/*扫描模块的定义*/
void module_parse_def(int * pos)
{
TokenInfo t_k;
token_Get(pos,&t_k);
/*更新模块名*/
set_context(t_k.content);
token_Get(pos,&t_k);
int brace=-1;
/*第二遍扫描,扫描所有函数以及类的定义*/
{
do
{
token_Get(pos,&t_k);
switch(t_k.type)
{
case TOKEN_TYPE_EOF:
break;
/*发现函数的定义符号,定义函数*/
case TOKEN_TYPE_FUNC_DEF:
func_ParseDef(pos);
break;
case TOKEN_TYPE_USING:
module_parse_using(pos);
break;
/*发现类的定义*/
case TOKEN_TYPE_STRUCT:
struct_ParseDefine(pos);/*解析类*/
break;
case TOKEN_TYPE_LEFT_BRACE:
brace--;
break;
case TOKEN_TYPE_RIGHT_BRACE:
brace++;
if(brace==0)
{
t_k.type=TOKEN_TYPE_EOF;
}
break;
default :
printf("the token %d is unknown %s\n",t_k.type,t_k.content);
printf("error !!\n");
exit(0);
break;
}
}
while(t_k.type!=TOKEN_TYPE_EOF);
}
/*将当前模块重置为全局*/
set_context("\0");
}
static int vdadec_decode(AVCodecContext *avctx,
void *data, int *got_frame, AVPacket *avpkt)
{
VDADecoderContext *ctx = avctx->priv_data;
AVFrame *pic = data;
int ret;
set_context(avctx);
ret = ff_h264_decoder.decode(avctx, data, got_frame, avpkt);
restore_context(avctx);
if (*got_frame) {
AVBufferRef *buffer = pic->buf[0];
VDABufferContext *context = av_buffer_get_opaque(buffer);
CVPixelBufferRef cv_buffer = (CVPixelBufferRef)pic->data[3];
CVPixelBufferRetain(cv_buffer);
CVPixelBufferLockBaseAddress(cv_buffer, 0);
context->cv_buffer = cv_buffer;
pic->format = ctx->pix_fmt;
if (CVPixelBufferIsPlanar(cv_buffer)) {
int i, count = CVPixelBufferGetPlaneCount(cv_buffer);
av_assert0(count < 4);
for (i = 0; i < count; i++) {
pic->data[i] = CVPixelBufferGetBaseAddressOfPlane(cv_buffer, i);
pic->linesize[i] = CVPixelBufferGetBytesPerRowOfPlane(cv_buffer, i);
}
} else {
pic->data[0] = CVPixelBufferGetBaseAddress(cv_buffer);
pic->linesize[0] = CVPixelBufferGetBytesPerRow(cv_buffer);
}
}
avctx->pix_fmt = ctx->pix_fmt;
return ret;
}
int lib$show_timer (void * handle_address, int * code, int (*user_action_procedure)(), unsigned long user_argument_value) {
long * context = handle_address;
int status;
long * mycontext = 0;
if (*context == -1)
mycontext = &timer_context[0];
if (*context == 0)
mycontext = *context = malloc (5 * sizeof(long));
long new_context[5];
memset (&new_context[0], 0, 5 * sizeof(long));
set_context(&new_context[0]);
char c[256];
sprintf(c, "ELAPSED: %d CPU: %d BUFIO: %d DIRIO: %d FAULTS: %d", new_context[0]-mycontext[0], new_context[0]-mycontext[0], new_context[1]-mycontext[1], new_context[2]-mycontext[2], new_context[3]-mycontext[3], new_context[4]-mycontext[4]); // pretty-print later
struct dsc$descriptor d;
struct dsc$descriptor * out_str = &d;
out_str->dsc$a_pointer = c;
out_str->dsc$w_length = strlen(c);
if (user_action_procedure)
user_action_procedure (out_str, user_argument_value);
else
printf("%s\n", out_str->dsc$a_pointer);
return SS$_NORMAL;
}
/*扫描模块*/
void module_parse_declare(int * pos)
{
TokenInfo t_k;
token_Get(pos,&t_k);
/*更新模块名*/
set_context(t_k.content);
/*跳过左边的花括号*/
token_Get(pos,&t_k);
int brace=-1;
{
/*扫描模块内部的声明*/
do
{
token_Get(pos,&t_k);
switch(t_k.type)
{
case TOKEN_TYPE_EOF:
break;
case TOKEN_TYPE_LEFT_BRACE:
brace--;
break;
case TOKEN_TYPE_RIGHT_BRACE:
brace++;
if(brace==0)
{
t_k.type=TOKEN_TYPE_EOF;
}
break;
/*发现函数的定义符号,声明函数*/
case TOKEN_TYPE_FUNC_DEF:
func_ParseDeclare(pos);
break;
/*发现类的定义，声明类*/
case TOKEN_TYPE_STRUCT:
struct_ParseDeclare(pos);
token_SkipBlock(pos);/*略过类定义块*/
break;
default :
break;
}
}
while(t_k.type!=TOKEN_TYPE_EOF);
}
/*将当前模块重置为全局*/
set_context("\0");
}
/*!
\brief Constructor.
\param[in] Name String containing the name of the Plugin.
\param[in] DeleteMode PluginDeletModeEnum specifying the delete mode to be used for the
Plugin.
\param[in] context Pointer to the runtime context.
\param[in] lib Pointer to the DynamicLibrary used to load the Plugin.
