void wcache_invalidate_cache(void)
{
struct winbindd_domain *domain;
for (domain = domain_list(); domain; domain = domain->next) {
struct winbind_cache *cache = get_cache(domain);
DEBUG(10, ("wcache_invalidate_cache: invalidating cache "
"entries for %s\n", domain->name));
if (cache)
tdb_traverse(cache->tdb, traverse_fn, NULL);
}
}
CacheRef< CachedTexture > get_texture(string const &filename, bool pad, bool flip) {
string key = "texture:";
key += (pad?'1':'0');
key += (flip?'1':'0');
key += filename;
CacheRef< CachedTexture > ret(NULL);
CachedTexture *item = (CachedTexture *)get_cache().get_item(key);
if (!item) {
item = new CachedTexture(filename, pad, flip);
if (!item->loaded) {
cerr << "Texture loading failed for " << filename << "." << endl;
delete item;
return ret;
}
get_cache().add_item(key, item);
}
if (item->id != TEXTURE_ID) {
cerr << "Item with key '" << key << "' isn't a texture." << endl;
return ret;
}
ret.set(item);
return ret;
}
static void refresh_sequence_number(struct winbindd_domain *domain, BOOL force)
{
NTSTATUS status;
unsigned time_diff;
time_t t = time(NULL);
unsigned cache_time = lp_winbind_cache_time();
get_cache( domain );
#if 0 /* JERRY -- disable as the default cache time is now 5 minutes */
/* trying to reconnect is expensive, don't do it too often */
if (domain->sequence_number == DOM_SEQUENCE_NONE) {
cache_time *= 8;
}
#endif
time_diff = t - domain->last_seq_check;
/* see if we have to refetch the domain sequence number */
if (!force && (time_diff < cache_time)) {
DEBUG(10, ("refresh_sequence_number: %s time ok\n", domain->name));
goto done;
}
/* try to get the sequence number from the tdb cache first */
/* this will update the timestamp as well */
status = fetch_cache_seqnum( domain, t );
if ( NT_STATUS_IS_OK(status) )
goto done;
status = domain->backend->sequence_number(domain, &domain->sequence_number);
if (!NT_STATUS_IS_OK(status)) {
domain->sequence_number = DOM_SEQUENCE_NONE;
}
domain->last_status = status;
domain->last_seq_check = time(NULL);
/* save the new sequence number ni the cache */
store_cache_seqnum( domain );
done:
DEBUG(10, ("refresh_sequence_number: %s seq number is now %d\n",
domain->name, domain->sequence_number));
return;
}
CacheRef< CachedFont > get_font(string name)
{
string key = "font:" + name;
CacheRef< CachedFont > ret(NULL);
CachedFont *item = (CachedFont *)get_cache().get_item(key);
if (!item)
{
TexFont *font = txfLoadFont(name.c_str());
if (font == NULL)
{
cerr << "Error loading font '" << name << "'." << endl;
return ret;
}
item = new CachedFont(font);
get_cache().add_item(key, item);
}
if (item->id != FONT_ID)
{
cerr << "Item with key '" << key << "' isn't a font." << endl;
return ret;
}
ret.set(item);
return ret;
}
/* enumerate trusted domains */
static NTSTATUS trusted_domains(struct winbindd_domain *domain,
TALLOC_CTX *mem_ctx,
uint32 *num_domains,
char ***names,
char ***alt_names,
DOM_SID **dom_sids)
{
get_cache(domain);
DEBUG(10,("trusted_domains: [Cached] - doing backend query for info for domain %s\n",
domain->name ));
/* we don't cache this call */
return domain->backend->trusted_domains(domain, mem_ctx, num_domains,
names, alt_names, dom_sids);
}
struct directory *init_directory(struct node *node){
struct cache *cache = get_cache(node);
struct directory *dir;
if (!cache->directory){
dir = NULL;
return dir;
}
dir = malloc(sizeof(struct directory));
dir->nb_sons = get_nb_sons(node);
struct cache **caches = malloc(dir->nb_sons * sizeof(struct cache *));
int current = 0;
assign_sons(dir, node, caches, ¤t);
dir->sons_caches = caches;
return dir;
}
/*
* Find a entry in the specified dir with name _dname_.
*/
static const struct iso_dir_entry *
iso_find_entry(const char *dname, struct inode *inode)
{
struct fs_info *fs = inode->fs;
block_t dir_block = PVT(inode)->lba;
int i = 0, offset = 0;
const char *de_name;
int de_name_len, de_len;
const struct iso_dir_entry *de;
const char *data = NULL;
dprintf("iso_find_entry: \"%s\"\n", dname);
while (1) {
if (!data) {
dprintf("Getting block %d from block %llu\n", i, dir_block);
if (++i > inode->blocks)
return NULL; /* End of directory */
data = get_cache(fs->fs_dev, dir_block++);
offset = 0;
}
de = (const struct iso_dir_entry *)(data + offset);
de_len = de->length;
offset += de_len;
/* Make sure we have a full directory entry */
if (de_len < 33 || offset > BLOCK_SIZE(fs)) {
/*
* Zero = end of sector, or corrupt directory entry
*
* ECMA-119:1987 6.8.1.1: "Each Directory Record shall end
* in the Logical Sector in which it begins.
