PUSS_EXPORT void* puss_plugin_create(Puss* app) {
GTree* sections;
GtkSourceLanguageManager* lm;
const gchar* const* ids;
const gchar* const* id;
GtkSourceLanguage* lang;
const gchar* name;
gchar* action_name;
GtkAction* action;
const gchar* section;
GList* section_list;
GtkUIManager* ui_mgr;
IToolMenuAction* tool_menu_interface;
GString* gstr;
gchar* ui_info;
GError* err;
tool_menu_interface = app->extend_query("puss_controls", INTERFACE_TOOL_MENU_ACTION);
if( !tool_menu_interface )
return 0;
bindtextdomain(TEXT_DOMAIN, app->get_locale_path());
bind_textdomain_codeset(TEXT_DOMAIN, "UTF-8");
g_self = g_new0(LanguageSelector, 1);
g_self->app = app;
g_self->action_group = gtk_action_group_new("puss_language_selector_action_group");
// set select language menu
sections = g_tree_new_full((GCompareDataFunc)&g_ascii_strcasecmp, 0, 0, (GDestroyNotify)g_list_free);
lm = gtk_source_language_manager_get_default();
ids = gtk_source_language_manager_get_language_ids(lm);
g_self->last_favory_lang = gtk_source_language_manager_get_language(lm, "cpp");
for( id=ids; *id; ++id ) {
lang = gtk_source_language_manager_get_language(lm, *id);
if( lang ) {
name = gtk_source_language_get_name(lang);
action_name = g_strdup_printf("pls_lang_%s", name);
action = gtk_action_new(action_name, name, NULL, NULL);
g_signal_connect(action, "activate", G_CALLBACK(&pls_lang_active), lang);
gtk_action_group_add_action(g_self->action_group, action);
g_object_unref(action);
g_free(action_name);
section = gtk_source_language_get_section(lang);
section_list = (GList*)g_tree_lookup(sections, section);
if( section_list ) {
g_tree_steal(sections, section);
} else {
action_name = g_strdup_printf("pls_sec_%s", section);
action = GTK_ACTION(gtk_action_new(action_name, section, NULL, NULL));
gtk_action_group_add_action(g_self->action_group, action);
g_object_unref(action);
g_free(action_name);
}
section_list = g_list_insert_sorted(section_list, (gchar*)name, (GCompareFunc)&g_ascii_strcasecmp);
g_tree_insert(sections, (gchar*)section, section_list);
}
}
// insert language selector menu-tool-button
//
action = gtk_action_new("language_selector_open", _("Language"), _("select high-light source language, default use last"), GTK_STOCK_SELECT_COLOR);
gtk_action_group_add_action(g_self->action_group, action);
g_object_unref(action);
action = GTK_ACTION( g_object_new(tool_menu_interface->get_type ()
, "name", "language_selector_toolmenu_open"
, "label", _("Language")
, "tooltip", _("select high-light source language, default use last")
, "stock-id", GTK_STOCK_SELECT_COLOR
, NULL) );
g_signal_connect(action, "activate", G_CALLBACK(&pls_lang_active), 0);
gtk_action_group_add_action(g_self->action_group, action);
g_object_unref(action);
ui_mgr = GTK_UI_MANAGER(gtk_builder_get_object(app->get_ui_builder(), "main_ui_manager"));
gtk_ui_manager_insert_action_group(ui_mgr, g_self->action_group, 0);
// main selector menu
gstr= g_string_new(NULL);
g_tree_foreach(sections, (GTraverseFunc)&fill_language_section, gstr);
g_tree_destroy(sections);
ui_info = g_strdup_printf(
"<ui>"
" <menubar name='main_menubar'>"
" <menu action='view_menu'>\n"
" <placeholder name='view_menu_extend_place'>"
" <menu action='language_selector_open'>"
" %s"
" <placeholder name='pls_favory_menu_place'>"
" </placeholder>"
" </menu>"
" </placeholder>"
" </menu>"
" </menubar>"
""
" <toolbar name='main_toolbar'>"
" <placeholder name='main_toolbar_view_place'>"
" <toolitem action='language_selector_toolmenu_open'>"
" <menu action='language_selector_toolmenu_open'>"
" %s"
" <placeholder name='pls_favory_toolmenu_place'>"
" </placeholder>"
" </menu>"
" </toolitem>"
" </placeholder>"
" </toolbar>"
"</ui>"
, gstr->str
, gstr->str
);
//g_print(ui_info);
err = 0;
g_self->merge_id = gtk_ui_manager_add_ui_from_string(ui_mgr, ui_info, -1, &err);
if( err ) {
g_printerr("%s", err->message);
g_error_free(err);
}
g_free(ui_info);
g_string_free(gstr, TRUE);
gtk_ui_manager_ensure_update(ui_mgr);
fill_favory_language_menu();
return g_self;
}
static int
edit_read_syntax_rules (WEdit * edit, FILE * f, char **args, int args_size)
{
FILE *g = NULL;
char *fg, *bg, *attrs;
char last_fg[32] = "", last_bg[32] = "", last_attrs[64] = "";
char whole_right[512];
char whole_left[512];
char *l = 0;
int save_line = 0, line = 0;
struct context_rule **r, *c = NULL;
int num_words = -1, num_contexts = -1;
int result = 0;
int argc;
int i, j;
int alloc_contexts = MAX_CONTEXTS,
alloc_words_per_context = MAX_WORDS_PER_CONTEXT,
max_alloc_words_per_context = MAX_WORDS_PER_CONTEXT;
args[0] = NULL;
edit->is_case_insensitive = FALSE;
strcpy (whole_left, "abcdefghijklmnopqrstuvwxyzABCDEFGHIJKLMNOPQRSTUVWXYZ_01234567890");
strcpy (whole_right, "abcdefghijklmnopqrstuvwxyzABCDEFGHIJKLMNOPQRSTUVWXYZ_01234567890");
r = edit->rules = g_malloc0 (alloc_contexts * sizeof (struct context_rule *));
if (!edit->defines)
edit->defines = g_tree_new ((GCompareFunc) strcmp);
for (;;)
{
char **a;
size_t len;
line++;
l = 0;
len = read_one_line (&l, f);
if (len == 0)
{
if (g)
{
fclose (f);
f = g;
g = 0;
line = save_line + 1;
MC_PTR_FREE (error_file_name);
MC_PTR_FREE (l);
len = read_one_line (&l, f);
if (len == 0)
break;
else
xx_lowerize_line (edit, l, len);
}
else
{
break;
}
}
else
{
xx_lowerize_line (edit, l, len);
}
argc = get_args (l, args, args_size);
a = args + 1;
if (!args[0])
{
/* do nothing */
}
else if (!strcmp (args[0], "include"))
{
if (g || argc != 2)
{
result = line;
break;
}
g = f;
f = open_include_file (args[1]);
if (!f)
{
MC_PTR_FREE (error_file_name);
result = line;
break;
}
save_line = line;
line = 0;
}
else if (!strcmp (args[0], "caseinsensitive"))
{
edit->is_case_insensitive = TRUE;
}
else if (!strcmp (args[0], "wholechars"))
{
check_a;
if (!strcmp (*a, "left"))
{
a++;
g_strlcpy (whole_left, *a, sizeof (whole_left));
}
else if (!strcmp (*a, "right"))
{
a++;
g_strlcpy (whole_right, *a, sizeof (whole_right));
}
else
{
g_strlcpy (whole_left, *a, sizeof (whole_left));
g_strlcpy (whole_right, *a, sizeof (whole_right));
}
a++;
check_not_a;
}
else if (!strcmp (args[0], "context"))
{
check_a;
if (num_contexts == -1)
{
if (strcmp (*a, "default"))
{ /* first context is the default */
break_a;
}
a++;
c = r[0] = g_malloc0 (sizeof (struct context_rule));
c->left = g_strdup (" ");
c->right = g_strdup (" ");
num_contexts = 0;
}
else
{
/* Terminate previous context. */
r[num_contexts - 1]->keyword[num_words] = NULL;
c = r[num_contexts] = g_malloc0 (sizeof (struct context_rule));
if (!strcmp (*a, "exclusive"))
{
a++;
c->between_delimiters = 1;
}
check_a;
if (!strcmp (*a, "whole"))
{
a++;
c->whole_word_chars_left = g_strdup (whole_left);
c->whole_word_chars_right = g_strdup (whole_right);
}
else if (!strcmp (*a, "wholeleft"))
{
a++;
c->whole_word_chars_left = g_strdup (whole_left);
}
else if (!strcmp (*a, "wholeright"))
{
a++;
c->whole_word_chars_right = g_strdup (whole_right);
}
check_a;
if (!strcmp (*a, "linestart"))
{
a++;
c->line_start_left = 1;
}
check_a;
c->left = g_strdup (*a++);
check_a;
if (!strcmp (*a, "linestart"))
{
a++;
c->line_start_right = 1;
}
check_a;
c->right = g_strdup (*a++);
c->first_left = *c->left;
c->first_right = *c->right;
}
c->keyword = g_malloc (alloc_words_per_context * sizeof (struct key_word *));
num_words = 1;
c->keyword[0] = g_malloc0 (sizeof (struct key_word));
subst_defines (edit->defines, a, &args[1024]);
fg = *a;
if (*a)
a++;
bg = *a;
if (*a)
a++;
attrs = *a;
if (*a)
a++;
g_strlcpy (last_fg, fg ? fg : "", sizeof (last_fg));
g_strlcpy (last_bg, bg ? bg : "", sizeof (last_bg));
g_strlcpy (last_attrs, attrs ? attrs : "", sizeof (last_attrs));