*/
dmz::PluginInfo::PluginInfo (
const String &Name,
const PluginDeleteModeEnum DeleteMode,
RuntimeContext *context,
DynamicLibrary *lib) : _state (*(new State (Name, DeleteMode, context))) {
set_context (context);
set_dynamic_library (lib);
}
int lib$init_timer (long * context) {
long * mycontext = 0;
if (*context == -1)
mycontext = &timer_context[0];
if (*context == 0)
mycontext = *context = malloc (5 * sizeof(long));
memset (mycontext, 0, 5 * sizeof(long));
set_context (mycontext);
return SS$_NORMAL;
}
int main (int argc, char * argv[])
{
//#define CHECK_CDROM 1
#ifdef CHECK_CDROM
SDL_Init(SDL_INIT_CDROM);
std::cout << SDL_CDNumDrives() << " CD- / DVD-ROM drives available." << std::endl;
for (int i = 0; i < SDL_CDNumDrives(); i++ )
{
std::cout << i << ". " << SDL_CDName(i) << std::endl;
}
#else
SDL_Init(0);
#endif
while (!app_exit)
{
SDL_InitSubSystem(SDL_INIT_VIDEO);
SDL_Surface * screen;
screen = NULL;
set_context(screen,
context_config[0], // w
context_config[1], // h
context_config[2], // fullscreen
context_config[3], // framebuffer size
context_config[4], // multisamples
context_config[5], // multisample buffer
context_config[6], // bpp
context_config[7] // depthbuffer size
);
Application app;
app.initialize(context_config);
if (argc > 1)
{
app.load_scene(scene_config, argv[1]);
}
else
{
app.load_scene(scene_config, "testFile.bullet");
}
app.run(&app_exit);
app.close_scene();
app.close();
SDL_FreeSurface(screen);
screen = NULL;
SDL_QuitSubSystem(SDL_INIT_VIDEO);
}
SDL_Quit();
std::cout << "main() quit" << std::endl;
return 0;
}
static int set_context_from_socket( const struct service_config *scp, int fd )
{
security_context_t curr_context = NULL;
security_context_t peer_context = NULL;
security_context_t exec_context = NULL;
context_t bcon = NULL;
context_t pcon = NULL;
security_context_t new_context = NULL;
security_context_t new_exec_context = NULL;
int retval = -1;
const char *exepath = NULL;
if (getcon(&curr_context) < 0)
goto fail;
if (getpeercon(fd, &peer_context) < 0)
goto fail;
exepath = SC_SERVER_ARGV( scp )[0];
if (getfilecon(exepath, &exec_context) < 0)
goto fail;
if (!(bcon = context_new(curr_context)))
goto fail;
if (!(pcon = context_new(peer_context)))
goto fail;
if (!context_range_get(pcon))
goto fail;
if (context_range_set(bcon, context_range_get(pcon)))
goto fail;
if (!(new_context = context_str(bcon)))
goto fail;
if (security_compute_create(new_context, exec_context, SECCLASS_PROCESS,
&new_exec_context) < 0)
goto fail;
retval = set_context(new_exec_context);
freecon(new_exec_context);
fail:
context_free(pcon);
context_free(bcon);
freecon(exec_context);
freecon(peer_context);
freecon(curr_context);
return retval;
}
void test_gzip()
{
std::cout << "- Page Gzip" << std::endl;
set_context(true);
cache().clear();
TEST(request().getenv("HTTP_ACCEPT_ENCODING") == "gzip, deflate");
cache().fetch_page("test");
response().out() << "gzip";
cache().store_page("test");
TEST(str().substr(0,2)=="\x1f\x8b");
TEST(gzip_);
set_context(false);
TEST(request().getenv("HTTP_ACCEPT_ENCODING") == "");
TEST(cache_size() == 1);
TEST(cache().fetch_page("test") ==false);
response().out() << "gzip";
cache().store_page("test");
TEST(str() == "gzip");
TEST(!gzip_);
set_context(false);
TEST(cache().fetch_page("test"));
TEST(str()=="gzip");
TEST(!gzip_);
set_context(true);
TEST(cache().fetch_page("test"));
TEST(str().substr(0,2)=="\x1f\x8b");
TEST(gzip_);
set_context(false);
TEST(cache_size()==2);
cache().clear();
TEST(cache_size()==0);
release_context();
}
static av_cold int vdadec_close(AVCodecContext *avctx)
{
VDADecoderContext *ctx = avctx->priv_data;
/* release buffers and decoder */
ff_vda_destroy_decoder(&ctx->vda_ctx);
/* close H.264 decoder */
if (ctx->h264_initialized) {
set_context(avctx);
ff_h264_decoder.close(avctx);
restore_context(avctx);
}
return 0;
}
int acl_init(char *x509, char *addr, uint16_t port)
{
journal_ftrace(__func__);
acl_x509 = strdup(x509);
set_context(acl_x509);
acl_addr = strdup(addr);
acl_port = port;
event_register(EVENT_EXIT, "acl_fini", acl_fini, PRIO_AGNOSTIC);
return 0;
}
void test_basic()
{
std::cout << "- Page Basic" << std::endl;
set_context(false);
TEST(cache().has_cache());
TEST(!cache().fetch_page("test"));
response().out() << "test";
cache().add_trigger("x");
cache().store_page("test");
TEST(str()=="test");
set_context(false);
TEST(cache_size()==1);
TEST(cache().fetch_page("test"));
TEST(str()=="test");
set_context(false);
cache().rise("x");
TEST(cache_size() == 0);
TEST(!cache().fetch_page("test"));
cache().add_trigger("x");
response().out() << "test2";
cache().reset(); // reset works
cache().store_page("test",2);
TEST(str()=="test2");
set_context(false);
cache().rise("x");
TEST(cache_size() == 1);
TEST(cache().fetch_page("test"));
TEST(str() == "test2");
booster::ptime::millisleep(3000);
set_context(false);
TEST(cache().fetch_page("test")==false);
cache().clear();
release_context();
}
void Planet::init() {
set_context(&worker_);
// build application methods
// /.inspect
adopt(new TMethod<Planet, &Planet::inspect>(this, Url(INSPECT_URL).name(), StringIO("url", "Returns some information on the state of a node.")));
// /class
classes_ = adopt(new ClassFinder(Url(CLASS_URL).name(), DEFAULT_OBJECTS_LIB_PATH));
// /rubyk
Object *rubyk = adopt(new Object(Url(RUBYK_URL).name()));
// /rubyk/link [[["","source url"],["", "target url"]], "Create a link between two urls."]
rubyk->adopt(new TMethod<Planet, &Planet::link>(this, Url(LINK_URL).name(), JsonValue("[['','', ''],'url','op','url','Update a link between the two provided urls. Operations are '=>' (link) '||' (unlink) or '?' (pending).']")));
// /rubyk/quit
rubyk->adopt(new TMethod<Planet, &Planet::quit>(this, Url(QUIT_URL).name(), NilIO("Stop all operations and quit.")));
}
int bridge_init(char *x509, char *addr, uint16_t port)
{
journal_ftrace(__func__);
bridge_x509 = strdup(x509);
bridge_addr = strdup(addr);
bridge_port = port;
if (set_context(bridge_x509)) {
journal_notice("bridge]> set_context failed :: %s:%i\n", __FILE__, __LINE__);
return -1;
}
event_register(EVENT_EXIT, "bridge_fini", bridge_fini, PRIO_AGNOSTIC);
return 0;
}
enum thing layer_to_board_object_type(struct world *mzx_world)
{
int dialog_result;
struct element *elements[3];
struct dialog di;
int object_type = 0;
const char *radio_button_strings[] =
{
"Custom Block",
"Custom Floor",
"Text"
};
// Prevent previous keys from carrying through.
force_release_all_keys();
set_context(CTX_BLOCK_TYPE);
elements[0] = construct_radio_button(6, 4, radio_button_strings,
3, 12, &object_type);
elements[1] = construct_button(5, 11, "OK", 0);
elements[2] = construct_button(15, 11, "Cancel", -1);
construct_dialog(&di, "Object type", 26, 4, 28, 14,
elements, 3, 0);
dialog_result = run_dialog(mzx_world, &di);
destruct_dialog(&di);
pop_context();
// Prevent UI keys from carrying through.
