plane = 0; plane < planes; plane++)
{
int xcount = (sizex + 7) / 8;
int xcoord = 0;
while (xcount)
{
if (*ptr & 128) sc.data[sc.sizex * ycount + xcoord + 0] |= poweroftwo[plane];
if (*ptr & 64 ) sc.data[sc.sizex * ycount + xcoord + 1] |= poweroftwo[plane];
if (*ptr & 32 ) sc.data[sc.sizex * ycount + xcoord + 2] |= poweroftwo[plane];
if (*ptr & 16 ) sc.data[sc.sizex * ycount + xcoord + 3] |= poweroftwo[plane];
if (*ptr & 8 ) sc.data[sc.sizex * ycount + xcoord + 4] |= poweroftwo[plane];
if (*ptr & 4 ) sc.data[sc.sizex * ycount + xcoord + 5] |= poweroftwo[plane];
if (*ptr & 2 ) sc.data[sc.sizex * ycount + xcoord + 6] |= poweroftwo[plane];
if (*ptr & 1 ) sc.data[sc.sizex * ycount + xcoord + 7] |= poweroftwo[plane];
ptr++;
xcoord += 8;
xcount--;
}
}
if (mask)
{
ptr += (sizex + 7) / 8;
}
}
free(origptr);
}
}
}
break;
}
fclose(fd);
return 1;
}
int find_chunk_le(STREAMFILE *streamFile, uint32_t chunk_id, off_t start_offset, int full_chunk_size, off_t *out_chunk_offset, size_t *out_chunk_size) {
return find_chunk(streamFile, chunk_id, start_offset, full_chunk_size, out_chunk_offset, out_chunk_size, 0, 0);
}
static int detect_and_add_z_file(char *filename, char *blorb_filename,
struct babel_info *babel, struct z_story_list *story_list)
{
z_file *infile;
uint8_t buf[30];
uint32_t val;
char serial[7];
int version;
uint16_t checksum;
uint16_t release;
struct babel_story_info *b_info = NULL;
char *title;
char *author;
char *language;
char *description;
char *ptr, *ptr2;
int length;
time_t storyfile_timestamp;
char *empty_string = "";
struct z_story_list_entry *entry;
int chunk_length = -1;
struct babel_info *file_babel = NULL;
bool file_is_zblorb;
char *cwd = NULL;
char *abs_filename = NULL;
if (filename == NULL)
return -1;
if (filename[0] != '/')
{
cwd = fsi->get_cwd();
abs_filename = fizmo_malloc(strlen(cwd) + strlen(filename) + 2);
sprintf(abs_filename, "%s/%s", cwd, filename);
}
else
abs_filename = filename;
if ((infile = fsi->openfile(abs_filename, FILETYPE_DATA, FILEACCESS_READ))
== NULL)
{
if (cwd != NULL)
{
free(cwd);
free(abs_filename);
}
return -1;
}
if ((storyfile_timestamp = fsi->get_last_file_mod_timestamp(infile)) < 0)
{
fsi->closefile(infile);
if (cwd != NULL)
{
free(cwd);
free(abs_filename);
}
return -1;
}
if (fsi->readchars(buf, 30, infile) != 30)
{
fsi->closefile(infile);
if (cwd != NULL)
{
free(cwd);
free(abs_filename);
}
return -1;
}
if (memcmp(buf, "FORM", 4) == 0)
{
// IFF file.