*/
data = NULL;
continue;
}
de_name_len = de->name_len;
de_name = de->name;
if (iso_compare_name(de_name, de_name_len, dname)) {
dprintf("Found.\n");
return de;
}
}
}
url
get_from_web (url name) {
if (!is_rooted_web (name)) return url_none ();
url res= get_cache (name);
if (!is_none (res)) return res;
#ifdef OS_WIN32
string urlString = as_string (name);
url tmp = url_temp();
if (starts (urlString, "www."))
urlString = "http://" * urlString;
else if (starts (urlString, "ftp."))
urlString = "ftp://" * urlString;
else if (starts (urlString, "ftp://"))
urlPath = NULL;
else if (starts (urlString, "http://"))
urlPath = NULL;
else
urlString = "http://" * urlString;
urlString= web_encode (urlString);
c_string urlPath (urlString);
c_string tempFilePath (as_string (tmp));
if(!URL_Get(urlPath, tempFilePath))
return url_none();
else return set_cache (name, tmp);
#else
string test= var_eval_system ("which wget");
if (!ends (test, "wget")) return url_none ();
url tmp= url_temp ();
string tmp_s= escape_sh (concretize (tmp));
string cmd= "wget --header='User-Agent: TeXmacs-" TEXMACS_VERSION "' -q";
cmd << " -O " << tmp_s << " " << escape_sh (web_encode (as_string (name)));
// cout << cmd << "\n";
system (cmd);
// cout << "got " << name << " as " << tmp << "\n";
if (var_eval_system ("cat " * tmp_s * " 2> /dev/null") == "") {
remove (tmp);
return url_none ();
}
else return set_cache (name, tmp);
#endif
}
caddr_t
get_bcache(fileid_t *fp)
{
/*
* Search Disk Block Cache:
*
* This should be getting pretty monotonous by now. Aren't generalized
* subroutines ("objects", if you prefer) great?
*/
cache_t *bcp;
x_len = fp->fi_count;
x_blkno = fp->fi_blocknum;
x_dev = fp->fi_devp->di_dcookie;
bcp = get_cache(bc_hash[BC_HASH(x_dev, x_blkno, x_len)], &bc_head);
return (bcp ? (caddr_t)bcp->data : 0);
}
void *
get_icache(int dev, int inum)
{
/*
* Search File Cache:
*
* This routine searches the file cache looking for the entry bound to
* the given "dev"ice and file number ["inum"]. If said entry exists,
* it returns the address of the associated file structure. Otherwise
* it returns null.
*/
cache_t *icp;
x_dev = dev;
x_inode = inum;
icp = get_cache(ic_hash[IC_HASH(dev, inum)], &ic_head);
return (icp ? (caddr_t)icp->data : 0);
}
/* create(Cache :: atom(), MaxSize :: integer(), MinQ1Size :: integer()) */
static ERL_NIF_TERM
create(ErlNifEnv *env, int argc, const ERL_NIF_TERM argv[])
{
ERL_NIF_TERM atom;
ErlNifUInt64 max_size, min_q1_size;
struct cache *c;
if (!enif_is_atom(env, argv[0]))
return enif_make_badarg(env);
atom = argv[0];
if (!enif_get_uint64(env, argv[1], &max_size))
return enif_make_badarg(env);
if (!enif_get_uint64(env, argv[2], &min_q1_size))
return enif_make_badarg(env);
if ((c = get_cache(atom))) {
ERL_NIF_TERM ret = enif_make_atom(env, "already_exists");
enif_consume_timeslice(env, 5);
enif_rwlock_rwlock(c->cache_lock);
/* expansion is safe because we don't have to engage the background
thread and won't cause sudden eviction pressure
TODO: a nice way to shrink the cache without seizing it up */
if (c->max_size < max_size && c->min_q1_size < min_q1_size) {
c->max_size = max_size;
c->min_q1_size = min_q1_size;
enif_rwlock_rwunlock(c->cache_lock);
ret = enif_make_atom(env, "ok");
enif_consume_timeslice(env, 10);
} else {
enif_rwlock_rwunlock(c->cache_lock);
}
return ret;
} else {
c = new_cache(atom, max_size, min_q1_size);
enif_consume_timeslice(env, 20);
return enif_make_atom(env, "ok");
}
}
static int bee_dep_conflicts(int argc, char *argv[])
{
int c, opt_count, help;
struct hash *graph;
struct option long_options[] = {
{"help", 0, &help, 1},
{0, 0, 0, 0}
};
help = opt_count = 0;
while ((c = getopt_long(argc, argv, "", long_options, NULL)) != -1) {
switch (c) {
case '?':
usage_conflicts();
return 1;
default:
opt_count++;
}
}
if (help) {
usage_conflicts();
return 0;
}
if (optind < argc) {
fprintf(stderr, "bee-dep: too many arguments\n");
return 1;
}
graph = get_cache();
if (print_conflicts(graph)) {
hash_free(graph);
return 1;
}
hash_free(graph);
return 0;
}
int
get_dcache(int dev, char *name, int pnum)
{
/*
* Search Directory Cache:
*
* This routine searches the directory cache for an entry
* associated with directory number "pnum" from the given
* file system that de-scribes a file of the given "name".
* If we find such an entry, we return the corresponding file
* number, 0 otherwise.
*/
dc_t *dcp;
x_dev = dev;
x_len = strlen(name)+1;
x_pnum = pnum;
x_name = name;
dcp = (dc_t *)get_cache(dc_hash[DC_HASH(dev, name, x_len)], &dc_head);
return (dcp ? dcp->dc_inum : 0);
}
void* pref_main (void* arg) {
int thread_id = *((int*)arg);
free(arg);
while (1) {
char guess[MAX_REQUEST]; // Buffer for guessed filename
int size = 0;
void* item = queue_consume( &prefetch_queue );
// this happens only if queue_consume_all() was called and no items remain.
if( item == (void*)-1 ) {
printf( "Prefetcher exiting.\n" );
pthread_exit( (void*)NULL );
}
request_t* req = (request_t*)item;
if (nextguess(req->filename, guess) != 0) {
fprintf(stderr, "Prefetcher failed to get next guess\n");
fprintf(stderr, " --filename: %s\n", req->filename );
fprintf(stderr, " --guess: %s\n", guess );
} else {
// try to get the cache entry for the guess. if it isn't there
// then put it there.
char* data;
if (get_cache(guess, &data) == -1) {
size = get_file_data(guess, &data);
put_cache(guess, data, size);
}
}
// free request created by dispatch.