c->keyword[0]->color = this_try_alloc_color_pair (fg, bg, attrs);
c->keyword[0]->keyword = g_strdup (" ");
check_not_a;
alloc_words_per_context = MAX_WORDS_PER_CONTEXT;
if (++num_contexts >= alloc_contexts)
{
struct context_rule **tmp;
alloc_contexts += 128;
tmp = g_realloc (r, alloc_contexts * sizeof (struct context_rule *));
r = tmp;
}
}
else if (!strcmp (args[0], "spellcheck"))
{
if (!c)
{
result = line;
break;
}
c->spelling = 1;
}
else if (!strcmp (args[0], "keyword"))
{
struct key_word *k;
if (num_words == -1)
break_a;
check_a;
k = r[num_contexts - 1]->keyword[num_words] = g_malloc0 (sizeof (struct key_word));
if (!strcmp (*a, "whole"))
{
a++;
k->whole_word_chars_left = g_strdup (whole_left);
k->whole_word_chars_right = g_strdup (whole_right);
}
else if (!strcmp (*a, "wholeleft"))
{
a++;
k->whole_word_chars_left = g_strdup (whole_left);
}
else if (!strcmp (*a, "wholeright"))
{
a++;
k->whole_word_chars_right = g_strdup (whole_right);
}
check_a;
if (!strcmp (*a, "linestart"))
{
a++;
k->line_start = 1;
}
check_a;
if (!strcmp (*a, "whole"))
{
break_a;
}
k->keyword = g_strdup (*a++);
k->first = *k->keyword;
subst_defines (edit->defines, a, &args[1024]);
fg = *a;
if (*a)
a++;
bg = *a;
if (*a)
a++;
attrs = *a;
if (*a)
a++;
if (!fg)
fg = last_fg;
if (!bg)
bg = last_bg;
if (!attrs)
attrs = last_attrs;
k->color = this_try_alloc_color_pair (fg, bg, attrs);
check_not_a;
if (++num_words >= alloc_words_per_context)
{
struct key_word **tmp;
alloc_words_per_context += 1024;
if (alloc_words_per_context > max_alloc_words_per_context)
max_alloc_words_per_context = alloc_words_per_context;
tmp = g_realloc (c->keyword, alloc_words_per_context * sizeof (struct key_word *));
c->keyword = tmp;
}
}
else if (*(args[0]) == '#')
{
/* do nothing for comment */
}
else if (!strcmp (args[0], "file"))
{
break;
}
else if (!strcmp (args[0], "define"))
{
char *key = *a++;
char **argv;
if (argc < 3)
break_a;
argv = g_tree_lookup (edit->defines, key);
if (argv != NULL)
mc_defines_destroy (NULL, argv, NULL);
else
key = g_strdup (key);
argv = g_new (char *, argc - 1);
g_tree_insert (edit->defines, key, argv);
while (*a != NULL)
{
*argv++ = g_strdup (*a++);
}
*argv = NULL;
}
else
{ /* anything else is an error */
static event_response_t cb(drakvuf_t drakvuf, drakvuf_trap_info_t* info)
{
poolmon* p = (poolmon*)info->trap->data;
page_mode_t pm = drakvuf_get_page_mode(drakvuf);
reg_t pool_type, size;
char tag[5] = { [0 ... 4] = '\0' };
struct pooltag* s = NULL;
const char* pool_type_str;
access_context_t ctx;
ctx.translate_mechanism = VMI_TM_PROCESS_DTB;
ctx.dtb = info->regs->cr3;
if (pm == VMI_PM_IA32E)
{
pool_type = info->regs->rcx;
size = info->regs->rdx;
*(reg_t*)tag = info->regs->r8;
}
else
{
vmi_lock_guard vmi_lg(drakvuf);
vmi_instance_t& vmi = vmi_lg.vmi;
ctx.addr = info->regs->rsp+12;
if ( VMI_FAILURE == vmi_read_32(vmi, &ctx, (uint32_t*)tag) )
return 0;
ctx.addr = info->regs->rsp+8;
if ( VMI_FAILURE == vmi_read_32(vmi, &ctx, (uint32_t*)&size) )
return 0;
ctx.addr = info->regs->rsp+4;
if ( VMI_FAILURE == vmi_read_32(vmi, &ctx, (uint32_t*)&pool_type) )
return 0;
}
s = (struct pooltag*)g_tree_lookup(p->pooltag_tree, tag);
pool_type_str = pool_type<MaxPoolType ? pool_types[pool_type] : "unknown_pool_type";
switch (p->format)
{
case OUTPUT_CSV:
printf("poolmon," FORMAT_TIMEVAL ",%" PRIu32 ",0x%" PRIx64 ",\"%s\",%" PRIi64 ",%s,%s,%" PRIu64 "",
UNPACK_TIMEVAL(info->timestamp), info->vcpu, info->regs->cr3, info->proc_data.name, info->proc_data.userid, tag,
pool_type_str, size);
if (s)
printf(",%s,%s", s->source, s->description);
break;
case OUTPUT_KV:
printf("poolmon Time=" FORMAT_TIMEVAL ",PID=%d,PPID=%d,ProcessName=\"%s\","
"Tag=%s,Type=%s,Size=%" PRIu64,
UNPACK_TIMEVAL(info->timestamp), info->proc_data.pid, info->proc_data.ppid, info->proc_data.name,
tag, pool_type_str, size);
if (s)
printf(",Source=%s,Description=%s", s->source, s->description);
break;
default:
case OUTPUT_DEFAULT:
printf("[POOLMON] TIME:" FORMAT_TIMEVAL " VCPU:%" PRIu32 " CR3:0x%" PRIx64 ",\"%s\" %s:%" PRIi64 " %s (type: %s, size: %" PRIu64 ")",
UNPACK_TIMEVAL(info->timestamp), info->vcpu, info->regs->cr3, info->proc_data.name,
USERIDSTR(drakvuf), info->proc_data.userid, tag,
pool_type_str, size);
if (s)
printf(": %s,%s", s->source, s->description);
break;
}
printf("\n");
return 0;
}
int BLEIO_gatt_read_char_by_uuid(
BLEIO_GATT_HANDLE bleio_gatt_handle,
const char* ble_uuid,
ON_BLEIO_GATT_ATTRIB_READ_COMPLETE on_bleio_gatt_attrib_read_complete,
void* callback_context
)
{
int result;
BLEIO_GATT_HANDLE_DATA* handle_data = (BLEIO_GATT_HANDLE_DATA*)bleio_gatt_handle;
/*Codes_SRS_BLEIO_GATT_13_027: [ BLEIO_gatt_read_char_by_uuid shall return a non-zero value if bleio_gatt_handle is NULL. ]*/
/*Codes_SRS_BLEIO_GATT_13_028: [ BLEIO_gatt_read_char_by_uuid shall return a non-zero value if on_bleio_gatt_attrib_read_complete is NULL. ]*/
/*Codes_SRS_BLEIO_GATT_13_051: [BLEIO_gatt_read_char_by_uuid shall return a non - zero value if ble_uuid is NULL. ] */
/*Codes_SRS_BLEIO_GATT_13_052: [BLEIO_gatt_read_char_by_uuid shall return a non - zero value if the object is not in a connected state. ] */
if (
bleio_gatt_handle != NULL &&
ble_uuid != NULL &&
on_bleio_gatt_attrib_read_complete != NULL &&
handle_data->state == BLEIO_GATT_STATE_CONNECTED
)
{
GString* uuid = g_string_new(ble_uuid);
if(uuid != NULL)
{
GString* object_path = g_tree_lookup(handle_data->char_object_path_map, uuid);
if(object_path != NULL)
{
// now that we have the object path we don't need the UUID anymore
g_string_free(uuid, TRUE);
READ_CONTEXT *context = (READ_CONTEXT *)malloc(sizeof(READ_CONTEXT));
if (context != NULL)
{
// create async sequence
context->async_seq = GIO_Async_Seq_Create(
context,
on_sequence_error,
on_sequence_complete
);
if (context->async_seq != NULL)
{
// setup call sequence
GIO_ASYNCSEQ_RESULT seq_result = GIO_Async_Seq_Add(
context->async_seq, NULL,
// create an instance of the characteristic
create_characteristic, create_characteristic_finish,
// read the characteristic
read_characteristic, read_characteristic_finish,
// sentinel value to signal end of sequence
NULL
);
if (seq_result == GIO_ASYNCSEQ_OK)
{
context->handle_data = handle_data;
context->object_path = object_path;
context->characteristic = NULL;
context->on_read_complete = on_bleio_gatt_attrib_read_complete;
context->callback_context = callback_context;
/*Codes_SRS_BLEIO_GATT_13_031: [ BLEIO_gatt_read_char_by_uuid shall asynchronously initiate a read characteristic operation using the specified UUID. ]*/
// kick-off the sequence
if(GIO_Async_Seq_Run_Async(context->async_seq) == GIO_ASYNCSEQ_OK)
{
/*Codes_SRS_BLEIO_GATT_13_030: [ BLEIO_gatt_read_char_by_uuid shall return 0 (zero) if the read characteristic operation is successful. ]*/
result = 0;
}
else
{
result = __LINE__;
GIO_Async_Seq_Destroy(context->async_seq);
free(context);
LogError("GIO_Async_Seq_Run failed.");
}
}
else
{
/*Codes_SRS_BLEIO_GATT_13_029: [ BLEIO_gatt_read_char_by_uuid shall return a non-zero value if an underlying platform call fails. ]*/
result = __LINE__;
GIO_Async_Seq_Destroy(context->async_seq);
free(context);
LogError("GIO_Async_Seq_Add failed.");
}
}
else
{
/*Codes_SRS_BLEIO_GATT_13_029: [ BLEIO_gatt_read_char_by_uuid shall return a non-zero value if an underlying platform call fails. ]*/
result = __LINE__;
free(context);
LogError("GIO_Async_Seq_Create failed.");
}
}
else
{
/*Codes_SRS_BLEIO_GATT_13_029: [ BLEIO_gatt_read_char_by_uuid shall return a non-zero value if an underlying platform call fails. ]*/
result = __LINE__;
LogError("malloc failed.");
}
}
else
{