if (
(is_form_type(infile, "IFRS") != true)
||
(find_chunk("ZCOD", infile) == -1)
)
{
fsi->closefile(infile);
if (cwd != NULL)
{
free(cwd);
free(abs_filename);
}
return -1;
}
file_is_zblorb = true;
if (find_chunk("IFmd", infile) == 0)
{
read_chunk_length(infile);
chunk_length = get_last_chunk_length();
file_babel = load_babel_info_from_blorb(
infile, chunk_length, abs_filename, storyfile_timestamp);
babel = file_babel;
}
find_chunk("ZCOD", infile);
read_chunk_length(infile);
length = get_last_chunk_length();
if (fsi->readchars(buf, 30, infile) != 30)
{
fsi->closefile(infile);
if (cwd != NULL)
{
free(cwd);
free(abs_filename);
}
return -1;
}
}
else
{
fsi->setfilepos(infile, 0, SEEK_END);
length = fsi->getfilepos(infile);
file_is_zblorb = false;
}
fsi->closefile(infile);
val = (buf[16] << 24) | (buf[17] << 16) | (buf[18] << 8) | (buf[19]);
if (
((val & 0xbe00f0f0) != 0x3030)
||
(*buf < 1)
||
(*buf > 8)
)
{
if (cwd != NULL)
{
free(cwd);
free(abs_filename);
}
return -2;
}
version = *buf;
memcpy(serial, buf + 0x12, 6);
serial[6] = '\0';
checksum = (buf[0x1c] << 8) | buf[0x1d];
release = (buf[2] << 8) | buf[3];
if ((entry = get_z_story_entry(serial, release, length, story_list))
!= NULL)
{
// We already have the story in our story-list. If we have a raw file
// we can just quit if the support-blorbfilename is the same (raw files
// don't contain metadata which might have changed).
if (
(file_is_zblorb == false)
&&
(
( (entry->blorbfile == NULL) && (blorb_filename != NULL) )
// || (Don't delete blorb file)
// ( (blorb_filename == NULL) && (entry->blorbfile != NULL) )
||
(
(entry->blorbfile != NULL)
&&
(blorb_filename != NULL)
&&
(strcmp(blorb_filename, entry->blorbfile) == 0)
)
)
)
{
if (cwd != NULL)
{
free(cwd);
free(abs_filename);
}
return -3;
}
//printf("%ld / %ld\n", storyfile_timestamp, entry->storyfile_timestamp);
// In case new file is a zblorb and we have save a raw file, remove the
// raw and keep the blorb (so we can get images and sound). We'll also
// re-read the file contents if the file has changed (metadata might
// have been altered).
if (
(strcmp(entry->filetype, filetype_raw) == 0)
||
(storyfile_timestamp > entry->storyfile_timestamp)
)
{
remove_entry_from_list(story_list, entry);
//printf("%s...\n", abs_filename);
}
else
{
if (cwd != NULL)
{
free(cwd);
free(abs_filename);
}
return -4;
}
}
ptr2 = NULL;
if ((b_info = get_babel_story_info(
release, serial, checksum, babel, file_is_zblorb)) != NULL)
{
title = (b_info->title == NULL ? empty_string : b_info->title);
author = (b_info->author == NULL ? empty_string : b_info->author);
language = (b_info->language == NULL ? empty_string : b_info->language);
description
= (b_info->description != NULL)
? b_info->description
: empty_string;
}
else
{
if ((title = strrchr(abs_filename, '/')) == NULL)
title = abs_filename;
else
title++;
if ((ptr = strrchr(title, '.')) != NULL)
{
TRACE_LOG("strdup: %s\n", title);
ptr2 = fizmo_strdup(title);
ptr = strrchr(ptr2, '.');
if ( ( (strlen(ptr) == 3) && (ptr[1] == 'z') && (isdigit(ptr[2]) != 0) )
||
(strcasecmp(ptr, ".dat") == 0)
||
(strcasecmp(ptr, ".zblorb") == 0)
)
*ptr = '\0';
*ptr2 = toupper(*ptr2);
title = ptr2;
}
author = empty_string;
language = empty_string;
description = empty_string;
}
add_entry_to_story_list(
story_list,
title,
author,
language,
description,
serial,
version,
length,
checksum,
release,
abs_filename,
file_is_zblorb ? NULL : blorb_filename,
file_is_zblorb ? filetype_zblorb : filetype_raw,
storyfile_timestamp);
if (b_info != NULL)
free_babel_story_info(b_info);
if (ptr2 != NULL)
free(ptr2);
if (file_babel != NULL)
free_babel_info(file_babel);
if (cwd != NULL)
{
free(cwd);
free(abs_filename);
}
return 0;
}