free( req->filename );
free( req );
}
}
static int
get_lang_stemmer(term_t t, struct sb_stemmer **stemmer)
{ stem_cache *cache = get_cache();
atom_t lang;
int i;
if ( !PL_get_atom(t, &lang) )
return type_error("atom", t);
for(i=0; i<CACHE_SIZE; i++)
{ if ( cache->stemmers[i].language == lang )
{ *stemmer = cache->stemmers[i].stemmer;
return TRUE;
}
}
for(i=0; i<CACHE_SIZE; i++)
{ if ( !cache->stemmers[i].stemmer )
{ struct sb_stemmer *st;
if ( !(st= sb_stemmer_new(PL_atom_chars(lang), NULL)) )
{ if ( errno == ENOMEM )
return resource_error("memory");
else
return domain_error("snowball_algorithm", t);
}
cache->stemmers[i].language = lang;
cache->stemmers[i].stemmer = st;
PL_register_atom(cache->stemmers[i].language);
*stemmer = cache->stemmers[i].stemmer;
return TRUE;
}
}
assert(0); /* TBD: clean cache */
return FALSE;
}
void map::apply_directional_light( const tripoint &p, int direction, float luminance )
{
const int x = p.x;
const int y = p.y;
auto &cache = get_cache( p.z );
float (&lm)[MAPSIZE*SEEX][MAPSIZE*SEEY] = cache.lm;
float (&transparency_cache)[MAPSIZE*SEEX][MAPSIZE*SEEY] = cache.transparency_cache;
if( direction == 90 ) {
castLight<1, 0, 0, -1, light_calc, light_check>( lm, transparency_cache, x, y, 0, luminance );
castLight<-1, 0, 0, -1, light_calc, light_check>( lm, transparency_cache, x, y, 0, luminance );
} else if( direction == 0 ) {
castLight<0, -1, 1, 0, light_calc, light_check>( lm, transparency_cache, x, y, 0, luminance );
castLight<0, -1, -1, 0, light_calc, light_check>( lm, transparency_cache, x, y, 0, luminance );
} else if( direction == 270 ) {
castLight<1, 0, 0, 1, light_calc, light_check>( lm, transparency_cache, x, y, 0, luminance );
castLight<-1, 0, 0, 1, light_calc, light_check>( lm, transparency_cache, x, y, 0, luminance );
} else if( direction == 180 ) {
castLight<0, 1, 1, 0, light_calc, light_check>( lm, transparency_cache, x, y, 0, luminance );
castLight<0, 1, -1, 0, light_calc, light_check>( lm, transparency_cache, x, y, 0, luminance );
}
}
url
get_from_server (url u) {
if (!is_rooted_tmfs (u)) return url_none ();
url res= get_cache (u);
if (!is_none (res)) return res;
string name= as_string (u);
if (ends (name, "~") || ends (name, "#")) {
if (!is_rooted_tmfs (name)) return url_none ();
if (!as_bool (call ("tmfs-can-autosave?", unglue (u, 1))))
return url_none ();
}
string r= as_string (call ("tmfs-load", object (name)));
if (r == "") return url_none ();
url tmp= url_temp ();
(void) save_string (tmp, r, true);
//return set_cache (u, tmp);
return tmp;
// FIXME: certain files could be cached, but others not
// for instance, files which are loaded in a delayed fashion
// would always be cached as empty files, which is erroneous.
}
static const struct ext2_inode *
ext2_get_inode(struct fs_info *fs, int inr)
{
const struct ext2_group_desc *desc;
const char *data;
uint32_t inode_group, inode_offset;
uint32_t block_num, block_off;
inr--;
inode_group = inr / EXT2_INODES_PER_GROUP(fs);
inode_offset = inr % EXT2_INODES_PER_GROUP(fs);
desc = ext2_get_group_desc(fs, inode_group);
if (!desc)
return NULL;
block_num = desc->bg_inode_table +
inode_offset / EXT2_INODES_PER_BLOCK(fs);
block_off = inode_offset % EXT2_INODES_PER_BLOCK(fs);
data = get_cache(fs->fs_dev, block_num);
return (const struct ext2_inode *)
(data + block_off * EXT2_SB(fs)->s_inode_size);
}
/*
* get the group's descriptor of group_num
*/
static const struct ext2_group_desc *
ext2_get_group_desc(struct fs_info *fs, uint32_t group_num)
{
struct ext2_sb_info *sbi = EXT2_SB(fs);
uint32_t desc_block, desc_index;
const struct ext2_group_desc *desc_data_block;
if (group_num >= sbi->s_groups_count) {
printf ("ext2_get_group_desc"
"block_group >= groups_count - "
"block_group = %d, groups_count = %d",
group_num, sbi->s_groups_count);
return NULL;
}
desc_block = group_num / sbi->s_desc_per_block;
desc_index = group_num % sbi->s_desc_per_block;
desc_block += sbi->s_first_data_block + 1;
desc_data_block = get_cache(fs->fs_dev, desc_block);
return &desc_data_block[desc_index];
}
*/
/**
* \file coherence.c
* \brief Initialize SMC structure, link from SMC to C.