/*Codes_SRS_BLEIO_GATT_13_029: [ BLEIO_gatt_read_char_by_uuid shall return a non-zero value if an underlying platform call fails. ]*/
result = __LINE__;
g_string_free(uuid, TRUE);
LogError("g_tree_lookup() failed.");
}
}
else
{
/*Codes_SRS_BLEIO_GATT_13_029: [ BLEIO_gatt_read_char_by_uuid shall return a non-zero value if an underlying platform call fails. ]*/
result = __LINE__;
LogError("g_string_new() failed.");
}
}
else
{
result = __LINE__;
LogError("Invalid args or the state of the object is unexpected.");
}
return result;
}
//--------------------------------------------------------------------------------------//
void Http_getMailboxes(T R)
{
const char *mailbox = Request_getId(R);
TRACE(TRACE_DEBUG,"mailbox [%s]", mailbox);
char *endptr = NULL;
struct evbuffer *buf;
u64_t id = 0;
if (! mailbox) {
Request_error(R, HTTP_SERVUNAVAIL, "Server error");
return;
}
if (! (id = strtoull(mailbox, &endptr, 10))) {
Request_error(R, HTTP_NOTFOUND, "Not found");
return;
}
TRACE(TRACE_DEBUG,"mailbox id [%llu]", id);
buf = evbuffer_new();
Request_setContentType(R,"application/json; charset=utf-8");
if (Request_getMethod(R) == NULL) {
/*
* retrieve mailbox meta-data
* C < GET /mailboxes/876
*
* or
*
* append a new message
* C < POST /mailboxes/876
*/
const char *msg;
u64_t msg_id = 0;
MailboxState_T b = MailboxState_new(id);
unsigned exists = MailboxState_getExists(b);
if ((msg = evhttp_find_header(Request_getPOST(R),"message"))) {
if (! db_append_msg(msg, MailboxState_getId(b), MailboxState_getOwner(b), NULL, &msg_id, TRUE))
exists++;
}
evbuffer_add_printf(buf, "{\"mailboxes\": {\n");
evbuffer_add_printf(buf, " \"%llu\":{\"name\":\"%s\",\"exists\":%d}", MailboxState_getId(b), MailboxState_getName(b), exists);
evbuffer_add_printf(buf, "\n}}\n");
MailboxState_free(&b);
} else if (MATCH(Request_getMethod(R),"messages")) {
/*
* list messages in mailbox
* C < GET /mailboxes/876/messages
*/
MailboxState_T b = MailboxState_new(id);
GTree *msns = MailboxState_getMsn(b);
GList *ids = g_tree_keys(msns);
GTree *msginfo = MailboxState_getMsginfo(b);
evbuffer_add_printf(buf, "{\"messages\": {\n");
while (ids && ids->data) {
u64_t *msn = (u64_t *)ids->data;
u64_t *uid = (u64_t *)g_tree_lookup(msns, msn);
MessageInfo *info = (MessageInfo *)g_tree_lookup(msginfo, uid);
evbuffer_add_printf(buf, " \"%llu\":{\"size\":%llu}", *uid, info->rfcsize);
if (! g_list_next(ids)) break;
ids = g_list_next(ids);
evbuffer_add_printf(buf,",\n");
}
evbuffer_add_printf(buf, "\n}}\n");
if (ids) g_list_free(g_list_first(ids));
MailboxState_free(&b);
}
if (EVBUFFER_LENGTH(buf))
Request_send(R, HTTP_OK, "OK", buf);
else
Request_error(R, HTTP_SERVUNAVAIL, "Server error");
evbuffer_free(buf);
}
static gint
sqlx_lookup_id(sqlx_cache_t *cache, const hashstr_t *hs)
{
gpointer lookup_result = g_tree_lookup(cache->bases_by_name, hs);
return !lookup_result ? -1 : (GPOINTER_TO_INT(lookup_result) - 1);
}
void rpc_service_handle(rpc_service_t *service, zmq_msg_t *request) {
/* Parse the msgpack */
zmq_msg_t response;
int rc;
msgpack_unpacked request_msg;
msgpack_unpacked_init(&request_msg);
rc = msgpack_unpack_next(&request_msg, zmq_msg_data(request),
zmq_msg_size(request), NULL);
insist_return(rc, (void)(0), "Failed to unpack message '%.*s'",
(int)zmq_msg_size(request), (char *)zmq_msg_data(request));
msgpack_object request_obj = request_msg.data;
/* Find the method name */
char *method = NULL;
size_t method_len = -1;
rc = obj_get(&request_obj, "method", MSGPACK_OBJECT_RAW, &method, &method_len);
msgpack_sbuffer *response_buffer = msgpack_sbuffer_new();
msgpack_sbuffer *result_buffer = msgpack_sbuffer_new();
msgpack_sbuffer *error_buffer = msgpack_sbuffer_new();
msgpack_packer *response_msg = msgpack_packer_new(response_buffer, msgpack_sbuffer_write);
msgpack_packer *result = msgpack_packer_new(result_buffer, msgpack_sbuffer_write);
msgpack_packer *error = msgpack_packer_new(error_buffer, msgpack_sbuffer_write);
//printf("Method: %.*s\n", method_len, method);
void *clock = zmq_stopwatch_start();
double duration;
if (rc != 0) { /* method not found */
msgpack_pack_nil(result); /* result is nil on error */
msgpack_pack_map(error, 2);
msgpack_pack_string(error, "error", -1);
msgpack_pack_string(error, "Message had no 'method' field", -1);
msgpack_pack_string(error, "request", -1);
msgpack_pack_object(error, request_obj);
} else { /* valid method, keep going */
//printf("The method is: '%.*s'\n", (int)method_len, method);
rpc_name name;
name.name = method;
name.len = method_len;
rpc_method *rpcmethod = g_tree_lookup(service->methods, &name);
/* if we found a valid rpc method and the args check passed ... */
if (rpcmethod != NULL) {
/* the callback is responsible for filling in the 'result' and 'error'
* objects. */
rpcmethod->callback(NULL, &request_obj, result, error, rpcmethod->data);
} else {
msgpack_pack_nil(result); /* result is nil on error */
/* TODO(sissel): allow methods to register themselves */
//fprintf(stderr, "Invalid request '%.*s' (unknown method): ",
//method_len, method);
//msgpack_object_print(stderr, request_obj);
//fprintf(stderr, "\n");
msgpack_pack_map(error, 2);
msgpack_pack_string(error, "error", -1);
msgpack_pack_string(error, "No such method requested", -1);
msgpack_pack_string(error, "request", -1);
msgpack_pack_object(error, request_obj);
}
} /* valid/invalid method handling */
duration = zmq_stopwatch_stop(clock) / 1000000.;
//printf("method '%.*s' took %lf seconds\n", (int)method_len, method);
msgpack_unpacked result_unpacked;
msgpack_unpacked error_unpacked;
msgpack_unpacked response_unpacked;
msgpack_unpacked_init(&result_unpacked);
msgpack_unpacked_init(&error_unpacked);
msgpack_unpacked_init(&response_unpacked);
/* TODO(sissel): If this unpack test fails, we should return an error to the calling
* client indicating that some internal error has occurred */
//fprintf(stderr, "Result payload: '%.*s'\n", result_buffer->size,
//result_buffer->data);
rc = msgpack_unpack_next(&result_unpacked, result_buffer->data,
result_buffer->size, NULL);
insist(rc == true, "msgpack_unpack_next failed on 'result' buffer"
" of request '%.*s'", (int)method_len, method);
rc = msgpack_unpack_next(&error_unpacked, error_buffer->data,
error_buffer->size, NULL);
insist(rc == true, "msgpack_unpack_next failed on 'error' buffer"
" of request '%.*s'", (int)method_len, method);
msgpack_pack_map(response_msg, 3); /* result, error, duration */
msgpack_pack_string(response_msg, "result", 6);
msgpack_pack_object(response_msg, result_unpacked.data);
msgpack_pack_string(response_msg, "error", 5);
msgpack_pack_object(response_msg, error_unpacked.data);
msgpack_pack_string(response_msg, "duration", 8);
msgpack_pack_double(response_msg, duration);
rc = msgpack_unpack_next(&response_unpacked, response_buffer->data,
response_buffer->size, NULL);
insist(rc == true, "msgpack_unpack_next failed on full response buffer"
" of request '%.*s'", (int)method_len, method);
//printf("request: ");
//msgpack_object_print(stdout, request_obj);
//printf("\n");
//printf("response: ");
//msgpack_object_print(stdout, response_unpacked.data);
//printf("\n");
zmq_msg_init_data(&response, response_buffer->data, response_buffer->size,
free_msgpack_buffer, response_buffer);
zmq_send(service->socket, &response, 0);
zmq_msg_close(&response);
msgpack_packer_free(error);
msgpack_packer_free(result);
msgpack_sbuffer_free(error_buffer);
msgpack_sbuffer_free(result_buffer);
msgpack_packer_free(response_msg);
msgpack_unpacked_destroy(&request_msg);
} /* rpc_service_handle */
/**
* @brief Function that will run the thread associated with a particular interface
* instance.