force_release_all_keys();
if(dialog_result)
return NO_ID;
switch(object_type)
{
case 0: return CUSTOM_BLOCK;
case 1: return CUSTOM_FLOOR;
case 2: return __TEXT;
}
return NO_ID;
}
int lib$stat_timer (int * code, long * value_argument, void * handle_address) {
long * context = handle_address;
int status;
long * mycontext = 0;
if (*context == -1)
mycontext = &timer_context[0];
if (*context == 0)
mycontext = *context = malloc (5 * sizeof(long));
long new_context[5];
memset (&new_context[0], 0, 5 * sizeof(long));
set_context(&new_context[0]);
*value_argument = new_context[*code - 1];
return SS$_NORMAL;
}
Audio :: Audio()
{
auto l = lock();
//alutInit(0, NULL);
alutInitWithoutContext(0, NULL);
m_pDevice = alcOpenDevice(NULL);
if(not m_pDevice)
throw std::runtime_error("failed to open OpenAL audio device");
m_pContext = alcCreateContext(m_pDevice, NULL);
if(not m_pContext)
alcCloseDevice(m_pDevice);
try {
set_context();
} catch(...) {
alcDestroyContext(m_pContext);
alcCloseDevice(m_pDevice);
throw;
}
}
void switch_mm(struct mm_struct *prev, struct mm_struct *next,
struct task_struct *tsk)
{
unsigned long flags;
local_irq_save(flags);
/* If the process context we are swapping in has a different context
* generation then we have it should get a new generation/pid */
if (unlikely(CTX_VERSION(next->context) !=
CTX_VERSION(next_mmu_context)))
next->context = get_new_context();
/* Save the current pgd so the fast tlb handler can find it */
pgd_current = next->pgd;
/* Set the current context */
set_context(next->context);
local_irq_restore(flags);
}
PortImpl::PortImpl(BufferFactory& bufs,
NodeImpl* const node,
const Raul::Symbol& name,
uint32_t index,
uint32_t poly,
PortType type,
const Atom& value,
size_t buffer_size)
: GraphObjectImpl(bufs.uris(), node, name)
, _bufs(bufs)
, _index(index)
, _poly(poly)
, _buffer_size(buffer_size)
, _buffer_type(type)
, _value(value)
, _broadcast(false)
, _set_by_user(false)
, _last_broadcasted_value(value)
, _context(Context::AUDIO)
, _buffers(new Array<BufferFactory::Ref>(static_cast<size_t>(poly)))
, _prepared_buffers(NULL)
{
_types.insert(type);
assert(node != NULL);
assert(_poly > 0);
if (_buffer_size == 0)
_buffer_size = bufs.default_buffer_size(type);
const Ingen::Shared::LV2URIMap& uris = bufs.uris();
add_property(uris.rdf_type, type.uri());
set_property(uris.lv2_index, Atom((int32_t)index));
set_context(_context);
if (type == PortType::EVENTS)
_broadcast = true; // send activity blips
}
image_node_renderer_t::image_node_renderer_t( const context_t& new_context) : render_done_( false)
{
set_context( new_context);
}
static void __check_for_updates(struct world *mzx_world, struct config_info *conf)
{
int cur_host;
char *update_host;
bool try_next_host = true;
bool ret = false;
set_context(CTX_UPDATER);
if(conf->update_host_count < 1)
{
error("No updater hosts defined! Aborting.", 1, 8, 0);
goto err_out;
}
if(!swivel_current_dir(true))
goto err_out;
for(cur_host = 0; (cur_host < conf->update_host_count) && try_next_host; cur_host++)
{
char **list_entries, buffer[LINE_BUF_LEN], *url_base, *value;
struct manifest_entry *removed, *replaced, *added, *e;
int i = 0, entries = 0, buf_len, result;
char update_branch[LINE_BUF_LEN];
const char *version = VERSION;
int list_entry_width = 0;
enum host_status status;
struct host *h = NULL;
unsigned int retries;
FILE *f;
// Acid test: Can we write to this directory?
f = fopen_unsafe(UPDATES_TXT, "w+b");
if(!f)
{
error("Failed to create \"" UPDATES_TXT "\". Check permissions.", 1, 8, 0);
goto err_chdir;
}
update_host = conf->update_hosts[cur_host];
if(!reissue_connection(conf, &h, update_host))
goto err_host_destroy;
for(retries = 0; retries < MAX_RETRIES; retries++)
{
// Grab the file containing the names of the current Stable and Unstable
status = host_recv_file(h, "/" UPDATES_TXT, f, "text/plain");
rewind(f);
if(status == HOST_SUCCESS)
break;
if(!reissue_connection(conf, &h, update_host))
goto err_host_destroy;
}
if(retries == MAX_RETRIES)
{
snprintf(widget_buf, WIDGET_BUF_LEN, "Failed to download \""
UPDATES_TXT "\" (err=%d).\n", status);
widget_buf[WIDGET_BUF_LEN - 1] = 0;
error(widget_buf, 1, 8, 0);
goto err_host_destroy;
}
snprintf(update_branch, LINE_BUF_LEN, "Current-%s",
conf->update_branch_pin);
// Walk this list (of two, hopefully)
while(true)
{
char *m = buffer, *key;
value = NULL;
// Grab a single line from the manifest
if(!fgets(buffer, LINE_BUF_LEN, f))
break;
key = strsep(&m, ":\n");
if(!key)
break;
value = strsep(&m, ":\n");
if(!value)
break;
if(strcmp(key, update_branch) == 0)
break;
}
fclose(f);
unlink(UPDATES_TXT);
/* There was no "Current-XXX: Version" found; we cannot proceed with the
* update because we cannot compute an update URL below.
*/
if(!value)
{
error("Failed to identify applicable update version.", 1, 8, 0);
goto err_host_destroy;
}
/* There's likely to be a space prepended to the version number.
* Skip it here.
*/
if(value[0] == ' ')
value++;
/* We found the latest update version, but we should check to see if that
* matches the version we're already using. The user may choose to receive
* "stability" updates for their current major version, or upgrade to the
* newest one.
*/
if(strcmp(value, version) != 0)
{
struct element *elements[6];
struct dialog di;
buf_len = snprintf(widget_buf, WIDGET_BUF_LEN,
"A new major version is available (%s)", value);
widget_buf[WIDGET_BUF_LEN - 1] = 0;
elements[0] = construct_label((55 - buf_len) >> 1, 2, widget_buf);
elements[1] = construct_label(2, 4,
"You can continue to receive updates for the version\n"
"installed (if available), or you can upgrade to the\n"
"newest major version (recommended).");
elements[2] = construct_label(2, 8,
"If you do not upgrade, this question will be asked\n"
"again the next time you run the updater.\n");
elements[3] = construct_button(9, 11, "Upgrade", 0);
elements[4] = construct_button(21, 11, "Update Old", 1);
elements[5] = construct_button(36, 11, "Cancel", 2);
construct_dialog(&di, "New Major Version", 11, 6, 55, 14, elements, 6, 3);
result = run_dialog(mzx_world, &di);
destruct_dialog(&di);
// User pressed Escape, abort all updates
if(result < 0 || result == 2)
{
try_next_host = false;
goto err_host_destroy;
}
// User pressed Upgrade, use new major
if(result == 0)
version = value;
}
/* We can now compute a unique URL base for the updater. This will
* be composed of a user-selected version and a static platform-archicture
* name.
*/
url_base = cmalloc(LINE_BUF_LEN);
snprintf(url_base, LINE_BUF_LEN, "/%s/" PLATFORM, version);
debug("Update base URL: %s\n", url_base);
/* The call to manifest_get_updates() destroys any existing manifest
* file in this directory. Since we still allow user to abort after
* this call, and downloading the updates may fail, we copy the
* old manifest to a backup location and optionally restore it later.