* \author ~ahonorat
* \version 1.7
* \date 16th march 2014
*
*/
#include "coherence.h"
void coherence_up_stat(struct coherence *this, struct node *node, unsigned long entry, int stats_type){
struct cache *cache = get_cache(node);
up_stat(cache, entry, stats_type);
}
void coherence_invalid_line(struct coherence *this, struct line *line) {
line->status = I;
}
void coherence_modify_line(struct coherence *this, struct line *line) {
line->status = M;
line->dirty = 1;
}
void coherence_share_line(struct coherence *this, struct line *line) {
line->status = S;
int vpbp_dread(SceUID fd, SceIoDirent * dir)
{
int result, cur_idx, ret;
struct IoDirentEntry *entry;
lock();
entry = dirent_search(fd);
if(entry == NULL) {
result = -44;
goto exit;
}
result = sceIoDread(entry->iso_dfd, dir);
if(sceKernelFindModuleByName("Game_Categories_Light") == NULL) {
while(result > 0 && !is_iso(dir)) {
result = sceIoDread(entry->iso_dfd, dir);
}
}
if (result > 0 && is_iso(dir)) {
VirtualPBP *vpbp;
vpbp = vpbp_realloc(g_vpbps, g_vpbps_cnt+1);
if(vpbp == NULL) {
result = -42;
goto exit;
}
g_vpbps = vpbp;
g_vpbps_cnt++;
cur_idx = g_vpbps_cnt-1;
vpbp = &g_vpbps[cur_idx];
STRCPY_S(vpbp->name, entry->path);
vpbp->name[4] = '\0';
STRCAT_S(vpbp->name, "/ISO");
STRCAT_S(vpbp->name, entry->path + sizeof("xxx:/PSP/GAME") - 1);
STRCAT_S(vpbp->name, "/");
STRCAT_S(vpbp->name, dir->d_name);
memcpy(&vpbp->ctime, &dir->d_stat.st_ctime, sizeof(vpbp->ctime));
memcpy(&vpbp->mtime, &dir->d_stat.st_mtime, sizeof(vpbp->mtime));
ret = get_cache(vpbp->name, &vpbp->mtime, vpbp);
if (ret < 0) {
ret = build_vpbp(vpbp);
if (ret < 0) {
result = -43;
goto exit;
}
}
result = add_fake_dirent(dir, cur_idx);
}
exit:
unlock();
return result;
}
static ERL_NIF_TERM
put(ErlNifEnv *env, int argc, const ERL_NIF_TERM argv[])
{
ERL_NIF_TERM atom;
ErlNifBinary kbin, vbin;
struct cache *c;
struct cache_node *n, *ng;
ErlNifUInt64 lifetime = 0;
if (!enif_is_atom(env, argv[0]))
return enif_make_badarg(env);
atom = argv[0];
if (!enif_inspect_binary(env, argv[1], &kbin))
return enif_make_badarg(env);
if (!enif_inspect_binary(env, argv[2], &vbin))
return enif_make_badarg(env);
if ((c = get_cache(atom))) {
enif_consume_timeslice(env, 1);
} else {
/* if we've been asked to put() in to a cache that doesn't exist yet
then we should create it! */
ErlNifUInt64 max_size, min_q1_size;
if (!enif_get_uint64(env, argv[3], &max_size))
return enif_make_badarg(env);
if (!enif_get_uint64(env, argv[4], &min_q1_size))
return enif_make_badarg(env);
c = new_cache(atom, max_size, min_q1_size);
enif_consume_timeslice(env, 20);
}
if (argc > 5)
if (!enif_get_uint64(env, argv[5], &lifetime))
return enif_make_badarg(env);
n = enif_alloc(sizeof(*n));
memset(n, 0, sizeof(*n));
n->c = c;
n->vsize = vbin.size;
n->ksize = kbin.size;
n->size = vbin.size + kbin.size;
n->key = enif_alloc(kbin.size);
memcpy(n->key, kbin.data, kbin.size);
n->val = enif_alloc_resource(value_type, vbin.size);
memcpy(n->val, vbin.data, vbin.size);
n->q = &(c->q1);
if (lifetime) {
clock_now(&(n->expiry));
n->expiry.tv_sec += lifetime;
}
enif_rwlock_rwlock(c->cache_lock);
enif_rwlock_rwlock(c->lookup_lock);
HASH_FIND(hh, c->lookup, kbin.data, kbin.size, ng);
if (ng) {
enif_mutex_lock(c->ctrl_lock);
destroy_cache_node(ng);
enif_mutex_unlock(c->ctrl_lock);
}
TAILQ_INSERT_HEAD(&(c->q1.head), n, entry);
c->q1.size += n->size;
HASH_ADD_KEYPTR(hh, c->lookup, n->key, n->ksize, n);
if (lifetime) {
struct cache_node *rn;
rn = RB_INSERT(expiry_tree, &(c->expiry_head), n);
/* it's possible to get two timestamps that are the same, if this happens
just bump us forwards by 1 usec until we're unique */
while (rn != NULL) {
++(n->expiry.tv_nsec);
rn = RB_INSERT(expiry_tree, &(c->expiry_head), n);
}
}
enif_rwlock_rwunlock(c->lookup_lock);
enif_rwlock_rwunlock(c->cache_lock);
enif_cond_broadcast(c->check_cond);
enif_consume_timeslice(env, 50);
return enif_make_atom(env, "ok");
}
static ERL_NIF_TERM
get(ErlNifEnv *env, int argc, const ERL_NIF_TERM argv[])
{
ERL_NIF_TERM atom;
ErlNifBinary kbin;
struct cache *c;
struct cache_node *n;
struct cache_incr_node *in;
struct timespec now;
int incrqs, hashv, bkt;
ERL_NIF_TERM ret;
ErlNifTid tid;
if (!enif_is_atom(env, argv[0]))
return enif_make_badarg(env);
atom = argv[0];
if (!enif_inspect_binary(env, argv[1], &kbin))
return enif_make_badarg(env);
if ((c = get_cache(atom))) {
enif_rwlock_rlock(c->lookup_lock);
HASH_FIND(hh, c->lookup, kbin.data, kbin.size, n);
if (!n) {
enif_rwlock_runlock(c->lookup_lock);
__sync_add_and_fetch(&c->miss, 1);
enif_consume_timeslice(env, 10);
return enif_make_atom(env, "notfound");
}
if (n->expiry.tv_sec != 0) {
clock_now(&now);
if (n->expiry.tv_sec < now.tv_sec) {
enif_rwlock_runlock(c->lookup_lock);
__sync_add_and_fetch(&c->miss, 1);
enif_consume_timeslice(env, 10);
return enif_make_atom(env, "notfound");
}
}
in = enif_alloc(sizeof(*in));
memset(in, 0, sizeof(*in));
in->node = n;
__sync_add_and_fetch(&c->hit, 1);
tid = enif_thread_self();
HASH_SFH(&tid, sizeof(ErlNifTid), N_INCR_BKT, hashv, bkt);
enif_mutex_lock(c->incr_lock[bkt]);
TAILQ_INSERT_TAIL(&(c->incr_head[bkt]), in, entry);
enif_mutex_unlock(c->incr_lock[bkt]);
incrqs = __sync_add_and_fetch(&(c->incr_count), 1);
ret = enif_make_resource_binary(env, n->val, n->val, n->vsize);
enif_rwlock_runlock(c->lookup_lock);
if (incrqs > 1024)
enif_cond_broadcast(c->check_cond);
enif_consume_timeslice(env, 20);
return ret;
}
return enif_make_atom(env, "notfound");
}
/*
* Map a logical sector and load it into the cache
*/
static const void *
ext2_get_cache(struct inode *inode, block_t lblock)
{
block_t pblock = ext2_bmap(inode, lblock, NULL);
return get_cache(inode->fs->fs_dev, pblock);
}
int AModule::import_samples(AEdit *edit,
int64_t start_project,
int64_t edit_startproject,
int64_t edit_startsource,
int direction,
int sample_rate,
Samples *buffer,
int64_t fragment_len)
{
int result = 0;
// start in EDL samplerate
int64_t start_source = start_project -
edit_startproject +
edit_startsource;
// fragment size adjusted for speed curve
int64_t speed_fragment_len = fragment_len;
// boundaries of input fragment required for speed curve
double max_position = 0;
double min_position = 0;
double speed_position = edit_startsource;
// position in source where speed curve starts reading
double speed_position1 = speed_position;
// position in source where speed curve finishes
double speed_position2 = speed_position;
// Need speed curve processing
int have_speed = 0;
// Temporary buffer for rendering speed curve
Samples *speed_buffer = buffer;
const int debug = 0;
if(debug) printf("AModule::import_samples %d edit=%p nested_edl=%p\n",
__LINE__,
edit,
nested_edl);
if(nested_edl && edit->channel >= nested_edl->session->audio_channels)
return 1;
if(debug) printf("AModule::import_samples %d\n", __LINE__);
this->channel = edit->channel;
if(debug) printf("AModule::import_samples %d speed_fragment_len=%ld\n",
__LINE__,
speed_fragment_len);
// apply speed curve to source position so the timeline agrees with the playback
if(track->has_speed())
{
// get speed adjusted position from start of edit.