*
* Since multiple different command line a graphical user interfaces
* can exists simultaneously, this allows the scheduler to quickly perform any
* requests.
*
* Handle commands:
*
* | Command | Description |
* | ---: | :--- |
* | exit | Close connection with scheduler |
* | kill | Kill a particular job |
* | load | Get the host status |
* | close | Shutdown the scheduler |
* | pause | Pause a job that is currently running |
* | reload | Reload configuration information |
* | status | Request status for scheduler or job |
* | restart | Restart a paused job |
* | verbose | Change verbose level for scheduler or job |
* | priority | Change the priority of job |
* | database | Check the database job queue |
*
* @param conn Pointer to the interface_connection structure
* @param scheduler Pointer to the relevant scheduler structure
* @return not currently used
*/
void interface_thread(interface_connection* conn, scheduler_t* scheduler)
{
GMatchInfo* regex_match;
job_t* job;
char buffer[BUFFER_SIZE];
char org[sizeof(buffer)];
char* arg1, * arg2, * arg3;
char* cmd;
arg_int* params;
int i;
memset(buffer, '\0', sizeof(buffer));
while(g_input_stream_read(conn->istr, buffer, sizeof(buffer), scheduler->cancel, NULL) > 0)
{
V_INTERFACE("INTERFACE: received \"%s\"\n", buffer);
/* convert all characters before first ' ' to lower case */
memcpy(org, buffer, sizeof(buffer));
for(cmd = buffer; *cmd; cmd++)
*cmd = g_ascii_tolower(*cmd);
g_regex_match(scheduler->parse_interface_cmd, buffer, 0, ®ex_match);
cmd = g_match_info_fetch(regex_match, 1);
if(cmd == NULL)
{
g_output_stream_write(conn->ostr, "Invalid command: \"", 18, NULL, NULL);
g_output_stream_write(conn->ostr, buffer, strlen(buffer), NULL, NULL);
g_output_stream_write(conn->ostr, "\"\n", 2, NULL, NULL);
g_match_info_free(regex_match);
WARNING("INTERFACE: invalid command: \"%s\"", buffer);
continue;
}
/* acknowledge that you have received the command */
V_INTERFACE("INTERFACE: send \"received\"\n");
g_output_stream_write(conn->ostr, "received\n", 9, NULL, NULL);
/* command: "close"
*
* The interface has chosen to close the connection. Return the command
* in acknowledgment of the command and end this thread.
*/
if(strcmp(cmd, "close") == 0)
{
g_output_stream_write(conn->ostr, "CLOSE\n", 6, NULL, NULL);
V_INTERFACE("INTERFACE: closing connection to user interface\n");
g_match_info_free(regex_match);
g_free(cmd);
return;
}
/* command: "stop"
*
* The interface has instructed the scheduler to shut down gracefully. The
* scheduler will wait for all currently executing agents to finish
* running, then exit the vent loop.
*/
else if(strcmp(cmd, "stop") == 0)
{
g_output_stream_write(conn->ostr, "CLOSE\n", 6, NULL, NULL);
V_INTERFACE("INTERFACE: shutting down scheduler gracefully\n");
event_signal(scheduler_close_event, (void*)0);
g_match_info_free(regex_match);
g_free(cmd);
return;
}
/* command: "die"
*
* The interface has instructed the scheduler to shut down. The scheduler
* should acknowledge the command and proceed to kill all current executing
* agents and exit the event loop
*/
else if(strcmp(cmd, "die") == 0)
{
g_output_stream_write(conn->ostr, "CLOSE\n", 6, NULL, NULL);
V_INTERFACE("INTERFACE: killing the scheduler\n");
event_signal(scheduler_close_event, (void*)1);
g_match_info_free(regex_match);
g_free(cmd);
return;
}
/* command: "load"
*
* The interface has requested information about the load that the different
* hosts are under. The scheduler should respond with the status of all the
* hosts.
*/
else if(strcmp(cmd, "load") == 0)
{
print_host_load(scheduler->host_list, conn->ostr);
}
/* command: "kill <job_id> <"message">"
*
* The interface has instructed the scheduler to kill and fail a particular
* job. Both arguments are required for this command.
*
* job_id: The jq_pk for the job that needs to be killed
* message: A message that will be in the email notification and the
* jq_endtext field of the job queue
*/
else if(strcmp(cmd, "kill") == 0)
{
arg1 = g_match_info_fetch(regex_match, 3);
arg2 = g_match_info_fetch(regex_match, 8);
if(arg1)
i = atoi(arg1);
if(arg1 == NULL || arg2 == NULL || strlen(arg1) == 0 || strlen(arg2) == 0)
{
g_free(cmd);
cmd = g_strdup_printf("Invalid kill command: \"%s\"\n", buffer);
g_output_stream_write(conn->ostr, cmd, strlen(cmd), NULL, NULL);
}
else if((job = g_tree_lookup(scheduler->job_list, &i)) == NULL)
{
arg3 = g_strdup_printf(jobsql_failed, arg2, i);
event_signal(database_exec_event, arg3);
}
else
{
if(job->message)
g_free(job->message);
job->message = strdup(((arg2 == NULL) ? "no message" : arg2));
event_signal(job_fail_event, job);
}
g_free(arg1);
g_free(arg2);
}
/* command: "pause <job_id>"
*
* The interface has instructed the scheduler to pause a job. This is used
* to free up resources on a particular host. The argument is required and
* is the jq_pk for the job that needs to be paused.
*/
else if(strcmp(cmd, "pause") == 0)
{
arg1 = g_match_info_fetch(regex_match, 3);
if(arg1 == NULL || strlen(arg1) == 0)
{
arg1 = g_strdup_printf("Invalid pause command: \"%s\"\n", buffer);
WARNING("received invalid pause command: %s", buffer);
g_output_stream_write(conn->ostr, arg1, strlen(arg1), NULL, NULL);
g_free(arg1);
}
else
{
params = g_new0(arg_int, 1);
params->second = atoi(arg1);
params->first = g_tree_lookup(scheduler->job_list, ¶ms->second);
event_signal(job_pause_event, params);
g_free(arg1);
}
}
/* command: "reload"
*
* The scheduler should reload its configuration information. This should
* be used if a change to an agent or fossology.conf has been made since
* the scheduler started running.
*/
else if(strcmp(cmd, "reload") == 0)
{
event_signal(scheduler_config_event, NULL);
}
/* command: "agents"
*
* The interface has requested a list of agents that the scheduler is able
* to run correctly.
*/
else if(strcmp(cmd, "agents") == 0)
{
event_signal(list_agents_event, conn->ostr);
}
/* command: "status [job_id]"
*
* fetches the status of the a particular job or the scheduler. The
* argument is not required for this command.
*
* with job_id:
* print job status followed by status of agent belonging to the job
* without job_id:
* print scheduler statsu followed by status of every job
*/
else if(strcmp(cmd, "status") == 0)
{
arg1 = g_match_info_fetch(regex_match, 3);
params = g_new0(arg_int, 1);
params->first = conn->ostr;
params->second = (arg1 == NULL) ? 0 : atoi(arg1);
event_signal(job_status_event, params);
g_free(arg1);
}
/* command: "restart <job_id>"
*
* The interface has instructed the scheduler to restart a job that has been
* paused. The argument for this command is required and is the jq_pk for
* the job that should be restarted.
*/
else if(strcmp(cmd, "restart") == 0)
{
arg1 = g_match_info_fetch(regex_match, 3);
if(arg1 == NULL)
{
arg1 = g_strdup(buffer);
WARNING("received invalid restart command: %s", buffer);
snprintf(buffer, sizeof(buffer) - 1,
"ERROR: Invalid restart command: %s\n", arg1);
g_output_stream_write(conn->ostr, buffer, strlen(buffer), NULL, NULL);
g_free(arg1);
}
else
{
params = g_new0(arg_int, 1);
params->second = atoi(arg1);
params->first = g_tree_lookup(scheduler->job_list, ¶ms->second);
event_signal(job_restart_event, params);
g_free(arg1);
}
}
/* command: "verbose <job_id|level> [level]"
*
* The interface has either requested a change in a verbose level, or it
* has requested the current verbose level. This command can have no
* arguments, 1 argument or 2 arguments.