*/
if(!backup_original_manifest())
{
error("Failed to back up manifest. Check permissions.", 1, 8, 0);
try_next_host = false;
goto err_free_url_base;
}
for(retries = 0; retries < MAX_RETRIES; retries++)
{
bool m_ret;
m_hide();
draw_window_box(3, 11, 76, 13, DI_MAIN, DI_DARK, DI_CORNER, 1, 1);
write_string("Computing manifest deltas (added, replaced, deleted)..",
13, 12, DI_TEXT, 0);
update_screen();
m_ret = manifest_get_updates(h, url_base, &removed, &replaced, &added);
clear_screen(32, 7);
m_show();
update_screen();
if(m_ret)
break;
if(!reissue_connection(conf, &h, update_host))
goto err_roll_back_manifest;
}
if(retries == MAX_RETRIES)
{
error("Failed to compute update manifests", 1, 8, 0);
goto err_roll_back_manifest;
}
// At this point, we have a successful manifest, so we won't need another host
try_next_host = false;
if(!removed && !replaced && !added)
{
struct element *elements[3];
struct dialog di;
elements[0] = construct_label(2, 2, "This client is already current.");
elements[1] = construct_button(7, 4, "OK", 0);
elements[2] = construct_button(13, 4, "Try next host", 1);
construct_dialog(&di, "No Updates", 22, 9, 35, 6, elements, 3, 1);
result = run_dialog(mzx_world, &di);
destruct_dialog(&di);
if((result == 1) && (cur_host < conf->update_host_count))
try_next_host = true;
goto err_free_update_manifests;
}
for(e = removed; e; e = e->next, entries++)
list_entry_width = MAX(list_entry_width, 2 + (int)strlen(e->name)+1+1);
for(e = replaced; e; e = e->next, entries++)
list_entry_width = MAX(list_entry_width, 2 + (int)strlen(e->name)+1+1);
for(e = added; e; e = e->next, entries++)
list_entry_width = MAX(list_entry_width, 2 + (int)strlen(e->name)+1+1);
// We don't want the listbox to be too wide
list_entry_width = MIN(list_entry_width, 60);
list_entries = cmalloc(entries * sizeof(char *));
for(e = removed; e; e = e->next, i++)
{
list_entries[i] = cmalloc(list_entry_width);
snprintf(list_entries[i], list_entry_width, "- %s", e->name);
list_entries[i][list_entry_width - 1] = 0;
}
for(e = replaced; e; e = e->next, i++)
{
list_entries[i] = cmalloc(list_entry_width);
snprintf(list_entries[i], list_entry_width, "* %s", e->name);
list_entries[i][list_entry_width - 1] = 0;
}
for(e = added; e; e = e->next, i++)
{
list_entries[i] = cmalloc(list_entry_width);
snprintf(list_entries[i], list_entry_width, "+ %s", e->name);
list_entries[i][list_entry_width - 1] = 0;
}
draw_window_box(19, 1, 59, 4, DI_MAIN, DI_DARK, DI_CORNER, 1, 1);
write_string(" Task Summary ", 33, 1, DI_TITLE, 0);
write_string("ESC - Cancel [+] Add [-] Delete", 21, 2, DI_TEXT, 0);
write_string("ENTER - Proceed [*] Replace ", 21, 3, DI_TEXT, 0);
result = list_menu((const char **)list_entries, list_entry_width,
NULL, 0, entries, ((80 - (list_entry_width + 9)) >> 1) + 1, 4);
for(i = 0; i < entries; i++)
free(list_entries[i]);
free(list_entries);
clear_screen(32, 7);
update_screen();
if(result < 0)
goto err_free_update_manifests;
/* Defer deletions until we restart; any of these files may still be
* in use by this (old) process. Reduce the number of entries by the
* number of removed items for the progress meter below.
*/
for(e = removed; e; e = e->next, entries--)
delete_hook(e->name);
/* Since the operations for adding and replacing a file are identical,
* we modify the replaced list and tack on the added list to the end.
*
* Either list may be NULL; in the case that `replaced' is NULL, simply
* re-assign the `added' pointer. `added' being NULL has no effect.
*
* Later, we need only free the replaced list (see below).
*/
if(replaced)
{
for(e = replaced; e->next; e = e->next)
;
e->next = added;
}
else
replaced = added;
cancel_update = false;
host_set_callbacks(h, NULL, recv_cb, cancel_cb);
i = 1;
for(e = replaced; e; e = e->next, i++)
{
for(retries = 0; retries < MAX_RETRIES; retries++)
{
char name[72];
bool m_ret;
if(!check_create_basedir(e->name))
goto err_free_delete_list;
final_size = (long)e->size;
m_hide();
snprintf(name, 72, "%s (%ldb) [%u/%u]", e->name, final_size, i, entries);
meter(name, 0, final_size);
update_screen();
m_ret = manifest_entry_download_replace(h, url_base, e, delete_hook);
clear_screen(32, 7);
m_show();
update_screen();
if(m_ret)
break;
if(cancel_update)
{
error("Download was cancelled; update aborted.", 1, 8, 0);
goto err_free_delete_list;
}
if(!reissue_connection(conf, &h, update_host))
goto err_free_delete_list;
host_set_callbacks(h, NULL, recv_cb, cancel_cb);
}
if(retries == MAX_RETRIES)
{
snprintf(widget_buf, WIDGET_BUF_LEN,
"Failed to download \"%s\" (after %d attempts).", e->name, retries);
widget_buf[WIDGET_BUF_LEN - 1] = 0;
error(widget_buf, 1, 8, 0);
goto err_free_delete_list;
}
}
if(delete_list)
{
f = fopen_unsafe(DELETE_TXT, "wb");
if(!f)
{
error("Failed to create \"" DELETE_TXT "\". Check permissions.", 1, 8, 0);
goto err_free_delete_list;
}
for(e = delete_list; e; e = e->next)
{
fprintf(f, "%08x%08x%08x%08x%08x%08x%08x%08x %lu %s\n",
e->sha256[0], e->sha256[1], e->sha256[2], e->sha256[3],
e->sha256[4], e->sha256[5], e->sha256[6], e->sha256[7],
e->size, e->name);
}
fclose(f);
}
try_next_host = false;
ret = true;
err_free_delete_list:
manifest_list_free(&delete_list);
delete_list = delete_p = NULL;
err_free_update_manifests:
manifest_list_free(&removed);
manifest_list_free(&replaced);
err_roll_back_manifest:
restore_original_manifest(ret);
err_free_url_base:
free(url_base);
err_host_destroy:
host_destroy(h);
pop_context();
} //end host for loop
err_chdir:
swivel_current_dir_back(true);
err_out:
/* At this point we found updates and we successfully updated
* to them. Reload the program with the original argv.
*/
if(ret)
{
const void *argv = process_argv;
struct element *elements[2];
struct dialog di;
elements[0] = construct_label(2, 2,
"This client will now attempt to restart itself.");
elements[1] = construct_button(23, 4, "OK", 0);
construct_dialog(&di, "Update Successful", 14, 9, 51, 6, elements, 2, 1);
run_dialog(mzx_world, &di);
destruct_dialog(&di);
execv(process_argv[0], argv);
perror("execv");
error("Attempt to invoke self failed!", 1, 8, 0);
return;
}
}
static void vdadec_flush(AVCodecContext *avctx)
{
set_context(avctx);
ff_h264_decoder.flush(avctx);
restore_context(avctx);
}
static void fill_context(struct boot_context *context, struct ofw_dev *ofwdev)
{
int ndx;
memset(context, 0, sizeof(*context));
set_context(initiatorname, "NAME", OBP_PARAM_ITNAME);
snprintf(context->mac, sizeof(context->mac),
"%02x:%02x:%02x:%02x:%02x:%02x",
ofwdev->mac[0], ofwdev->mac[1], ofwdev->mac[2],
ofwdev->mac[3], ofwdev->mac[4], ofwdev->mac[5]);
