/* stats_tree.c * API for a counter tree for Wireshark * 2004, Luis E. G. Ontanon * * Wireshark - Network traffic analyzer * By Gerald Combs * Copyright 1998 Gerald Combs * * This program is free software; you can redistribute it and/or * modify it under the terms of the GNU General Public License * as published by the Free Software Foundation; either version 2 * of the License, or (at your option) any later version. * * This program is distributed in the hope that it will be useful, * but WITHOUT ANY WARRANTY; without even the implied warranty of * MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the * GNU General Public License for more details. * * You should have received a copy of the GNU General Public License * along with this program; if not, write to the Free Software * Foundation, Inc., 51 Franklin Street, Fifth Floor, Boston, MA 02110-1301 USA. */ /* stats_tree modifications by Deon van der Westhuysen, November 2013 * support for * - sorting by column, * - calculation of average values * - calculation of burst rate * - export to text, CSV or XML file */ #include "config.h" #include #include #include #include #include #include #include "strutil.h" #include "stats_tree.h" enum _stat_tree_columns { COL_NAME, COL_COUNT, COL_AVERAGE, COL_MIN, COL_MAX, COL_RATE, COL_PERCENT, COL_BURSTRATE, COL_BURSTTIME, N_COLUMNS }; /* used to contain the registered stat trees */ static GHashTable *registry = NULL; /* a text representation of a node if buffer is NULL returns a newly allocated string */ extern gchar* stats_tree_node_to_str(const stat_node *node, gchar *buffer, guint len) { if (buffer) { g_snprintf(buffer,len,"%s: %i",node->name, node->counter); return buffer; } else { return g_strdup_printf("%s: %i",node->name, node->counter); } } extern guint stats_tree_branch_max_namelen(const stat_node *node, guint indent) { stat_node *child; guint maxlen = 0; guint len; indent = indent > INDENT_MAX ? INDENT_MAX : indent; if (node->children) { for (child = node->children; child; child = child->next ) { len = stats_tree_branch_max_namelen(child,indent+1); maxlen = len > maxlen ? len : maxlen; } } if (node->st_flags&ST_FLG_ROOTCHILD) { gchar *display_name= stats_tree_get_displayname(node->name); len = (guint) strlen(display_name) + indent; g_free(display_name); } else { len = (guint) strlen(node->name) + indent; } maxlen = len > maxlen ? len : maxlen; return maxlen; } /* frees the resources allocated by a stat_tree node */ static void free_stat_node(stat_node *node) { stat_node *child; stat_node *next; burst_bucket *bucket; if (node->children) { for (child = node->children; child; child = next ) { /* child->next will be gone after free_stat_node, so cache it here */ next = child->next; free_stat_node(child); } } if (node->hash) g_hash_table_destroy(node->hash); while (node->bh) { bucket = node->bh; node->bh = bucket->next; g_free(bucket); } g_free(node->rng); g_free(node->name); g_free(node); } /* destroys the whole tree instance */ extern void stats_tree_free(stats_tree *st) { stat_node *child; stat_node *next; if (!st) return; g_free(st->filter); g_hash_table_destroy(st->names); g_ptr_array_free(st->parents,TRUE); g_free(st->display_name); for (child = st->root.children; child; child = next ) { /* child->next will be gone after free_stat_node, so cache it here */ next = child->next; free_stat_node(child); } if (st->cfg->free_tree_pr) st->cfg->free_tree_pr(st); if (st->cfg->cleanup) st->cfg->cleanup(st); g_free(st); } /* reset a node to its original state */ static void reset_stat_node(stat_node *node) { stat_node *child; burst_bucket *bucket; node->counter = 