*
* no arguments: respond with the verbose level of the scheduler
* 1 argument: change the verbose level of the scheduler to the argument
* 2 arguments: change the verbose level of the job with the jq_pk of the
* first arguement to the second argument
*/
else if(strcmp(cmd, "verbose") == 0)
{
arg1 = g_match_info_fetch(regex_match, 3);
arg2 = g_match_info_fetch(regex_match, 5);
if(arg1 == NULL)
{
if(verbose < 8)
{
sprintf(buffer, "level: %d\n", verbose);
}
else
{
strcpy(buffer, "mask: h d i e s a j\nmask: ");
for(i = 1; i < 0x10000; i <<= 1)
strcat(buffer, i & verbose ? "1 " : "0 ");
strcat(buffer, "\n");
}
g_output_stream_write(conn->ostr, buffer, strlen(buffer), NULL, NULL);
}
else if(arg2 == NULL)
{
verbose = atoi(arg1);
g_free(arg1);
}
else
{
i = atoi(arg1);
if((job = g_tree_lookup(scheduler->job_list, &i)) == NULL)
{
g_free(cmd);
cmd = g_strdup_printf("Invalid verbose command: \"%s\"\n", buffer);
g_output_stream_write(conn->ostr, cmd, strlen(cmd), NULL, NULL);
}
else
{
job->verbose = atoi(arg2);
event_signal(job_verbose_event, job);
}
g_free(arg1);
g_free(arg2);
}
}
/* command: "priority <job_id> <level>"
*
* Scheduler should change the priority of a job. This will change the
* systems priority of the relevant job and change the priority of the job
* in the database to match. Both arguments are required for this command.
*/
else if(strcmp(cmd, "priority") == 0)
{
arg1 = g_match_info_fetch(regex_match, 3);
arg2 = g_match_info_fetch(regex_match, 5);
if(arg1 != NULL && arg2 != NULL)
{
i = atoi(arg1);
params = g_new0(arg_int, 1);
params->first = g_tree_lookup(scheduler->job_list, &i);
params->second = atoi(arg2);
event_signal(job_priority_event, params);
g_free(arg1);
g_free(arg2);
}
else
{
if(arg1) g_free(arg1);
if(arg2) g_free(arg2);
arg1 = g_strdup(buffer);
WARNING("Invalid priority command: %s\n", buffer);
snprintf(buffer, sizeof(buffer) - 1,
"ERROR: Invalid priority command: %s\n", arg1);
g_output_stream_write(conn->ostr, buffer, strlen(buffer), NULL, NULL);
g_free(arg1);
}
}
/* command: "database"
*
* The scheduler should check the database. This will normaly be sent by
* the ui when a new job has been queue and must be run.
*/
else if(strcmp(cmd, "database") == 0)
{
event_signal(database_update_event, NULL);
}
/* command: unknown
*
* The command sent does not match any of the known commands, log an error
* and inform the interface that this wasn't a command.
*/
else
{
g_output_stream_write(conn->ostr, "Invalid command: \"", 18, NULL, NULL);
g_output_stream_write(conn->ostr, buffer, strlen(buffer), NULL, NULL);
g_output_stream_write(conn->ostr, "\"\n", 2, NULL, NULL);
con_printf(main_log, "ERROR %s.%d: Interface received invalid command: %s\n", __FILE__, __LINE__, cmd);
}
g_match_info_free(regex_match);
g_free(cmd);
memset(buffer, '\0', sizeof(buffer));
}
interface_conn_destroy(conn);
return;
}
static enum http_rc_e
handler_action (struct http_request_s *rq, struct http_reply_ctx_s *rp)
{
gboolean _boolhdr (const gchar * n) {
return metautils_cfg_get_bool (
(gchar *) g_tree_lookup (rq->tree_headers, n), FALSE);
}
// Get a request id for the current request
const gchar *reqid = g_tree_lookup (rq->tree_headers, PROXYD_HEADER_REQID);
if (reqid)
oio_ext_set_reqid(reqid);
else
oio_ext_set_random_reqid();
// Then parse the request to find a handler
struct oio_url_s *url = NULL;
struct oio_requri_s ruri = {NULL, NULL, NULL, NULL};
oio_requri_parse (rq->req_uri, &ruri);
struct path_matching_s **matchings = _metacd_match (rq->cmd, ruri.path);
GRID_TRACE2("URI path[%s] query[%s] fragment[%s] matches[%u]",
ruri.path, ruri.query, ruri.fragment,
g_strv_length((gchar**)matchings));
GQuark gq_count = gq_count_unexpected;
GQuark gq_time = gq_time_unexpected;
enum http_rc_e rc;
if (!*matchings) {
rp->set_content_type ("application/json");
rp->set_body_gstr (g_string_new("{\"status\":404,\"message\":\"No handler found\"}"));
rp->set_status (HTTP_CODE_NOT_FOUND, "No handler found");
rp->finalize ();
rc = HTTPRC_DONE;
} else {
struct req_args_s args = {NULL,NULL,NULL, NULL,NULL, 0};
args.req_uri = &ruri;
args.matchings = matchings;
args.rq = rq;
args.rp = rp;
if (_boolhdr (PROXYD_HEADER_NOEMPTY))
args.flags |= FLAG_NOEMPTY;
args.url = url = _metacd_load_url (&args);
rp->subject(oio_url_get(url, OIOURL_HEXID));
gq_count = (*matchings)->last->gq_count;
gq_time = (*matchings)->last->gq_time;
GRID_TRACE("URL %s", oio_url_get(args.url, OIOURL_WHOLE));
req_handler_f handler = (*matchings)->last->u;
rc = (*handler) (&args);
}
gint64 spent = oio_ext_monotonic_time () - rq->client->time.evt_in;
network_server_stat_push4 (rq->client->server, TRUE,
gq_count, 1, gq_count_all, 1,
gq_time, spent, gq_time_all, spent);
path_matching_cleanv (matchings);
oio_requri_clear (&ruri);
oio_url_pclean (&url);
return rc;
}
static void GCC_INLINE freecell_solver_cache_stacks(
freecell_solver_hard_thread_t * hard_thread,
fcs_state_with_locations_t * new_state
)
{
int a;
#if (FCS_STACK_STORAGE == FCS_STACK_STORAGE_INTERNAL_HASH)
SFO_hash_value_t hash_value_int;
#endif
void * cached_stack;
char * new_ptr;
freecell_solver_instance_t * instance = hard_thread->instance;
int stacks_num = instance->stacks_num;
for(a=0 ; a<stacks_num ; a++)
{
/*
* If the stack is not a copy - it is already cached so skip
* to the next stack
* */
if (! (new_state->stacks_copy_on_write_flags & (1 << a)))
{
continue;
}
/* new_state->s.stacks[a] = realloc(new_state->s.stacks[a], fcs_stack_len(new_state->s, a)+1); */
fcs_compact_alloc_typed_ptr_into_var(new_ptr, char, hard_thread->stacks_allocator, (fcs_stack_len(new_state->s, a)+1));
memcpy(new_ptr, new_state->s.stacks[a], (fcs_stack_len(new_state->s, a)+1));
new_state->s.stacks[a] = new_ptr;
#if FCS_STACK_STORAGE == FCS_STACK_STORAGE_INTERNAL_HASH
/* Calculate the hash value for the stack */
/* This hash function was ripped from the Perl source code.