/*
* nic parameters
*/
for (ndx = 0; ndx < nic_count; ndx++) {
if (!strcmp(niclist[ndx], ofwdev->dev_path)) {
snprintf(context->iface, sizeof(context->iface),
"eth%d", ndx);
break;
}
}
set_context(ipaddr, "IPADDR", OBP_PARAM_CIADDR);
set_context(mask, "MASK", OBP_PARAM_SUBNET_MASK);
/*
* target parameters
*/
set_context(target_ipaddr, "IPADDR", OBP_PARAM_SIADDR);
set_int_context(target_port, "PORT", OBP_PARAM_IPORT);
set_context(lun, "LUN", OBP_PARAM_ILUN);
set_context(targetname, "NAME", OBP_PARAM_INAME);
set_context(isid, "ISID", OBP_PARAM_ISID);
/*
* chap stuff is always associated with the target
*/
set_context(chap_name, "CHAP_NAME", OBP_PARAM_ICHAPID);
set_context(chap_password, "CHAP_PASSWORD", OBP_PARAM_ICHAPPW);
set_context(chap_name_in, "CHAP_NAME_IN", OBP_PARAM_CHAPID);
set_context(chap_password_in, "CHAP_PASSWORD_IN", OBP_PARAM_CHAPPW);
}
void octree::load_kernels() {
if (!devContext_flag) set_context();
//If we arive here we have aquired a device, configure parts of the code
//Get the number of multiprocessors and compute number of
//blocks to be used during the tree-walk
nMultiProcessors = devContext.multiProcessorCount;
const int blocksPerSM = getTreeWalkBlocksPerSM(
this->getDevContext()->getComputeCapabilityMajor(),
this->getDevContext()->getComputeCapabilityMinor());
nBlocksForTreeWalk = nMultiProcessors*blocksPerSM;
std::string pathName;
//AMUSE specific
if(this->src_directory != NULL)
{
pathName.assign(this->src_directory);
}
else
{
//Strip the executable name, to get the path name
std::string temp(execPath);
int idx = (int)temp.find_last_of("/\\");
pathName.assign(temp.substr(0, idx+1));
}
// load scan & sort kernels
compactCount.setContext(devContext);
exScanBlock.setContext(devContext);
compactMove.setContext(devContext);
splitMove.setContext(devContext);
sortCount.setContext(devContext);
sortMove.setContext(devContext);
extractInt.setContext(devContext);
reOrderKeysValues.setContext(devContext);
convertKey64to96.setContext(devContext);
extractKeyAndPerm.setContext(devContext);
dataReorderR4.setContext(devContext);
dataReorderF2.setContext(devContext);
dataReorderI1.setContext(devContext);
dataReorderCombined.setContext(devContext);
#ifdef USE_CUDA
compactCount.load_source("./scanKernels.ptx", pathName.c_str());
compactCount.create("compact_count", (const void*)&compact_count);
exScanBlock.load_source("./scanKernels.ptx", pathName.c_str());
exScanBlock.create("exclusive_scan_block", (const void*)&exclusive_scan_block);
compactMove.load_source("./scanKernels.ptx", pathName.c_str());
compactMove.create("compact_move", (const void*)&compact_move);
splitMove.load_source("./scanKernels.ptx", pathName.c_str());
splitMove.create("split_move", (const void*)split_move);
sortCount.load_source("./sortKernels.ptx", pathName.c_str());
sortCount.create("sort_count", (const void*)sort_count);
sortMove.load_source("./sortKernels.ptx", pathName.c_str());
sortMove.create("sort_move_stage_key_value", (const void*)sort_move_stage_key_value);
extractInt.load_source("./sortKernels.ptx", pathName.c_str());
extractInt.create("extractInt", (const void*)extractInt_kernel);
reOrderKeysValues.load_source("./sortKernels.ptx", pathName.c_str());
reOrderKeysValues.create("reOrderKeysValues", (const void*)&reOrderKeysValues_kernel);
extractKeyAndPerm.load_source("./sortKernels.ptx", pathName.c_str());
extractKeyAndPerm.create("extractKeyAndPerm", (const void*)&gpu_extractKeyAndPerm);
convertKey64to96.load_source("./sortKernels.ptx", pathName.c_str());
convertKey64to96.create("convertKey64to96", (const void*)&gpu_convertKey64to96);
dataReorderR4.load_source("./sortKernels.ptx", pathName.c_str());
// dataReorderR4.create("dataReorderR4");
dataReorderR4.create("dataReorderCombined4", (const void*)&dataReorderCombined4);
dataReorderF2.load_source("./sortKernels.ptx", pathName.c_str());
dataReorderF2.create("dataReorderF2", (const void*)&gpu_dataReorderF2);
dataReorderI1.load_source("./sortKernels.ptx", pathName.c_str());
dataReorderI1.create("dataReorderI1", (const void*)&gpu_dataReorderI1);
dataReorderCombined.load_source("./sortKernels.ptx", pathName.c_str());
dataReorderCombined.create("dataReorderCombined", (const void*)&gpu_dataReorderCombined);
#else
compactCount.load_source("scanKernels.cl", "OpenCLKernels");
compactCount.create("compact_count");
exScanBlock.load_source("scanKernels.cl", "OpenCLKernels");
exScanBlock.create("exclusive_scan_block");
compactMove.load_source("scanKernels.cl", "OpenCLKernels");
compactMove.create("compact_move");
splitMove.load_source("scanKernels.cl", "OpenCLKernels");
splitMove.create("split_move");
#endif
// load tree-build kernels
/* set context */
build_key_list.setContext(devContext);
build_valid_list.setContext(devContext);
build_nodes.setContext(devContext);
link_tree.setContext(devContext);
define_groups.setContext(devContext);
build_level_list.setContext(devContext);
boundaryReduction.setContext(devContext);
boundaryReductionGroups.setContext(devContext);
build_body2group_list.setContext(devContext);
store_groups.setContext(devContext);
segmentedCoarseGroupBoundary.setContext(devContext);
/* load kernels tree properties */
#ifdef USE_CUDA
build_key_list.load_source("./build_tree.ptx", pathName.c_str());
build_valid_list.load_source("./build_tree.ptx", pathName.c_str());
build_nodes.load_source("./build_tree.ptx", pathName.c_str());
link_tree.load_source("./build_tree.ptx", pathName.c_str());
define_groups.load_source("./build_tree.ptx", pathName.c_str());
build_level_list.load_source("./build_tree.ptx", pathName.c_str());
boundaryReduction.load_source("./build_tree.ptx", pathName.c_str());
boundaryReductionGroups.load_source("./build_tree.ptx", pathName.c_str());
build_body2group_list.load_source("./build_tree.ptx", pathName.c_str());
store_groups.load_source("./build_tree.ptx", pathName.c_str());
segmentedCoarseGroupBoundary.load_source("./build_tree.ptx", pathName.c_str());
/* create kernels */
build_key_list.create("cl_build_key_list", (const void*)&cl_build_key_list);
build_valid_list.create("cl_build_valid_list", (const void*)&cl_build_valid_list);
build_nodes.create("cl_build_nodes", (const void*)&cl_build_nodes);
link_tree.create("cl_link_tree", (const void*)&cl_link_tree);
define_groups.create("build_group_list2", (const void*)&build_group_list2);
build_level_list.create("build_level_list", (const void*)&gpu_build_level_list);
boundaryReduction.create("boundaryReduction", (const void*)&gpu_boundaryReduction);