FloatAuto *previous = 0;
FloatAuto *next = 0;
FloatAutos *speed_autos = (FloatAutos*)track->automation->autos[AUTOMATION_SPEED];
for(int64_t i = edit_startproject; i < start_project; i++)
{
double speed = speed_autos->get_value(i,
PLAY_FORWARD,
previous,
next);
speed_position += speed;
}
speed_position1 = speed_position;
// calculate boundaries of input fragment required for speed curve
max_position = speed_position;
min_position = speed_position;
for(int64_t i = start_project; i < start_project + fragment_len; i++)
{
double speed = speed_autos->get_value(i,
PLAY_FORWARD,
previous,
next);
speed_position += speed;
if(speed_position > max_position) max_position = speed_position;
if(speed_position < min_position) min_position = speed_position;
}
speed_position2 = speed_position;
if(speed_position2 < speed_position1)
{
max_position += 1.0;
// min_position -= 1.0;
speed_fragment_len = (int64_t)(max_position - min_position);
}
else
{
max_position += 1.0;
speed_fragment_len = (int64_t)(max_position - min_position);
}
printf("AModule::import_samples %d %f %f %f %f\n",
__LINE__,
min_position,
max_position,
speed_position1,
speed_position2);
// new start of source to read from file
start_source = (int64_t)min_position;
have_speed = 1;
// swap in the temp buffer
if(speed_temp && speed_temp->get_allocated() < speed_fragment_len)
{
delete speed_temp;
speed_temp = 0;
}
if(!speed_temp)
{
speed_temp = new Samples(speed_fragment_len);
}
speed_buffer = speed_temp;
}
if(speed_fragment_len == 0)
return 1;
// Source is a nested EDL
if(edit->nested_edl)
{
int command;
asset = 0;
if(direction == PLAY_REVERSE)
command = NORMAL_REWIND;
else
command = NORMAL_FWD;
if(debug) printf("AModule::import_samples %d\n", __LINE__);
if(!nested_edl || nested_edl->id != edit->nested_edl->id)
{
nested_edl = edit->nested_edl;
if(nested_renderengine)
{
delete nested_renderengine;
nested_renderengine = 0;
}
if(!nested_command)
{
nested_command = new TransportCommand;
}
if(!nested_renderengine)
{
nested_command->command = command;
nested_command->get_edl()->copy_all(nested_edl);
nested_command->change_type = CHANGE_ALL;
nested_command->realtime = renderengine->command->realtime;
nested_renderengine = new RenderEngine(0,
get_preferences(),
0,
renderengine ? renderengine->channeldb : 0,
1);
nested_renderengine->set_acache(get_cache());
// Must use a private cache for the audio
// if(!cache)
// {
// cache = new CICache(get_preferences());
// private_cache = 1;
// }
// nested_renderengine->set_acache(cache);
nested_renderengine->arm_command(nested_command);
}
}
if(debug) printf("AModule::import_samples %d speed_fragment_len=%d\n", __LINE__, (int)speed_fragment_len);
// Allocate output buffers for all channels
for(int i = 0; i < nested_edl->session->audio_channels; i++)
{
if(nested_allocation < speed_fragment_len)
{
delete nested_output[i];
nested_output[i] = 0;
}
if(!nested_output[i])
{
nested_output[i] = new Samples(speed_fragment_len);
}
}
if(debug) printf("AModule::import_samples %d\n", __LINE__);
if(nested_allocation < speed_fragment_len)
nested_allocation = speed_fragment_len;
// Update direction command
nested_renderengine->command->command = command;
// Render the segment
if(!nested_renderengine->arender)
{
bzero(speed_buffer->get_data(), speed_fragment_len * sizeof(double));
}
else
if(sample_rate != nested_edl->session->sample_rate)
{
// Read through sample rate converter.
if(!resample)
{
resample = new AModuleResample(this);
}
if(debug) printf("AModule::import_samples %d %d %d\n",
__LINE__,
(int)sample_rate,
(int)nested_edl->session->sample_rate);
result = resample->resample(speed_buffer,
speed_fragment_len,
nested_edl->session->sample_rate,
sample_rate,
start_source,
direction);
// Resample reverses to keep it running forward.
if(debug) printf("AModule::import_samples %d\n", __LINE__);
}
else
{
// Render without resampling
if(debug) printf("AModule::import_samples %d\n", __LINE__);
result = nested_renderengine->arender->process_buffer(
nested_output,
speed_fragment_len,
start_source);
if(debug) printf("AModule::import_samples %d\n", __LINE__);
memcpy(speed_buffer->get_data(),
nested_output[edit->channel]->get_data(),
speed_fragment_len * sizeof(double));
if(debug) printf("AModule::import_samples %d\n", __LINE__);
// Reverse fragment so ::render can apply transitions going forward.