* (It is not derived work however). */
{
const char * s_ptr = (char*)(new_state->s.stacks[a]);
const char * s_end = s_ptr+fcs_stack_len(new_state->s, a)+1;
hash_value_int = 0;
while (s_ptr < s_end)
{
hash_value_int += (hash_value_int << 5) + *(s_ptr++);
}
hash_value_int += (hash_value_int >> 5);
}
if (hash_value_int < 0)
{
/*
* This is a bit mask that nullifies the sign bit of the
* number so it will always be positive
* */
hash_value_int &= (~(1<<((sizeof(hash_value_int)<<3)-1)));
}
cached_stack = (void *)freecell_solver_hash_insert(
instance->stacks_hash,
new_state->s.stacks[a],
freecell_solver_lookup2_hash_function(
(ub1 *)new_state->s.stacks[a],
(fcs_stack_len(new_state->s, a)+1),
24
),
hash_value_int,
1
);
#define replace_with_cached(condition_expr) \
if (cached_stack != NULL) \
{ \
fcs_compact_alloc_release(hard_thread->stacks_allocator); \
new_state->s.stacks[a] = cached_stack; \
}
replace_with_cached(cached_stack != NULL);
#elif (FCS_STACK_STORAGE == FCS_STACK_STORAGE_LIBAVL_AVL_TREE) || (FCS_STACK_STORAGE == FCS_STACK_STORAGE_LIBAVL_REDBLACK_TREE)
cached_stack =
#if (FCS_STACK_STORAGE == FCS_STACK_STORAGE_LIBAVL_AVL_TREE)
avl_insert(
#elif (FCS_STACK_STORAGE == FCS_STACK_STORAGE_LIBAVL_REDBLACK_TREE)
rb_insert(
#endif
instance->stacks_tree,
new_state->s.stacks[a]
);
#if 0
) /* In order to settle gvim and other editors that
are keen on parenthesis matching */
#endif
replace_with_cached(cached_stack != NULL);
#elif (FCS_STACK_STORAGE == FCS_STACK_STORAGE_LIBREDBLACK_TREE)
cached_stack = (void *)rbsearch(
new_state->s.stacks[a],
instance->stacks_tree
);
replace_with_cached(cached_stack != new_state->s.stacks[a]);
#elif (FCS_STACK_STORAGE == FCS_STACK_STORAGE_GLIB_TREE)
cached_stack = g_tree_lookup(
instance->stacks_tree,
(gpointer)new_state->s.stacks[a]
);
/* replace_with_cached contains an if statement */
replace_with_cached(cached_stack != NULL)
else
{
g_tree_insert(
instance->stacks_tree,
(gpointer)new_state->s.stacks[a],
(gpointer)new_state->s.stacks[a]
);
}
#elif (FCS_STACK_STORAGE == FCS_STACK_STORAGE_GLIB_HASH)
cached_stack = g_hash_table_lookup(
instance->stacks_hash,
(gconstpointer)new_state->s.stacks[a]
);
replace_with_cached(cached_stack != NULL)
else
{
g_hash_table_insert(
instance->stacks_hash,
(gpointer)new_state->s.stacks[a],
(gpointer)new_state->s.stacks[a]
);
}
#endif
}
int req_parser_add_text(req_parser *r, const char *data, size_t len)
{
const char *end;
if (!g_utf8_validate(data, len, &end))
{
return REQ_PARSER_PARSE_INVALID_REQUEST;
}
int result = REQ_PARSER_PARSE_PARTIAL_REQUEST;
int mode = (r->method == REQ_PARSER_METHOD_INVALID) ? MODE_REQUEST_LINE : MODE_HEADER_LINE;
const gchar *headerQuark = NULL;
char buf[HEADER_BUF_SIZE];
const char *token_start = data;
const char *i;
for (i = data; (i < end) && *i; i = g_utf8_next_char(i))
{
result = REQ_PARSER_PARSE_PARTIAL_REQUEST;
gunichar c = g_utf8_get_char(i);
if (c == '\r')
{
i = g_utf8_next_char(i);
c = g_utf8_get_char(i);
}
if ((c == '\n') && (*g_utf8_prev_char(i) != '\r'))
{
fprintf(stderr, "ERROR - Encountered a newline without a preceding carriage return.\n");
req_parser_reset(r);
return REQ_PARSER_PARSE_INVALID_REQUEST;
}
switch (mode)
{
case MODE_REQUEST_LINE:
if (c == ' ')
{
if (r->method == REQ_PARSER_METHOD_INVALID)
{
if (strncmp("GET", token_start, 3) == 0) r->method = REQ_PARSER_METHOD_GET;
else if (strncmp("HEAD", token_start, 4) == 0) r->method = REQ_PARSER_METHOD_HEAD;
else if (strncmp("POST", token_start, 4) == 0) r->method = REQ_PARSER_METHOD_POST;
else if (strncmp("OPTIONS", token_start, 7) == 0) r->method = REQ_PARSER_METHOD_OPTIONS;
else
{
fprintf(stderr, "ERROR - Unknown method\n");
req_parser_reset(r);
return REQ_PARSER_PARSE_INVALID_REQUEST;
}
// skip over the separating space
i = g_utf8_next_char(i);
token_start = i;
}
else if (r->path == NULL)
{
parse_uri(r, token_start, (i - token_start));
// skip over the separating space
i = g_utf8_next_char(i);
token_start = i;
}
else
{
fprintf(stderr, "ERROR - Too many spaces in request line\n");
req_parser_reset(r);
return REQ_PARSER_PARSE_INVALID_REQUEST;
}
}
else if (c == '\n')
{
if (strncmp("HTTP/1.1", token_start, min(8, i - token_start)) != 0)
{
fprintf(stderr, "ERROR - Unsupported HTTP version\n");
req_parser_reset(r);
return REQ_PARSER_PARSE_INVALID_REQUEST;
}
token_start = NULL;
mode = MODE_HEADER_LINE;
}
break;
case MODE_HEADER_LINE:
if (token_start == NULL)
{
token_start = i;
}
if ((token_start == i) && (c == '\n'))
{
result = REQ_PARSER_PARSE_OK;
mode = MODE_REQUEST_BODY;
}
else if ((headerQuark == NULL) && (c == ':'))
{
memset(buf, 0, HEADER_BUF_SIZE);
memcpy(buf, token_start, min((i - token_start), HEADER_BUF_SIZE - 1));
headerQuark = g_intern_string(buf);
token_start = NULL;
// skip over the separating space
i = g_utf8_next_char(i);
}
else if (c == '\n')
{
if (!r->headers)
{
r->headers = g_tree_new_full(quarkcmp, NULL, NULL, gstring_destroy_notify);
}
// Subtract one since we don't want the "\r" in the header
g_tree_insert(r->headers, (gpointer)headerQuark, g_string_new_len(token_start, (i - token_start) - 1));
token_start = NULL;
headerQuark = NULL;
}
break;
case MODE_REQUEST_BODY:
if (r->body == NULL)
{
token_start = i;
if (!r->headers)
{
r->headers = g_tree_new_full(quarkcmp, NULL, NULL, gstring_destroy_notify);
}
GString *length_header = g_tree_lookup(r->headers, g_intern_static_string("Content-Length"));
if (length_header)
{
int length = atoi(length_header->str);
size_t bytes_remaining = len - (data - i);
if (bytes_remaining < (size_t)length)
{
fprintf(stderr, "ERROR - Body incomplete.\n");
req_parser_reset(r);
return REQ_PARSER_PARSE_INVALID_REQUEST;
}
r->body = g_string_new_len(i, length);
i = i + length;
}
else
{
size_t length = len - (data - i);
r->body = g_string_new_len(i, length);
i = i + length;
}
result = REQ_PARSER_PARSE_OK;
}
else if (c == '\n')
{
result = REQ_PARSER_PARSE_OK;
}
break;
}
}
r->status = result;
return result;
}
static void GCC_INLINE fc_solve_cache_stacks(
fc_solve_hard_thread_t * hard_thread,
fcs_state_t * new_state_key,
fcs_state_extra_info_t * new_state_val
)
{
int a;
#if (FCS_STACK_STORAGE == FCS_STACK_STORAGE_INTERNAL_HASH)
#ifdef FCS_ENABLE_SECONDARY_HASH_VALUE
SFO_hash_value_t hash_value_int;
#endif
#elif (FCS_STACK_STORAGE == FCS_STACK_STORAGE_JUDY)
PWord_t * PValue;
#endif
void * cached_stack;
char * new_ptr;
fc_solve_instance_t * instance = hard_thread->instance;
#ifndef HARD_CODED_NUM_STACKS
DECLARE_AND_SET_GAME_PARAMS();
#endif
fcs_cards_column_t column;
register int col_len;
fcs_compact_allocator_t * stacks_allocator;
stacks_allocator = &(hard_thread->allocator);
for(a=0 ; a < LOCAL_STACKS_NUM ; a++)
{
/*
* If the stack is not a copy - it is already cached so skip
* to the next stack
* */
if (! (new_state_val->stacks_copy_on_write_flags & (1 << a)))
{
continue;
}
column = fcs_state_get_col(*new_state_key, a);
col_len = (fcs_col_len(column)+1);
new_ptr = (char*)fcs_compact_alloc_ptr(stacks_allocator, col_len);
memcpy(new_ptr, column, col_len);
new_state_key->stacks[a] = new_ptr;
#if FCS_STACK_STORAGE == FCS_STACK_STORAGE_INTERNAL_HASH
#ifdef FCS_ENABLE_SECONDARY_HASH_VALUE
/* Calculate the hash value for the stack */
/* This hash function was ripped from the Perl source code.
* (It is not derived work however). */
{
const char * s_ptr = (char*)(new_state_key->stacks[a]);
const char * s_end = s_ptr+fcs_col_len(s_ptr)+1;
hash_value_int = 0;
while (s_ptr < s_end)
{
hash_value_int += (hash_value_int << 5) + *(s_ptr++);
}
hash_value_int += (hash_value_int >> 5);
}
if (hash_value_int < 0)
{
/*
* This is a bit mask that nullifies the sign bit of the
* number so it will always be positive
* */
hash_value_int &= (~(1<<((sizeof(hash_value_int)<<3)-1)));
}
#endif
{
void * dummy;
int verdict;
column = fcs_state_get_col(*new_state_key, a);
verdict = fc_solve_hash_insert(
&(instance->stacks_hash),
column,
column,
&cached_stack,
&dummy,
perl_hash_function(
(ub1 *)new_state_key->stacks[a],
col_len
)
#ifdef FCS_ENABLE_SECONDARY_HASH_VALUE
, hash_value_int
#endif
);
replace_with_cached(verdict);
}
#elif (FCS_STACK_STORAGE == FCS_STACK_STORAGE_GOOGLE_DENSE_HASH)
{
int verdict;
void * dummy;
column = fcs_state_get_col(*new_state_key, a);
verdict = fc_solve_columns_google_hash_insert(
instance->stacks_hash,
column,
column,
&cached_stack,
&dummy
);
replace_with_cached(verdict);
}
#elif (FCS_STACK_STORAGE == FCS_STACK_STORAGE_LIBAVL2_TREE)
cached_stack =
fcs_libavl2_stacks_tree_insert(
instance->stacks_tree,
new_state_key->stacks[a]
);
replace_with_cached(cached_stack != NULL);
#elif (FCS_STACK_STORAGE == FCS_STACK_STORAGE_LIBREDBLACK_TREE)
cached_stack = (void *)rbsearch(
new_state_key->stacks[a],
instance->stacks_tree
);
replace_with_cached(cached_stack != new_state_key->stacks[a]);
#elif (FCS_STACK_STORAGE == FCS_STACK_STORAGE_GLIB_TREE)
cached_stack = g_tree_lookup(
instance->stacks_tree,
(gpointer)new_state_key->stacks[a]
);
/* replace_with_cached contains an if statement */
replace_with_cached(cached_stack != NULL)
else
{
g_tree_insert(
instance->stacks_tree,
(gpointer)new_state_key->stacks[a],
(gpointer)new_state_key->stacks[a]
);
}
#elif (FCS_STACK_STORAGE == FCS_STACK_STORAGE_GLIB_HASH)
cached_stack = g_hash_table_lookup(
instance->stacks_hash,
(gconstpointer)new_state_key->stacks[a]
);
replace_with_cached(cached_stack != NULL)
else
{
g_hash_table_insert(
instance->stacks_hash,
(gpointer)new_state_key->stacks[a],
(gpointer)new_state_key->stacks[a]
);
}
#elif (FCS_STACK_STORAGE == FCS_STACK_STORAGE_JUDY)
column = fcs_state_get_col(*new_state_key, a);
JHSI(
PValue,
instance->stacks_judy_array,
column,
(1+fcs_col_len(column))
);
/* later_todo : Handle out-of-memory. */
if (*PValue == 0)
{
/* A new stack */
*PValue = (PWord_t)column;
}
else
{
cached_stack = (void *)(*PValue);
replace_with_cached(1);
}
#else
#error FCS_STACK_STORAGE is not set to a good value.