boundaryReductionGroups.create("boundaryReductionGroups", (const void*)&gpu_boundaryReductionGroups);
// build_body2group_list.create("build_body2group_list", (const void*)&gpu_build_body2group_list);
store_groups.create("store_group_list", (const void*)&store_group_list);
segmentedCoarseGroupBoundary.create("segmentedCoarseGroupBoundary", (const void*)&gpu_segmentedCoarseGroupBoundary);
#else
build_key_list.load_source("build_tree.cl", "");
build_valid_list.load_source("build_tree.cl", "");
build_nodes.load_source("build_tree.cl", "");
link_tree.load_source("build_tree.cl", "");
/* create kernels */
build_key_list.create("cl_build_key_list");
build_valid_list.create("cl_build_valid_list");
build_nodes.create("cl_build_nodes");
link_tree.create("cl_link_tree");
#endif
// load tree-props kernels
propsNonLeafD.setContext(devContext);
propsLeafD.setContext(devContext);
propsScalingD.setContext(devContext);
setPHGroupData.setContext(devContext);
setPHGroupDataGetKey.setContext(devContext);
setPHGroupDataGetKey2.setContext(devContext);
/* load kernels */
#ifdef USE_CUDA
propsNonLeafD.load_source("./compute_propertiesD.ptx", pathName.c_str(), "", -1);
propsLeafD.load_source("./compute_propertiesD.ptx", pathName.c_str(), "", -1);
propsScalingD.load_source("./compute_propertiesD.ptx", pathName.c_str(), "",-1);
setPHGroupData.load_source("./compute_propertiesD.ptx", pathName.c_str());
setPHGroupDataGetKey.load_source("./compute_propertiesD.ptx", pathName.c_str());
setPHGroupDataGetKey2.load_source("./compute_propertiesD.ptx", pathName.c_str());
/* create kernels */
propsNonLeafD.create("compute_non_leaf", (const void*)&compute_non_leaf);
propsLeafD.create("compute_leaf", (const void*)&compute_leaf);
propsScalingD.create("compute_scaling", (const void*)&compute_scaling);
setPHGroupData.create("setPHGroupData", (const void*)&gpu_setPHGroupData);
setPHGroupDataGetKey.create("setPHGroupDataGetKey", (const void*)&gpu_setPHGroupDataGetKey);
setPHGroupDataGetKey2.create("setPHGroupDataGetKey2", (const void*)&gpu_setPHGroupDataGetKey2);
#else
propsNonLeaf.load_source("compProps.cl", "");
propsLeaf.load_source("compProps.cl", "");
propsScaling.load_source("compProps.cl", "");
/* create kernels */
propsNonLeaf.create("compute_non_leaf");
propsLeaf.create("compute_leaf");
propsScaling.create("compute_scaling");
#endif
/* Tree iteration */
getTNext.setContext(devContext);
predictParticles.setContext(devContext);
getNActive.setContext(devContext);
approxGrav.setContext(devContext);
directGrav.setContext(devContext);
correctParticles.setContext(devContext);
computeDt.setContext(devContext);
computeEnergy.setContext(devContext);
setActiveGrps.setContext(devContext);
distanceCheck.setContext(devContext);
approxGravLET.setContext(devContext);
determineLET.setContext(devContext);
#ifdef USE_CUDA
getTNext.load_source("./timestep.ptx", pathName.c_str(), "", -1);
predictParticles.load_source("./timestep.ptx", pathName.c_str(), "", -1);
getNActive.load_source("./timestep.ptx", pathName.c_str(), "", -1);
approxGrav.load_source("./dev_approximate_gravity.ptx", pathName.c_str(), "", 64);
directGrav.load_source("./dev_direct_gravity.ptx", pathName.c_str(), "", 64);
correctParticles.load_source("./timestep.ptx", pathName.c_str(), "", -1);
computeDt.load_source("./timestep.ptx", pathName.c_str(), "", -1);
computeEnergy.load_source("./timestep.ptx", pathName.c_str(), "", -1);
setActiveGrps.load_source("./timestep.ptx", pathName.c_str(), "", -1);
distanceCheck.load_source("./timestep.ptx", pathName.c_str(), "", -1);
approxGravLET.load_source("./dev_approximate_gravity.ptx", pathName.c_str(), "", 64);
determineLET.load_source("./dev_approximate_gravity.ptx", pathName.c_str(), "", 64);
/* create kernels */
getTNext.create("get_Tnext", (const void*)&get_Tnext);
predictParticles.create("predict_particles", (const void*)&predict_particles);
getNActive.create("get_nactive", (const void*)&get_nactive);
approxGrav.create("dev_approximate_gravity", (const void*)&dev_approximate_gravity);
#ifdef KEPLER /* preferL1 equal egaburov */
cudaFuncSetCacheConfig((const void*)&dev_approximate_gravity, cudaFuncCachePreferL1);
cudaFuncSetCacheConfig((const void*)&dev_approximate_gravity_let, cudaFuncCachePreferL1);
#if 0
#if 1
cudaDeviceSetSharedMemConfig(cudaSharedMemBankSizeFourByte);
#else
cudaDeviceSetSharedMemConfig(cudaSharedMemBankSizeEightByte);
#endif
#endif
#endif
directGrav.create("dev_direct_gravity", (const void*)&dev_direct_gravity);
correctParticles.create("correct_particles", (const void*)&correct_particles);
computeDt.create("compute_dt", (const void*)&compute_dt);
setActiveGrps.create("setActiveGroups", (const void*)&setActiveGroups);
computeEnergy.create("compute_energy_double", (const void*)&compute_energy_double);
distanceCheck.create("distanceCheck", (const void*)&distanceCheck);
approxGravLET.create("dev_approximate_gravity_let", (const void*)&dev_approximate_gravity_let);
#if 0 /* egaburov, doesn't compile with this */
determineLET.create("dev_determineLET", (const void*)&dev_determineLET);
#endif
#else
getTNext.load_source("", "");
/* create kernels */
getTNext.create("");
#endif
//Parallel kernels
domainCheck.setContext(devContext);
extractSampleParticles.setContext(devContext);
extractOutOfDomainR4.setContext(devContext);
extractOutOfDomainBody.setContext(devContext);
insertNewParticles.setContext(devContext);
internalMove.setContext(devContext);
build_parallel_grps.setContext(devContext);
segmentedSummaryBasic.setContext(devContext);
domainCheckSFC.setContext(devContext);
internalMoveSFC.setContext(devContext);
internalMoveSFC2.setContext(devContext);
extractOutOfDomainParticlesAdvancedSFC.setContext(devContext);
extractOutOfDomainParticlesAdvancedSFC2.setContext(devContext);
insertNewParticlesSFC.setContext(devContext);
extractSampleParticlesSFC.setContext(devContext);
domainCheckSFCAndAssign.setContext(devContext);
#ifdef USE_CUDA
domainCheck.load_source("./parallel.ptx", pathName.c_str());
extractSampleParticles.load_source("./parallel.ptx", pathName.c_str());
extractOutOfDomainR4.load_source("./parallel.ptx", pathName.c_str());
extractOutOfDomainBody.load_source("./parallel.ptx", pathName.c_str());
insertNewParticles.load_source("./parallel.ptx", pathName.c_str());
internalMove.load_source("./parallel.ptx", pathName.c_str());
build_parallel_grps.load_source("./build_tree.ptx", pathName.c_str());
segmentedSummaryBasic.load_source("./build_tree.ptx", pathName.c_str());
domainCheckSFC.load_source("./parallel.ptx", pathName.c_str());
internalMoveSFC.load_source("./parallel.ptx", pathName.c_str());