if(direction == PLAY_REVERSE)
{
Resample::reverse_buffer(speed_buffer->get_data(), speed_fragment_len);
}
}
if(debug) printf("AModule::import_samples %d\n", __LINE__);
}
else
// Source is an asset
if(edit->asset)
{
nested_edl = 0;
if(debug) printf("AModule::import_samples %d\n", __LINE__);
asset = edit->asset;
if(debug) printf("AModule::import_samples %d\n", __LINE__);
get_cache()->age();
if(debug) printf("AModule::import_samples %d\n", __LINE__);
if(nested_renderengine)
{
delete nested_renderengine;
nested_renderengine = 0;
}
if(debug) printf("AModule::import_samples %d\n", __LINE__);
if(!(file = get_cache()->check_out(
asset,
get_edl())))
{
// couldn't open source file / skip the edit
printf(_("AModule::import_samples Couldn't open %s.\n"), asset->path);
result = 1;
}
else
{
result = 0;
if(sample_rate != asset->sample_rate)
{
// Read through sample rate converter.
if(!resample)
{
resample = new AModuleResample(this);
}
if(debug) printf("AModule::import_samples %d %d %d\n",
__LINE__,
sample_rate,
asset->sample_rate);
result = resample->resample(speed_buffer,
speed_fragment_len,
asset->sample_rate,
sample_rate,
start_source,
direction);
// Resample reverses to keep it running forward.
}
else
{
if(debug)
printf("AModule::import_samples %d channel=%d start_source=%ld len=%d\n", __LINE__, edit->channel, start_source, (int)speed_fragment_len);
file->set_audio_position(start_source);
file->set_channel(edit->channel);
result = file->read_samples(speed_buffer, speed_fragment_len);
// Reverse fragment so ::render can apply transitions going forward.
if(debug) printf("AModule::import_samples %d speed_buffer=%p data=%p speed_fragment_len=%d\n",
__LINE__,
(void*)speed_buffer,
(void*)speed_buffer->get_data(),
(int)speed_fragment_len);
if(direction == PLAY_REVERSE)
{
Resample::reverse_buffer(speed_buffer->get_data(), speed_fragment_len);
}
if(debug) printf("AModule::import_samples %d\n", __LINE__);
}
if(debug) printf("AModule::import_samples %d\n", __LINE__);
get_cache()->check_in(asset);
if(debug) printf("AModule::import_samples %d\n", __LINE__);
file = 0;
}
}
else
{
nested_edl = 0;
asset = 0;
if(debug) printf("AModule::import_samples %d %p %d\n", __LINE__, speed_buffer->get_data(), (int)speed_fragment_len);
if(speed_fragment_len > 0) bzero(speed_buffer->get_data(), speed_fragment_len * sizeof(double));
if(debug) printf("AModule::import_samples %d\n", __LINE__);
}
if(debug) printf("AModule::import_samples %d\n", __LINE__);
// Stretch it to fit the speed curve
// Need overlapping buffers to get the interpolation to work, but this
// screws up sequential effects.
if(have_speed)
{
FloatAuto *previous = 0;
FloatAuto *next = 0;
FloatAutos *speed_autos = (FloatAutos*)track->automation->autos[AUTOMATION_SPEED];
double *buffer_samples = buffer->get_data();
double *speed_samples = speed_buffer->get_data();
//printf("AModule::import_samples %d %lld\n", __LINE__, speed_fragment_len);
if(speed_fragment_len == 0)
{
bzero(buffer_samples, fragment_len * sizeof(double));
bzero(prev_tail, SPEED_OVERLAP * sizeof(double));
bzero(prev_head, SPEED_OVERLAP * sizeof(double));
}
else
{
// buffer is now reversed
if(direction == PLAY_REVERSE)
{
int out_offset = 0;
speed_position = speed_position2;
//printf("AModule::import_samples %d %lld %lld\n", __LINE__, start_project, speed_fragment_len);
for(int64_t i = start_project + fragment_len;
i != start_project;
i--)
{
// funky sample reordering, because the source is a reversed buffer
int in_offset = (int64_t)(speed_fragment_len - 1 - speed_position);
CLAMP(in_offset, 0, speed_fragment_len - 1);
buffer_samples[out_offset++] = speed_samples[in_offset];
double speed = speed_autos->get_value(i,
PLAY_REVERSE,
previous,
next);
speed_position -= speed;
}
//printf("AModule::import_samples %d %f\n", __LINE__, speed_position);
}
else
{
int out_offset = 0;
// position in buffer to read
speed_position = speed_position1 - start_source;
//printf("AModule::import_samples %d %f\n", __LINE__, speed_position);
for(int64_t i = start_project; i < start_project + fragment_len; i++)
{
double speed = speed_autos->get_value(i,
PLAY_FORWARD,
previous,
next);
double next_speed_position = speed_position + speed;
int in_offset = (int)(speed_position);
if(fabs(speed) >= 1.0)
{
int total = abs(speed);
double accum = 0;
for(int j = 0; j < total; j++)
{
int in_offset2 = in_offset + (speed > 0 ? j : -j);
CLAMP(in_offset2, 0, speed_fragment_len - 1);
accum += speed_samples[in_offset2];
}
buffer_samples[out_offset++] = accum / total;
}
else
{
// if(in_offset < 0 || in_offset >= speed_fragment_len)
// printf("AModule::import_samples %d %d %d\n",
// __LINE__,
// in_offset,
// speed_fragment_len);
int in_offset1 = in_offset;
int in_offset2 = in_offset;
if(speed < 0)
{
in_offset1 += SPEED_OVERLAP;
in_offset2 = in_offset1 - 1;
}
else
{