#endif
}
}
GCC_INLINE int fc_solve_check_and_add_state(
fc_solve_soft_thread_t * soft_thread,
fcs_state_extra_info_t * new_state_val,
fcs_state_extra_info_t * * existing_state_val
)
{
#if (FCS_STATE_STORAGE == FCS_STATE_STORAGE_INTERNAL_HASH)
#ifdef FCS_ENABLE_SECONDARY_HASH_VALUE
SFO_hash_value_t hash_value_int;
#endif
#endif
#if (FCS_STATE_STORAGE == FCS_STATE_STORAGE_INDIRECT)
fcs_standalone_state_ptrs_t * pos_ptr;
int found;
#endif
fc_solve_hard_thread_t * hard_thread = soft_thread->hard_thread;
fc_solve_instance_t * instance = hard_thread->instance;
fcs_state_t * new_state_key = new_state_val->key;
int is_state_new;
if (check_if_limits_exceeded())
{
return FCS_STATE_BEGIN_SUSPEND_PROCESS;
}
if ((instance->max_depth >= 0) &&
(new_state_val->depth >= instance->max_depth))
{
return FCS_STATE_EXCEEDS_MAX_DEPTH;
}
fc_solve_cache_stacks(hard_thread, new_state_key, new_state_val);
fc_solve_canonize_state(new_state_val,
INSTANCE_FREECELLS_NUM,
INSTANCE_STACKS_NUM
);
/*
The objective of this part of the code is:
1. To check if new_state_key / new_state_val is already in the prev_states
collection.
2. If not, to add it and to set check to true.
3. If so, to set check to false.
*/
#if (FCS_STATE_STORAGE == FCS_STATE_STORAGE_INTERNAL_HASH)
#ifdef FCS_ENABLE_SECONDARY_HASH_VALUE
{
const char * s_ptr = (char*)new_state_key;
const char * s_end = s_ptr+sizeof(*new_state_key);
hash_value_int = 0;
while (s_ptr < s_end)
{
hash_value_int += (hash_value_int << 5) + *(s_ptr++);
}
hash_value_int += (hash_value_int>>5);
}
if (hash_value_int < 0)
{
/*
* This is a bit mask that nullifies the sign bit of the
* number so it will always be positive
* */
hash_value_int &= (~(1<<((sizeof(hash_value_int)<<3)-1)));
}
#endif
{
void * existing_key_void, * existing_val_void;
is_state_new = (fc_solve_hash_insert(
&(instance->hash),
new_state_key,
new_state_val,
&existing_key_void,
&existing_val_void,
perl_hash_function(
(ub1 *)new_state_key,
sizeof(*new_state_key)
)
#ifdef FCS_ENABLE_SECONDARY_HASH_VALUE
, hash_value_int
#endif
) == 0);
if (! is_state_new)
{
*existing_state_val = existing_val_void;
}
}
#elif (FCS_STATE_STORAGE == FCS_STATE_STORAGE_GOOGLE_DENSE_HASH)
{
void * existing_key_void, * existing_val_void;
is_state_new = (fc_solve_states_google_hash_insert(
instance->hash,
new_state_key,
new_state_val,
&existing_key_void,
&existing_val_void
) == 0);
if (! is_state_new)
{
*existing_state_val = existing_val_void;
}
}
#elif (FCS_STATE_STORAGE == FCS_STATE_STORAGE_INDIRECT)
/* Try to see if the state is found in indirect_prev_states */
if ((pos_ptr = (fcs_standalone_state_ptrs_t *)bsearch(&new_state_key,
instance->indirect_prev_states,
instance->num_indirect_prev_states,
sizeof(instance->indirect_prev_states[0]),
fc_solve_state_compare_indirect)) == NULL)
{
/* It isn't in prev_states, but maybe it's in the sort margin */
pos_ptr = (fcs_standalone_state_ptrs_t *)fc_solve_bsearch(
&new_state_key,
instance->indirect_prev_states_margin,
instance->num_prev_states_margin,
sizeof(instance->indirect_prev_states_margin[0]),
fc_solve_state_compare_indirect_with_context,
NULL,
&found);
if (found)
{
is_state_new = 0;
*existing_state_val = pos_ptr->val;
}
else
{
/* Insert the state into its corresponding place in the sort
* margin */
memmove((void*)(pos_ptr+1),
(void*)pos_ptr,
sizeof(*pos_ptr) *
(instance->num_prev_states_margin-
(pos_ptr-instance->indirect_prev_states_margin)
));
pos_ptr->key = new_state_key;
pos_ptr->val = new_state_val;
instance->num_prev_states_margin++;
if (instance->num_prev_states_margin >= PREV_STATES_SORT_MARGIN)
{
/* The sort margin is full, let's combine it with the main array */
instance->indirect_prev_states =
realloc(
instance->indirect_prev_states,
sizeof(instance->indirect_prev_states[0])
* (instance->num_indirect_prev_states
+ instance->num_prev_states_margin
)
);
fc_solve_merge_large_and_small_sorted_arrays(
instance->indirect_prev_states,
instance->num_indirect_prev_states,
instance->indirect_prev_states_margin,
instance->num_prev_states_margin,
sizeof(instance->indirect_prev_states[0]),
fc_solve_state_compare_indirect_with_context,
NULL
);
instance->num_indirect_prev_states += instance->num_prev_states_margin;
instance->num_prev_states_margin=0;
}
is_state_new = 1;
}
}
else
{
*existing_state_val = pos_ptr->val;
is_state_new = 0;
}
#elif (FCS_STATE_STORAGE == FCS_STATE_STORAGE_LIBREDBLACK_TREE)
*existing_state_val = (fcs_state_extra_info_t *)rbsearch(new_state_val,
instance->tree
);
is_state_new = ((*existing_state_val) == new_state_val);
#elif (FCS_STATE_STORAGE == FCS_STATE_STORAGE_LIBAVL2_TREE)
*existing_state_val = (fcs_state_extra_info_t *)
fcs_libavl2_states_tree_insert(instance->tree, new_state_val);
is_state_new = ((*existing_state_val) == NULL);
#elif (FCS_STATE_STORAGE == FCS_STATE_STORAGE_GLIB_TREE)
*existing_state_val = g_tree_lookup(instance->tree, (gpointer)new_state_key);
if (*existing_state_val == NULL)
{
/* The new state was not found. Let's insert it.
* The value must be the same as the key, so g_tree_lookup()
* will return it. */
g_tree_insert(
instance->tree,
(gpointer)new_state_key,
(gpointer)new_state_val
);
is_state_new = 1;
}
else
{
is_state_new = 0;
}
#elif (FCS_STATE_STORAGE == FCS_STATE_STORAGE_GLIB_HASH)
*existing_state_val = g_hash_table_lookup(instance->hash,
(gpointer)new_state_key);
if (*existing_state_val == NULL)
{
/* The new state was not found. Let's insert it.
* The value must be the same as the key, so g_tree_lookup()
* will return it. */
g_hash_table_insert(
instance->hash,
(gpointer)new_state_key,
(gpointer)new_state_val
);
is_state_new = 1;
}
else
{
is_state_new = 0;
}
#elif (FCS_STATE_STORAGE == FCS_STATE_STORAGE_DB_FILE)
{
DBT key, value;
key.data = new_state;
key.size = sizeof(*new_state);
if (instance->db->get(
instance->db,
NULL,
&key,
&value,
0
) == 0)
{
/* The new state was not found. Let's insert it.