internalMoveSFC2.load_source("./parallel.ptx", pathName.c_str());
extractOutOfDomainParticlesAdvancedSFC.load_source("./parallel.ptx", pathName.c_str());
extractOutOfDomainParticlesAdvancedSFC2.load_source("./parallel.ptx", pathName.c_str());
insertNewParticlesSFC.load_source("./parallel.ptx", pathName.c_str());
extractSampleParticlesSFC.load_source("./parallel.ptx", pathName.c_str());
domainCheckSFCAndAssign.load_source("./parallel.ptx", pathName.c_str());
domainCheck.create("doDomainCheck", (const void*)&doDomainCheck);
extractSampleParticles.create("extractSampleParticles", (const void*)&gpu_extractSampleParticles);
extractOutOfDomainR4.create("extractOutOfDomainParticlesR4", (const void*)&extractOutOfDomainParticlesR4);
extractOutOfDomainBody.create("extractOutOfDomainParticlesAdvanced", (const void*)&extractOutOfDomainParticlesAdvanced);
insertNewParticles.create("insertNewParticles", (const void*)&gpu_insertNewParticles);
internalMove.create("internalMove", (const void*)&gpu_internalMove);
extractSampleParticlesSFC.create("build_parallel_grps", (const void*)&gpu_extractSampleParticlesSFC);
build_parallel_grps.create("build_parallel_grps", (const void*)&gpu_build_parallel_grps);
segmentedSummaryBasic.create("segmentedSummaryBasic", (const void*)&gpu_segmentedSummaryBasic);
domainCheckSFC.create("domainCheckSFC", (const void*)&gpu_domainCheckSFC);
internalMoveSFC.create("internalMoveSFC", (const void*)&gpu_internalMoveSFC);
internalMoveSFC2.create("internalMoveSFC2", (const void*)&gpu_internalMoveSFC2);
extractOutOfDomainParticlesAdvancedSFC.create("extractOutOfDomainParticlesAdvancedSFC", (const void*)&gpu_extractOutOfDomainParticlesAdvancedSFC);
extractOutOfDomainParticlesAdvancedSFC2.create("extractOutOfDomainParticlesAdvancedSFC2", (const void*)&gpu_extractOutOfDomainParticlesAdvancedSFC2);
insertNewParticlesSFC.create("insertNewParticlesSFC", (const void*)&gpu_insertNewParticlesSFC);
domainCheckSFCAndAssign.create("domainCheckSFCAndAssign", (const void*)&gpu_domainCheckSFCAndAssign);
#else
#endif
#ifdef USE_DUST
define_dust_groups.setContext(devContext);
define_dust_groups.load_source("./build_tree.ptx", pathName.c_str());
define_dust_groups.create("define_dust_groups");
store_dust_groups.setContext(devContext);
store_dust_groups.load_source("./build_tree.ptx", pathName.c_str());
store_dust_groups.create("store_dust_groups");
predictDust.setContext(devContext);
predictDust.load_source("./build_tree.ptx", pathName.c_str());
predictDust.create("predict_dust_particles");
correctDust.setContext(devContext);
correctDust.load_source("./build_tree.ptx", pathName.c_str());
correctDust.create("correct_dust_particles");
#endif
}
void test_objects()
{
std::cout << "- Data Object" << std::endl;
set_context(false);
{
std::cout << "-- With Triggers Full API" << std::endl;
{
cache().reset();
cppcms::triggers_recorder tr(cache());
mydata d(1,2);
std::set<std::string> t1,t2;
t1.insert("k1");
t2.insert("k2");
cache().store_frame("foo","bar",t1);
cache().store_data("dat",d,t2);
TEST(tr.detach().size()==4);
}
{
cache().reset();
cppcms::triggers_recorder tr(cache());
mydata d;
std::string tmp;
TEST(cache().fetch_frame("foo",tmp));
TEST(cache().fetch_data("dat",d));
TEST(d.x==1 && d.y==2);
TEST(tmp=="bar");
std::set<std::string> tg=tr.detach();
TEST(tg.size()==4);
TEST(tg.count("foo")==1);
TEST(tg.count("dat")==1);
TEST(tg.count("k1")==1);
TEST(tg.count("k2")==1);
}
{
cache().reset();
cppcms::triggers_recorder tr(cache());
mydata d;
std::string tmp;
TEST(cache().fetch_frame("foo",tmp,true));
TEST(cache().fetch_data("dat",d,true));
TEST(d.x==1 && d.y==2);
TEST(tmp=="bar");
TEST(tr.detach().size()==0);
}
{
cache().reset();
cppcms::triggers_recorder tr(cache());
mydata d(4,5);
cache().store_frame("foo","baz",-1);
cache().store_data("dat",d,-1);
TEST(tr.detach().size()==2);
}
{
cache().reset();
cppcms::triggers_recorder tr(cache());
mydata d;
std::string tmp;
TEST(cache().fetch_frame("foo",tmp));
TEST(cache().fetch_data("dat",d));
TEST(d.x==4 && d.y==5);
TEST(tmp=="baz");
std::set<std::string> tg=tr.detach();
TEST(tg.size()==2);
TEST(tg.count("foo")==1);
TEST(tg.count("dat")==1);
}
}
cache().clear();
{
std::cout << "-- Without Triggers" << std::endl;
{
cache().reset();
cppcms::triggers_recorder tr(cache());
mydata d(1,2);
cache().store_frame("foo","bar",std::set<std::string>(),-1,true);
cache().store_data("dat",d,std::set<std::string>(),-1,true);
TEST(tr.detach().size()==0);
}
{
cache().reset();
cppcms::triggers_recorder tr(cache());
mydata d;
std::string tmp;
TEST(cache().fetch_frame("foo",tmp,true));
TEST(cache().fetch_data("dat",d,true));
TEST(d.x==1 && d.y==2);
TEST(tmp=="bar");
TEST(tr.detach().size()==0);
}
{
cache().reset();
cppcms::triggers_recorder tr(cache());
mydata d;
std::string tmp;
TEST(cache().fetch_frame("foo",tmp));
TEST(cache().fetch_data("dat",d));
TEST(d.x==1 && d.y==2);
TEST(tmp=="bar");
TEST(tr.detach().size()==2);
}
{
cache().reset();
cppcms::triggers_recorder tr(cache());
mydata d(4,5);
cache().store_frame("foo","baz",-1,true);
cache().store_data("dat",d,-1,true);
TEST(tr.detach().size()==0);
}
{
cache().reset();
cppcms::triggers_recorder tr(cache());
mydata d;
std::string tmp;
TEST(cache().fetch_frame("foo",tmp,true));
TEST(cache().fetch_data("dat",d,true));
TEST(d.x==4 && d.y==5);
TEST(tmp=="baz");
TEST(tr.detach().size()==0);
}
}
cache().clear();
{
std::cout << "-- Timeouts" << std::endl;
{
cache().reset();
mydata d1(1,2);
mydata d2(4,5);
cache().store_frame("foo1","baz1",std::set<std::string>(),2,true);
cache().store_data("dat1",d1,std::set<std::string>(),2,true);
cache().store_frame("foo2","baz2",2,true);
cache().store_data("dat2",d2,2,true);
}
{
cache().reset();
mydata d1,d2;
std::string t1,t2;
TEST(cache().fetch_frame("foo1",t1,true));
TEST(cache().fetch_frame("foo2",t2,true));
TEST(cache().fetch_data("dat1",d1,true));
TEST(cache().fetch_data("dat2",d2,true));
TEST(d1.x==1 && d1.y==2);
TEST(d2.x==4 && d2.y==5);
TEST(t1=="baz1");
TEST(t2=="baz2");
}
booster::ptime::millisleep(3000);
{
cache().reset();
mydata d1,d2;
std::string t1,t2;
TEST(!cache().fetch_frame("foo1",t1,true));
TEST(!cache().fetch_frame("foo2",t2,true));
TEST(!cache().fetch_data("dat1",d1,true));
TEST(!cache().fetch_data("dat2",d2,true));
}
}
}
void switch_mmu_context(struct mm_struct *prev, struct mm_struct *next)
{
unsigned int id, cpu = smp_processor_id();
unsigned long *map;
/* No lockless fast path .. yet */
atomic_spin_lock(&context_lock);
#ifndef DEBUG_STEAL_ONLY