in_offset1 -= SPEED_OVERLAP;
in_offset2 = in_offset1 + 1;
}
CLAMP(in_offset1, -SPEED_OVERLAP, speed_fragment_len - 1 + SPEED_OVERLAP);
CLAMP(in_offset2, -SPEED_OVERLAP, speed_fragment_len - 1 + SPEED_OVERLAP);
double value1 = 0;
if(in_offset1 >= speed_fragment_len)
{
value1 = prev_head[in_offset1 - speed_fragment_len];
}
else
if(in_offset1 >= 0)
{
value1 = speed_samples[in_offset1];
}
else
{
//printf("AModule::import_samples %d %d\n", __LINE__, in_offset1);
value1 = prev_tail[SPEED_OVERLAP + in_offset1];
}
#if 0
double value2 = 0;
if(in_offset2 >= speed_fragment_len)
{
value2 = prev_head[in_offset2 - speed_fragment_len];
}
else
if(in_offset2 >= 0)
{
value2 = speed_samples()[in_offset2];
}
else
{
value2 = prev_tail[SPEED_OVERLAP + in_offset2];
}
double fraction = speed_position - floor(speed_position);
buffer_samples[out_offset++] =
value1 * (1.0 - fraction) +
value2 * fraction;
#endif
buffer_samples[out_offset++] = value1;
}
speed_position = next_speed_position;
}
}
for(int i = 0; i < SPEED_OVERLAP; i++)
{
int offset = speed_fragment_len -
SPEED_OVERLAP +
i;
CLAMP(offset, 0, speed_fragment_len - 1);
//printf("AModule::import_samples %d %d\n", __LINE__, offset, );
prev_tail[i] = speed_samples[offset];
offset = i;
CLAMP(offset, 0, speed_fragment_len - 1);
prev_head[i] = speed_samples[offset];
}
}
}
return result;
}
/*
* Create an external variant from our internal representation
*/
static Variant
make_variant(VariantInt vi, FunctionCallInfo fcinfo, IOFuncSelector func)
{
VariantCache *cache;
Variant v;
bool oid_overflow=OID_TOO_LARGE(vi->typid);
long variant_length, data_length; /* long because we subtract */
Pointer data_ptr = 0;
uint flags = 0;
cache = get_cache(fcinfo, vi, func);
Assert(cache->typid = vi->typid);
#ifdef VARIANT_TEST_OID
vi->typid += OID_MASK;
oid_overflow=OID_TOO_LARGE(vi->typid);
#endif
if(vi->isnull)
{
flags |= VAR_ISNULL;
data_length = 0;
}
else if(cache->typlen == -1) /* varlena */
{
/*
* Short varlena is OK, but we need to make sure it's not external. It's OK
* to leave compressed varlena's alone too, but detoast_packed will
* uncompress them. We'll just follow rangetype.c's lead here.
*/
vi->data = PointerGetDatum( PG_DETOAST_DATUM_PACKED(vi->data) );
data_ptr = DatumGetPointer(vi->data);
/*
* Because we don't store varlena aligned or with it's header, our
* data_length is simply the varlena length.
*/
data_length = VARSIZE_ANY_EXHDR(vi->data);
data_ptr = VARDATA_ANY(data_ptr);
}
else if(cache->typlen == -2) /* cstring */
{
data_length = strlen(DatumGetCString(vi->data)); /* We don't store NUL terminator */
data_ptr = DatumGetPointer(vi->data);
}
else
{
Assert(cache->typlen >= 0);
if(cache->typbyval)
{
data_length = VHDRSZ; /* Start with header size to make sure alignment is correct */
data_length = (long) VDATAPTR_ALIGN(data_length, cache->typalign);
data_length += cache->typlen;
data_length -= VHDRSZ;
}
else /* fixed length, pass by reference */
{
data_length = cache->typlen;
data_ptr = DatumGetPointer(vi->data);
}
}
/* If typid is too large then we need an extra byte */
variant_length = VHDRSZ + data_length + (oid_overflow ? sizeof(char) : 0);
if( variant_length < 0 )
elog(ERROR, "Negative variant_length %li", variant_length);
v = palloc0(variant_length);
SET_VARSIZE(v, variant_length);
v->pOid = vi->typid;
v->typmod = vi->typmod;
if(oid_overflow)
{
flags |= VAR_OVERFLOW;
/* Reset high pOid byte to zero */
v->pOid &= 0x00FFFFFF;
/* Store high byte of OID at the end of our structure */
*((char *) v + VARSIZE(v) - 1) = vi->typid >> 24;
}
/*
* Be careful not to overwrite the valid OID data
*/
v->pOid |= flags;
Assert( get_oid(v, &flags) == vi->typid );
if(!vi->isnull)
{
if(cache->typbyval)
{
Pointer p = VDATAPTR_ALIGN(v, cache->typalign);
store_att_byval(p, vi->data, cache->typlen);
}
else
memcpy(VDATAPTR(v), data_ptr, data_length);
}
return v;
}
/*
* make_variant_int: Converts our external (Variant) representation to a VariantInt.
*/
static VariantInt
make_variant_int(Variant v, FunctionCallInfo fcinfo, IOFuncSelector func)
{
VariantCache *cache;
VariantInt vi;
long data_length; /* long instead of size_t because we're subtracting */
Pointer ptr;
uint flags;
/* Ensure v is fully detoasted */
Assert(!VARATT_IS_EXTENDED(v));
/* May need to be careful about what context this stuff is palloc'd in */
vi = palloc0(sizeof(VariantDataInt));
vi->typid = get_oid(v, &flags);
#ifdef VARIANT_TEST_OID
vi->typid -= OID_MASK;
#endif
vi->typmod = v->typmod;
vi->isnull = (flags & VAR_ISNULL ? true : false);
cache = get_cache(fcinfo, vi, func);
/*
* by-value type. We do special things with all pass-by-reference when we
* store, so we only use this for typbyval even though fetch_att supports
* pass-by-reference.
*
* Note that fetch_att sanity-checks typlen for us (because we're only passing typbyval).