0; node->total = 0; node->minvalue = G_MAXINT; node->maxvalue = G_MININT; node->st_flags = 0; while (node->bh) { bucket = node->bh; node->bh = bucket->next; g_free(bucket); } node->bh = (burst_bucket*)g_malloc0(sizeof(burst_bucket)); node->bt = node->bh; node->bcount = 0; node->max_burst = 0; node->burst_time = -1.0; if (node->children) { for (child = node->children; child; child = child->next ) reset_stat_node(child); } } /* reset the whole stats_tree */ extern void stats_tree_reset(void *p) { stats_tree *st = (stats_tree *)p; st->start = -1.0; st->elapsed = 0.0; st->now = - 1.0; reset_stat_node(&st->root); } extern void stats_tree_reinit(void *p) { stats_tree *st = (stats_tree *)p; stat_node *child; stat_node *next; for (child = st->root.children; child; child = next) { /* child->next will be gone after free_stat_node, so cache it here */ next = child->next; free_stat_node(child); } st->root.children = NULL; st->root.counter = 0; st->root.total = 0; st->root.minvalue = G_MAXINT; st->root.maxvalue = G_MININT; st->root.st_flags = 0; st->root.bh = (burst_bucket*)g_malloc0(sizeof(burst_bucket)); st->root.bt = st->root.bh; st->root.bcount = 0; st->root.max_burst = 0; st->root.burst_time = -1.0; /* No more stat_nodes left in tree - clean out hash, array */ g_hash_table_remove_all(st->names); if (st->parents->len>1) { g_ptr_array_remove_range(st->parents, 1, st->parents->len-1); } /* Do not update st_flags for the tree (sorting) - leave as was */ st->num_columns = N_COLUMNS; g_free(st->display_name); st->display_name= stats_tree_get_displayname(st->cfg->name); if (st->cfg->init) { st->cfg->init(st); } } /* register a new stats_tree */ extern void stats_tree_register_with_group(const char *tapname, const char *abbr, const char *name, guint flags, stat_tree_packet_cb packet, stat_tree_init_cb init, stat_tree_cleanup_cb cleanup, register_stat_group_t stat_group) { stats_tree_cfg *cfg = (stats_tree_cfg *)g_malloc0( sizeof(stats_tree_cfg) ); /* at the very least the abbrev and the packet function should be given */ g_assert( tapname && abbr && packet ); cfg->tapname = g_strdup(tapname); cfg->abbr = g_strdup(abbr); cfg->name = name ? g_strdup(name) : g_strdup(abbr); cfg->stat_group = stat_group; cfg->packet = packet; cfg->init = init; cfg->cleanup = cleanup; cfg->flags = flags&~ST_FLG_MASK; cfg->st_flags = flags&ST_FLG_MASK; if (!registry) registry = g_hash_table_new(g_str_hash,g_str_equal); g_hash_table_insert(registry,cfg->abbr,cfg); } /* register a new stats_tree with default group REGISTER_STAT_GROUP_UNSORTED */ extern void stats_tree_register(const char *tapname, const char *abbr, const char *name, guint flags, stat_tree_packet_cb packet, stat_tree_init_cb init, stat_tree_cleanup_cb cleanup) { stats_tree_register_with_group(tapname, abbr, name, flags, packet, init, cleanup, REGISTER_STAT_GROUP_UNSORTED); } /* register a new stat_tree with default group REGISTER_STAT_GROUP_UNSORTED from a plugin */ extern void stats_tree_register_plugin(const char *tapname, const char *abbr, const char *name, guint flags, stat_tree_packet_cb packet, stat_tree_init_cb init, stat_tree_cleanup_cb cleanup) { stats_tree_cfg *cfg; stats_tree_register(tapname, abbr, name, flags, packet, init, cleanup); cfg = stats_tree_get_cfg_by_abbr(abbr); cfg->plugin = TRUE; } extern stats_tree* stats_tree_new(stats_tree_cfg *cfg, tree_pres *pr, const char *filter) { stats_tree *st = (stats_tree *)g_malloc0(sizeof(stats_tree)); st->cfg = cfg; st->pr = pr; st->names = g_hash_table_new(g_str_hash,g_str_equal); st->parents = g_ptr_array_new(); st->filter = g_strdup(filter); st->start = -1.0; st->elapsed = 0.0; st->root.minvalue = G_MAXINT; st->root.maxvalue = G_MININT; st->root.bh = (burst_bucket*)g_malloc0(sizeof(burst_bucket)); st->root.bt = st->root.bh; st->root.burst_time = -1.0; st->root.name = stats_tree_get_displayname(cfg->name); st->root.st = st; st->st_flags = st->cfg->st_flags; if (!