pr_devel("[%d] activating context for mm @%p, active=%d, id=%d\n",
cpu, next, next->context.active, next->context.id);
#endif
#ifdef CONFIG_SMP
/* Mark us active and the previous one not anymore */
next->context.active++;
if (prev) {
#ifndef DEBUG_STEAL_ONLY
pr_devel(" old context %p active was: %d\n",
prev, prev->context.active);
#endif
WARN_ON(prev->context.active < 1);
prev->context.active--;
}
again:
#endif /* CONFIG_SMP */
/* If we already have a valid assigned context, skip all that */
id = next->context.id;
if (likely(id != MMU_NO_CONTEXT))
goto ctxt_ok;
/* We really don't have a context, let's try to acquire one */
id = next_context;
if (id > last_context)
id = first_context;
map = context_map;
/* No more free contexts, let's try to steal one */
if (nr_free_contexts == 0) {
#ifdef CONFIG_SMP
if (num_online_cpus() > 1) {
id = steal_context_smp(id);
if (id == MMU_NO_CONTEXT)
goto again;
goto stolen;
}
#endif /* CONFIG_SMP */
id = steal_context_up(id);
goto stolen;
}
nr_free_contexts--;
/* We know there's at least one free context, try to find it */
while (__test_and_set_bit(id, map)) {
id = find_next_zero_bit(map, last_context+1, id);
if (id > last_context)
id = first_context;
}
stolen:
next_context = id + 1;
context_mm[id] = next;
next->context.id = id;
#ifndef DEBUG_STEAL_ONLY
pr_devel("[%d] picked up new id %d, nrf is now %d\n",
cpu, id, nr_free_contexts);
#endif
context_check_map();
ctxt_ok:
/* If that context got marked stale on this CPU, then flush the
* local TLB for it and unmark it before we use it
*/
if (test_bit(id, stale_map[cpu])) {
pr_devel("[%d] flushing stale context %d for mm @%p !\n",
cpu, id, next);
local_flush_tlb_mm(next);
/* XXX This clear should ultimately be part of local_flush_tlb_mm */
__clear_bit(id, stale_map[cpu]);
}
/* Flick the MMU and release lock */
set_context(id, next->pgd);
atomic_spin_unlock(&context_lock);
}
bool operator()(Context& ctx) {
for(auto itFunc = functors_.begin(); itFunc != functors_.end(); itFunc++)
itFunc->set_context(&ctx);
return expression_.operator bool();
}
static av_cold int vdadec_init(AVCodecContext *avctx)
{
VDADecoderContext *ctx = avctx->priv_data;
struct vda_context *vda_ctx = &ctx->vda_ctx;
OSStatus status;
int ret, i;
ctx->h264_initialized = 0;
/* init pix_fmts of codec */
if (!ff_h264_vda_decoder.pix_fmts) {
if (kCFCoreFoundationVersionNumber < kCFCoreFoundationVersionNumber10_7)
ff_h264_vda_decoder.pix_fmts = vda_pixfmts_prior_10_7;
else
ff_h264_vda_decoder.pix_fmts = vda_pixfmts;
}
/* init vda */
memset(vda_ctx, 0, sizeof(struct vda_context));
vda_ctx->width = avctx->width;
vda_ctx->height = avctx->height;
vda_ctx->format = 'avc1';
vda_ctx->use_sync_decoding = 1;
vda_ctx->use_ref_buffer = 1;
ctx->pix_fmt = avctx->get_format(avctx, avctx->codec->pix_fmts);
switch (ctx->pix_fmt) {
case AV_PIX_FMT_UYVY422:
vda_ctx->cv_pix_fmt_type = '2vuy';
break;
case AV_PIX_FMT_YUYV422:
vda_ctx->cv_pix_fmt_type = 'yuvs';
break;
case AV_PIX_FMT_NV12:
vda_ctx->cv_pix_fmt_type = '420v';
break;
case AV_PIX_FMT_YUV420P:
vda_ctx->cv_pix_fmt_type = 'y420';
break;
default:
av_log(avctx, AV_LOG_ERROR, "Unsupported pixel format: %d\n", avctx->pix_fmt);
goto failed;
}
status = ff_vda_create_decoder(vda_ctx,
avctx->extradata, avctx->extradata_size);
if (status != kVDADecoderNoErr) {
av_log(avctx, AV_LOG_ERROR,
"Failed to init VDA decoder: %d.\n", status);
goto failed;
}
/* init H.264 decoder */
set_context(avctx);
ret = ff_h264_decoder.init(avctx);
restore_context(avctx);
if (ret < 0) {
av_log(avctx, AV_LOG_ERROR, "Failed to open H.264 decoder.\n");
goto failed;
}
ctx->h264_initialized = 1;
for (i = 0; i < MAX_SPS_COUNT; i++) {
const SPS *sps = (const SPS*)ctx->h264ctx.ps.sps_list[i]->data;
if (sps && (sps->bit_depth_luma != 8 ||
sps->chroma_format_idc == 2 ||
sps->chroma_format_idc == 3)) {
av_log(avctx, AV_LOG_ERROR, "Format is not supported.\n");
goto failed;
}
}
return 0;
failed:
vdadec_close(avctx);
return -1;
}
void switch_mmu_context(struct mm_struct *prev, struct mm_struct *next,
struct task_struct *tsk)
{
unsigned int i, id, cpu = smp_processor_id();
unsigned long *map;
/* No lockless fast path .. yet */
raw_spin_lock(&context_lock);
pr_hard("[%d] activating context for mm @%p, active=%d, id=%d",
cpu, next, next->context.active, next->context.id);
#ifdef CONFIG_SMP
/* Mark us active and the previous one not anymore */
next->context.active++;
if (prev) {
pr_hardcont(" (old=0x%p a=%d)", prev, prev->context.active);
WARN_ON(prev->context.active < 1);
prev->context.active--;
}
again:
#endif /* CONFIG_SMP */
/* If we already have a valid assigned context, skip all that */
id = next->context.id;
if (likely(id != MMU_NO_CONTEXT)) {
#ifdef DEBUG_MAP_CONSISTENCY
if (context_mm[id] != next)
pr_err("MMU: mm 0x%p has id %d but context_mm[%d] says 0x%p\n",
next, id, id, context_mm[id]);
#endif
goto ctxt_ok;
}
/* We really don't have a context, let's try to acquire one */
id = next_context;
if (id > last_context)
id = first_context;
map = context_map;
/* No more free contexts, let's try to steal one */
if (nr_free_contexts == 0) {
#ifdef CONFIG_SMP
if (num_online_cpus() > 1) {
id = steal_context_smp(id);
if (id == MMU_NO_CONTEXT)
goto again;
goto stolen;
}
#endif /* CONFIG_SMP */
if (no_selective_tlbil)
id = steal_all_contexts();
else
id = steal_context_up(id);
goto stolen;
}
nr_free_contexts--;
/* We know there's at least one free context, try to find it */
while (__test_and_set_bit(id, map)) {
id = find_next_zero_bit(map, last_context+1, id);
if (id > last_context)
id = first_context;
}
stolen:
next_context = id + 1;
context_mm[id] = next;
next->context.id = id;
pr_hardcont(" | new id=%d,nrf=%d", id, nr_free_contexts);
context_check_map();
ctxt_ok:
/* If that context got marked stale on this CPU, then flush the
* local TLB for it and unmark it before we use it
*/
if (test_bit(id, stale_map[cpu])) {
pr_hardcont(" | stale flush %d [%d..%d]",
id, cpu_first_thread_sibling(cpu),
cpu_last_thread_sibling(cpu));
local_flush_tlb_mm(next);
/* XXX This clear should ultimately be part of local_flush_tlb_mm */
for (i = cpu_first_thread_sibling(cpu);
i <= cpu_last_thread_sibling(cpu); i++) {
if (stale_map[i])
__clear_bit(id, stale_map[i]);
}
}
/* Flick the MMU and release lock */
pr_hardcont(" -> %d\n", id);
set_context(id, next->pgd);
raw_spin_unlock(&context_lock);
}
std::string operator()(Context& ctx) {
for(auto itFunc = functors_.begin(); itFunc != functors_.end(); itFunc++)
itFunc->set_context(&ctx);
expression::result_type res = expression_.value();
return boost::lexical_cast<std::string>(res);
}