* The value must be the same as the key, so g_tree_lookup()
* will return it. */
value.data = key.data;
value.size = key.size;
instance->db->put(
instance->db,
NULL,
&key,
&value,
0);
is_state_new = 1;
}
else
{
is_state_new = 0;
}
}
#elif (FCS_STATE_STORAGE == FCS_STATE_STORAGE_JUDY)
{
PWord_t * PValue;
JHSI(PValue, instance->judy_array, new_state_key, sizeof(*new_state_key));
/* later_todo : Handle out-of-memory. */
if (*PValue == 0)
{
/* A new state. */
is_state_new = 1;
*PValue = (PWord_t)(*existing_state_val = new_state_val);
}
else
{
/* Already exists. */
is_state_new = 0;
*existing_state_val = (fcs_state_extra_info_t *)(*PValue);
}
}
#else
#error no define
#endif
if (is_state_new)
{
/* The new state was not found in the cache, and it was already inserted */
if (new_state_val->parent_val)
{
new_state_val->parent_val->num_active_children++;
}
instance->num_states_in_collection++;
if (new_state_val->moves_to_parent != NULL)
{
new_state_val->moves_to_parent =
fc_solve_move_stack_compact_allocate(
hard_thread,
new_state_val->moves_to_parent
);
}
return FCS_STATE_DOES_NOT_EXIST;
}
else
{
return FCS_STATE_ALREADY_EXISTS;
}
}
static void
process_msg (xmms_ipc_client_t *client, xmms_ipc_msg_t *msg)
{
xmms_object_t *object;
xmms_object_cmd_desc_t *cmd = NULL;
xmms_object_cmd_arg_t arg;
xmms_ipc_msg_t *retmsg;
xmmsv_t *error, *arguments;
uint32_t objid, cmdid;
gint i;
g_return_if_fail (msg);
objid = xmms_ipc_msg_get_object (msg);
cmdid = xmms_ipc_msg_get_cmd (msg);
if (!xmms_ipc_msg_get_value (msg, &arguments)) {
xmms_log_error ("Cannot read command arguments. "
"Ignoring command.");
return;
}
if (objid == XMMS_IPC_OBJECT_SIGNAL) {
if (cmdid == XMMS_IPC_CMD_SIGNAL) {
xmms_ipc_register_signal (client, msg, arguments);
} else if (cmdid == XMMS_IPC_CMD_BROADCAST) {
xmms_ipc_register_broadcast (client, msg, arguments);
} else {
xmms_log_error ("Bad command id (%d) for signal object", cmdid);
}
goto out;
}
if (objid >= XMMS_IPC_OBJECT_END) {
xmms_log_error ("Bad object id (%d)", objid);
goto out;
}
g_mutex_lock (ipc_object_pool_lock);
object = ipc_object_pool->objects[objid];
g_mutex_unlock (ipc_object_pool_lock);
if (!object) {
xmms_log_error ("Object %d was not found!", objid);
goto out;
}
if (object->cmds)
cmd = g_tree_lookup (object->cmds, GUINT_TO_POINTER (cmdid));
if (!cmd) {
xmms_log_error ("No such cmd %d on object %d", cmdid, objid);
goto out;
}
xmms_object_cmd_arg_init (&arg);
for (i = 0; i < XMMS_OBJECT_CMD_MAX_ARGS; i++) {
if (!type_and_msg_to_arg (cmd->args[i], arguments, &arg, i)) {
xmms_log_error ("Error parsing args");
if (objid == XMMS_IPC_OBJECT_MAIN &&
cmdid == XMMS_IPC_CMD_HELLO) {
xmms_log_error ("Couldn't parse hello message. "
"Maybe the client or libxmmsclient "
"needs to be updated.");
}
retmsg = xmms_ipc_msg_new (objid, XMMS_IPC_CMD_ERROR);
error = xmmsv_new_error ("Corrupt msg");
xmms_ipc_msg_put_value (retmsg, error);
xmmsv_unref (error);
goto err;
}
}
xmms_object_cmd_call (object, cmdid, &arg);
if (xmms_error_isok (&arg.error)) {
retmsg = xmms_ipc_msg_new (objid, XMMS_IPC_CMD_REPLY);
xmms_ipc_handle_cmd_value (retmsg, arg.retval);
} else {
/* FIXME: or we could omit setting the command to _CMD_ERROR
* and let the client check whether the value it got is an
* error xmmsv_t. If so, don't forget to
* update the client-side of IPC too. */
retmsg = xmms_ipc_msg_new (objid, XMMS_IPC_CMD_ERROR);
error = xmmsv_new_error (xmms_error_message_get (&arg.error));
xmms_ipc_msg_put_value (retmsg, error);
xmmsv_unref (error);
/*
retmsg = xmms_ipc_msg_new (objid, XMMS_IPC_CMD_REPLY);
xmms_ipc_handle_cmd_value (retmsg, arg.retval);
*/
}
if (arg.retval)
xmmsv_unref (arg.retval);
err:
for (i = 0; i < XMMS_OBJECT_CMD_MAX_ARGS; i++) {
if (arg.values[i])
xmmsv_unref (arg.values[i]);
}
xmms_ipc_msg_set_cookie (retmsg, xmms_ipc_msg_get_cookie (msg));
g_mutex_lock (client->lock);
xmms_ipc_client_msg_write (client, retmsg);
g_mutex_unlock (client->lock);
out:
if (arguments) {
xmmsv_unref (arguments);
}
}
static void
process_msg (xmms_ipc_client_t *client, xmms_ipc_msg_t *msg)
{
xmms_object_t *object;
xmms_object_cmd_desc_t *cmd = NULL;
xmms_object_cmd_arg_t arg;
xmms_ipc_msg_t *retmsg;
uint32_t objid, cmdid;
gint i;
g_return_if_fail (msg);
objid = xmms_ipc_msg_get_object (msg);
cmdid = xmms_ipc_msg_get_cmd (msg);
if (objid == XMMS_IPC_OBJECT_SIGNAL &&
cmdid == XMMS_IPC_CMD_SIGNAL) {
gint32 signalid;
if (!xmms_ipc_msg_get_int32 (msg, &signalid)) {
xmms_log_error ("No signalid in this msg?!");
return;
}
if (signalid < 0 || signalid >= XMMS_IPC_SIGNAL_END) {
xmms_log_error ("Bad signal id (%d)", signalid);
return;
}
g_mutex_lock (client->lock);
client->pendingsignals[signalid] = xmms_ipc_msg_get_cookie (msg);
g_mutex_unlock (client->lock);
return;
} else if (objid == XMMS_IPC_OBJECT_SIGNAL &&
cmdid == XMMS_IPC_CMD_BROADCAST) {
gint32 broadcastid;
if (!xmms_ipc_msg_get_int32 (msg, &broadcastid)) {
xmms_log_error ("No broadcastid in this msg?!");
return;
}
if (broadcastid < 0 || broadcastid >= XMMS_IPC_SIGNAL_END) {
xmms_log_error ("Bad broadcast id (%d)", broadcastid);
return;
}
g_mutex_lock (client->lock);
client->broadcasts[broadcastid] =
g_list_append (client->broadcasts[broadcastid],
GUINT_TO_POINTER (xmms_ipc_msg_get_cookie (msg)));
g_mutex_unlock (client->lock);
return;
}
if (objid >= XMMS_IPC_OBJECT_END) {
xmms_log_error ("Bad object id (%d)", objid);
return;
}
g_mutex_lock (ipc_object_pool_lock);
object = ipc_object_pool->objects[objid];
g_mutex_unlock (ipc_object_pool_lock);
if (!object) {
xmms_log_error ("Object %d was not found!", objid);
return;
}
if (cmdid >= XMMS_IPC_CMD_END) {
xmms_log_error ("Bad command id (%d)", cmdid);
return;
}
if (object->cmds)
cmd = g_tree_lookup (object->cmds, GUINT_TO_POINTER (cmdid));
if (!cmd) {
xmms_log_error ("No such cmd %d on object %d", cmdid, objid);
return;
}
xmms_object_cmd_arg_init (&arg);
for (i = 0; i < XMMS_OBJECT_CMD_MAX_ARGS; i++) {
if (!type_and_msg_to_arg (cmd->args[i], msg, &arg, i)) {
xmms_log_error ("Error parsing args");
retmsg = xmms_ipc_msg_new (objid, XMMS_IPC_CMD_ERROR);
xmms_ipc_msg_put_string (retmsg, "Corrupt msg");
goto err;
}
}
xmms_object_cmd_call (object, cmdid, &arg);
if (xmms_error_isok (&arg.error)) {
retmsg = xmms_ipc_msg_new (objid, XMMS_IPC_CMD_REPLY);
xmms_ipc_handle_cmd_value (retmsg, arg.retval);
} else {
/* FIXME: or we could change the client code to transform
* CMD_ERROR to an error value_t. If so, don't forget to
* update the client-side of IPC too. */
retmsg = xmms_ipc_msg_new (objid, XMMS_IPC_CMD_ERROR);
xmms_ipc_msg_put_string (retmsg, xmms_error_message_get (&arg.error));
/*
retmsg = xmms_ipc_msg_new (objid, XMMS_IPC_CMD_REPLY);
xmms_ipc_handle_cmd_value (retmsg, arg.retval);
*/
}
if (arg.retval)
xmmsv_unref (arg.retval);
err:
for (i = 0; i < XMMS_OBJECT_CMD_MAX_ARGS; i++) {
xmmsv_unref (arg.values[i]);
}
xmms_ipc_msg_set_cookie (retmsg, xmms_ipc_msg_get_cookie (msg));
g_mutex_lock (client->lock);
xmms_ipc_client_msg_write (client, retmsg);
g_mutex_unlock (client->lock);
}
gpointer tgenpool_getRandom(TGenPool* pool) {
TGEN_ASSERT(pool);
const gint position = (gint) (rand() % g_tree_nnodes(pool->items));
return (gpointer)g_tree_lookup(pool->items, &position);
}