*/
if(cache->typbyval)
{
if(!vi->isnull)
{
Pointer p = VDATAPTR_ALIGN(v, cache->typalign);
vi->data = fetch_att(p, cache->typbyval, cache->typlen);
}
return vi;
}
/* we don't store a varlena header for varlena data; instead we compute
* it's size based on ours:
*
* Our size - our header size - overflow byte (if present)
*
* For cstring, we don't store the trailing NUL
*/
data_length = VARSIZE(v) - VHDRSZ - (flags & VAR_OVERFLOW ? 1 : 0);
if( data_length < 0 )
elog(ERROR, "Negative data_length %li", data_length);
if (cache->typlen == -1) /* varlena */
{
ptr = palloc0(data_length + VARHDRSZ);
SET_VARSIZE(ptr, data_length + VARHDRSZ);
memcpy(VARDATA(ptr), VDATAPTR(v), data_length);
}
else if(cache->typlen == -2) /* cstring */
{
ptr = palloc(data_length + 1); /* Need space for NUL terminator */
memcpy(ptr, VDATAPTR(v), data_length);
*(ptr + data_length + 1) = '\0';
}
else /* Fixed size, pass by reference */
{
if(vi->isnull)
{
vi->data = (Datum) 0;
return vi;
}
Assert(data_length == cache->typlen);
ptr = palloc0(data_length);
Assert(ptr == (char *) att_align_nominal(ptr, cache->typalign));
memcpy(ptr, VDATAPTR(v), data_length);
}
vi->data = PointerGetDatum(ptr);
return vi;
}
void component_synchronizer<false, F>::rebuild_density(const size_t index) const {
for (auto f : get_cache().fixtures_per_collider[index])
f->SetDensity(component.colliders[index].density * component.colliders[index].density_multiplier);
get_cache().fixtures_per_collider[0][0]->GetBody()->ResetMassData();
}
static int bee_dep_list(int argc, char *argv[])
{
int c, i, opt_count, help, files, packages, count,
depending_on, required_by, removable, provider_of,
not_cached, broken;
struct hash *graph;
char *name;
struct option long_options[] = {
{"help", 0, &help, 1},
{"files", 0, &files, 1},
{"packages", 0, &packages, 1},
{"count", 0, &count, 1},
{"depending-on", 0, &depending_on, 1},
{"required-by", 0, &required_by, 1},
{"removable", 0, &removable, 1},
{"provider-of", 0, &provider_of, 1},
{"not-cached", 0, ¬_cached, 1},
{"broken", 0, &broken, 1},
{0, 0, 0, 0}
};
opt_count = help = files = packages = provider_of =
count = depending_on = required_by = removable = not_cached =
broken = 0;
while ((c = getopt_long(argc, argv, "", long_options, NULL)) != -1) {
switch (c) {
case '?':
usage_list();
return 1;
default:
opt_count++;
}
}
if (help) {
usage_list();
return 0;
}
if (!opt_count && optind != argc) {
fprintf(stderr, "bee-dep: too many arguments\n");
return 1;
}
if (!opt_count)
packages = 1;
if (opt_count > 1 && !count) {
fprintf(stderr, "bee-dep: too many options specified\n");
return 1;
}
if (packages) {
graph = get_cache();
if (count)
printf("%d\n", count_packages(graph));
else
list_packages(graph);
hash_free(graph);
return 0;
}
if (broken && optind < argc) {
fprintf(stderr, "bee-dep: too many arguments\n");
return 1;
}
if (optind == argc && !broken) {
fprintf(stderr, "bee-dep: arguments needed\n");
return 1;
}
if (count && (depending_on || required_by))
fprintf(stderr, "bee-dep: ignoring option --count\n");
graph = get_cache();
for (i = optind; i < argc; i++) {
name = argv[i];
if (optind < argc - 1)
printf("%s:\n", name);
if (files) {
if (count) {
c = count_files(graph, name);
if (c < 0) {
hash_free(graph);
return 1;
}
printf("%d\n", c);
} else if (list_files(graph, name)) {
hash_free(graph);
return 1;
}
}
if (removable) {
if (count) {
c = count_removable(graph, name);
if (c < 0) {
hash_free(graph);
return 1;
}
printf("%d\n", c);
} else if (print_removable(graph, name)) {
hash_free(graph);
return 1;
}
}
if (depending_on && print_neededby(graph, name)) {
hash_free(graph);
return 1;
}
if (required_by && print_needs(graph, name)) {
hash_free(graph);
return 1;
}
if (provider_of) {
if (count) {
c = count_providers(graph, name);
if (c < 0) {
hash_free(graph);
return 1;
}
printf("%d\n", c);
} else if (print_providers(graph, name)) {
hash_free(graph);
return 1;
}
}
if (not_cached) {
c = print_not_cached(graph, name, !count);
if (c < 0) {
hash_free(graph);
return 1;
}
if (count)
printf("%d\n", c);
}
}
if (broken) {
c = print_broken(graph, !count);
if (c < 0) {
hash_free(graph);
return 1;
}
if (count)
printf("%d\n", c);
}
hash_free(graph);
return 0;
}
static int bee_dep_update(int argc, char *argv[])
{
int c, help;
char *pkg;
char path[PATH_MAX + 1];
struct hash *graph;
struct stat st;
struct option long_options[] = {
{"help", 0, &help, 1},
{0, 0, 0, 0}
};
help = 0;
while ((c = getopt_long(argc, argv, "", long_options, NULL)) != -1) {
switch (c) {
case '?':
usage_update();
return 1;
}
}
if (help) {
usage_update();
return 0;
}
if (argc == 1) {
graph = get_cache();
if (update_cache(graph) || save_cache(graph, cache_filename())) {
hash_free(graph);
return 1;
}
hash_free(graph);
return 0;
}
if (argc < 2) {
fprintf(stderr, "bee-dep: pkgname needed\n");
return 1;
}
if (argc > 2) {
fprintf(stderr, "bee-dep: too many arguments\n");
return 1;
}
pkg = argv[1];
if (sprintf(path, "%s/%s/DEPENDENCIES", bee_metadir(), pkg) < 0) {
perror("bee-dep: sprintf");
return 1;
}
graph = get_cache();
if (stat(path, &st) != -1) {
if (hash_search(graph, pkg)) {
hash_free(graph);
return 0;
}
if (graph_insert_nodes(graph, path)) {
hash_free(graph);
return 1;
}
} else {
if (remove_package(graph, pkg)) {
hash_free(graph);
return 1;
}
}
if (save_cache(graph, cache_filename())) {
hash_free(graph);
return 1;
}
hash_free(graph);
return 0;
}