(st->st_flags&ST_FLG_SRTCOL_MASK)) { /* No default sort specified - use preferences */ st->st_flags |= prefs.st_sort_defcolflag<st_flags |= ST_FLG_SORT_DESC; } } st->num_columns = N_COLUMNS; st->display_name= stats_tree_get_displayname(st->cfg->name); g_ptr_array_add(st->parents,&st->root); return st; } /* will be the tap packet cb */ extern int stats_tree_packet(void *p, packet_info *pinfo, epan_dissect_t *edt, const void *pri) { stats_tree *st = (stats_tree *)p; st->now = nstime_to_msec(&pinfo->rel_ts); if (st->start < 0.0) st->start = st->now; st->elapsed = st->now - st->start; if (st->cfg->packet) return st->cfg->packet(st,pinfo,edt,pri); else return 0; } extern stats_tree_cfg* stats_tree_get_cfg_by_abbr(const char *abbr) { if (!abbr) return NULL; return (stats_tree_cfg *)g_hash_table_lookup(registry,abbr); } static gint compare_stat_menu_item(gconstpointer stat_a, gconstpointer stat_b) { stats_tree_cfg* stat_cfg_a = (stats_tree_cfg*)stat_a; stats_tree_cfg* stat_cfg_b = (stats_tree_cfg*)stat_b; return strcmp(stat_cfg_a->name, stat_cfg_b->name); } extern GList* stats_tree_get_cfg_list(void) { GList* registry_list = g_hash_table_get_values(registry); /* Now sort the list so they can show up in the menu alphabetically */ return g_list_sort(registry_list, compare_stat_menu_item); } struct _stats_tree_pres_cbs { void (*setup_node_pr)(stat_node*); void (*free_tree_pr)(stats_tree*); }; static void setup_tree_presentation(gpointer k _U_, gpointer v, gpointer p) { stats_tree_cfg *cfg = (stats_tree_cfg *)v; struct _stats_tree_pres_cbs *d = (struct _stats_tree_pres_cbs *)p; cfg->in_use = FALSE; cfg->setup_node_pr = d->setup_node_pr; cfg->free_tree_pr = d->free_tree_pr; } extern void stats_tree_presentation(void (*registry_iterator)(gpointer,gpointer,gpointer), void (*setup_node_pr)(stat_node*), void (*free_tree_pr)(stats_tree*), void *data) { static struct _stats_tree_pres_cbs d; d.setup_node_pr = setup_node_pr; d.free_tree_pr = free_tree_pr; if (registry) g_hash_table_foreach(registry,setup_tree_presentation,&d); if (registry_iterator && registry) g_hash_table_foreach(registry,registry_iterator,data); } /* creates a stat_tree node * name: the name of the stats_tree node * parent_name: the name of the ALREADY REGISTERED parent * with_hash: whether or not it should keep a hash with its children names * as_named_node: whether or not it has to be registered in the root namespace */ static stat_node* new_stat_node(stats_tree *st, const gchar *name, int parent_id, gboolean with_hash, gboolean as_parent_node) { stat_node *node = (stat_node *)g_malloc0(sizeof(stat_node)); stat_node *last_chld = NULL; node->minvalue = G_MAXINT; node->maxvalue = G_MININT; node->st_flags = parent_id?0:ST_FLG_ROOTCHILD; node->bh = (burst_bucket*)g_malloc0(sizeof(burst_bucket)); node->bt = node->bh; node->burst_time = -1.0; node->name = g_strdup(name); node->st = (stats_tree*) st; node->hash = with_hash ? g_hash_table_new(g_str_hash,g_str_equal) : NULL; if (as_parent_node) { g_hash_table_insert(st->names, node->name, node); g_ptr_array_add(st->parents,node); node->id = st->parents->len - 1; } else { node->id = -1; } if (parent_id >= 0 && parent_id < (int) st->parents->len ) { node->parent = (stat_node *)g_ptr_array_index(st->parents,parent_id); } else { /* ??? should we set the parent to be root ??? */ g_assert_not_reached(); } if (node->parent->children) { /* insert as last child */ for (last_chld = node->parent->children; last_chld->next; last_chld = last_chld->next ) ; last_chld->next = node; } else { /* insert as first child */ node->parent->children = node; } if(node->parent->hash) { g_hash_table_insert(node->parent->hash,node->name,node); } if (st->cfg->setup_node_pr) { st->cfg->setup_node_pr(node); } else { node->pr = NULL; } return node; } /***/ extern int stats_tree_create_node(stats_tree *st, const gchar *name, int parent_id, gboolean with_hash) { stat_node *node = new_stat_node(st,name,parent_id,with_hash,TRUE); if (node) return node->id; else return 0; } /* XXX: should this be a macro? */ extern int stats_tree_create_node_by_pname(stats_tree *st, const gchar *name, const gchar *parent_name, gboolean with_children) { return stats_tree_create_node(st,name,stats_tree_parent_id_by_name(st,parent_name),with_children); } /* Internal function to update the burst calculation data - add entry to bucket */ static void update_burst_calc(stat_node *node, gint value) { double current_bucket; double burstwin; burst_bucket *bn; if (!prefs.st_enable_burstinfo) { return; } /* NB thebucket list should always contain at least one node - even if it is */ /* the dummy created at init time. Head and tail should never be NULL! */ current_bucket= floor(node->st->now/prefs.st_burst_resolution); burstwin= prefs.st_burst_windowlen/prefs.st_burst_resolution; if (current_bucket>node->bt->bucket_no) { /* Must add a new bucket at the burst list tail */ bn = (burst_bucket*)g_malloc0(sizeof(burst_bucket)); bn->count = value; bn->bucket_no = current_bucket; bn->start_time = node->st->now; bn->prev = node->bt; node->bt->next = bn; node->bt = bn; /* And add value to the current burst count for node */ node->bcount += value; /* Check if bucket list head is now too old and must be removed */ while (current_bucket>=(node->bh->bucket_no+burstwin)) { /* off with its head! */ bn = node->bh; node->bh = bn->next; node->bh->prev = NULL; node->bcount -= bn->count; g_free(bn); } } else if (current_bucketbh->bucket_no) { /* Packet must be added at head of burst list - check if not too old */ if ((current_bucket+burstwin)>node->bt->bucket_no) { /* packet still within the window */ bn = (burst_bucket*)g_malloc0(sizeof(burst_bucket)); bn->count = value; bn->bucket_no = current_bucket; bn->start_time = node->st->now; bn->next = node->bh; node->bh->prev = bn; node->bh = bn; /* And add value to the current burst count for node */ node->bcount += value; } } else { /* Somewhere in the middle... */ burst_bucket *search = node->bt; while (current_bucketbucket_no) { search = search->prev; } if (current_bucket==search->bucket_no) { /* found existing bucket, increase value */ search->count += value; if (search->start_time>node->st->now) { search->start_time = node->st->now; } } else { /* must add a new bucket after bn. */ bn = (burst_bucket*)g_malloc0(sizeof(burst_bucket)); bn->count = value; bn->bucket_no = current_bucket; bn->start_time = node->st->now; bn->prev = search; bn->next = search->next; search->next = bn; bn->next->prev = bn; } node->bcount += value; } if (node->bcount>node->max_burst) { /* new record burst */ node->max_burst = node->bcount; node->burst_time = node->bh->start_time; } } /* * Increases by delta the counter of the node whose name is given * if the node does not exist yet it's created (with counter=1) * using parent_name as parent node. * with_hash=TRUE to indicate that the created node will have a parent */ extern int stats_tree_manip_node(manip_node_mode mode, stats_tree *st, const char *name, int parent_id, gboolean with_hash, gint value) { stat_node *node = NULL; stat_node *parent = NULL; g_assert( parent_id >= 0 && parent_id < (int) st->parents->len ); parent = (stat_node *)g_ptr_array_index(st->parents,parent_id); if( parent->hash ) { node = (stat_node *)g_hash_table_lookup(parent->hash,name); } else { node = (stat_node *)g_hash_table_lookup(st->names,name); } if ( node == NULL ) node = new_stat_node(st,name,parent_id,with_hash,with_hash); switch (mode) { case MN_INCREASE: node->counter += value; update_burst_calc(node, value); break; case MN_SET: node->counter = value; break; case MN_AVERAGE: node->counter++; update_burst_calc(node, 1); /* fall through to average code */ case MN_AVERAGE_NOTICK: node->total += value; if (node->minvalue > value) { node->minvalue = value; } if (node->maxvalue < value) { node->maxvalue = value; } node->st_flags |= ST_FLG_AVERAGE; break; case MN_SET_FLAGS: node->st_flags |= value; break; case MN_CLEAR_FLAGS: node->st_flags &= ~value; break; } if (node) return node->id; else return -1; } extern char* stats_tree_get_abbr(const char *opt_arg) { guint i; /* XXX: this fails when tshark is given any options after the -z */ g_assert(opt_arg != NULL); for (i=0; opt_arg[i] && opt_arg[i] != ','; i++); if (opt_arg[i] == ',') { return g_strndup(opt_arg,i); } else { return NULL; } } /* * This function accepts an input string which should define a long integer range. * The normal result is a struct containing the floor and ceil value of this * range. * * It is allowed to define a range string in the following ways : * * "0-10" -> { 0, 10 } * "-0" -> { G_MININT, 0 } * "0-" -> { 0, G_MAXINT } * "-" -> { G_MININT, G_MAXINT } * * Note that this function is robust to buggy input string. If in some cases it * returns NULL, it but may also return a pair with undefined values. * */ static range_pair_t* get_range(char *rngstr) { gchar **split; range_pair_t *rng; split = g_strsplit((gchar*)rngstr,"-",2); /* empty string */ if (split[0] == NULL) { g_strfreev(split); return NULL; } rng = (range_pair_t *)g_malloc(sizeof(range_pair_t)); if (split[1] == NULL) { /* means we have a non empty string with no delimiter * so it must be a single number */ rng->floor = (gint)strtol(split[0],NULL,10); rng->ceil = rng->floor; } else { /* string == "X-?" */ if (*(split[0]) != '\0') { rng->floor = (gint)strtol(split[0],NULL,10); } else { /* string == "-?" */ rng->floor = G_MININT; } /* string != "?-" */ if (*(split[1]) != '\0') { rng->ceil = (gint)strtol(split[1],NULL,10); } else { /* string == "?-" */ rng->ceil = G_MAXINT; } } g_strfreev(split); return rng; } extern int stats_tree_create_range_node(stats_tree *st, const gchar *name, int parent_id, ...) { va_list list; gchar *curr_range; stat_node *rng_root = new_stat_node(st, name, parent_id, FALSE, TRUE); stat_node *range_node = NULL; va_start( list, parent_id ); while (( curr_range = va_arg(list, gchar*) )) { range_node = new_stat_node(st, curr_range, rng_root->id, FALSE, FALSE); range_node->rng = get_range(curr_range); } va_end( list ); return rng_root->id; } extern int stats_tree_create_range_node_string(stats_tree *st, const gchar *name, int parent_id, int num_str_ranges, gchar** str_ranges) { int i; stat_node *rng_root = new_stat_node(st, name, parent_id, FALSE, TRUE); stat_node *range_node = NULL; for (i = 0; i < num_str_ranges; i++) { range_node = new_stat_node(st, str_ranges[i], rng_root->id, FALSE, FALSE); range_node->rng = get_range(str_ranges[i]); } return rng_root->id; } /****/ extern int stats_tree_parent_id_by_name(stats_tree *st, const gchar *parent_name) { stat_node *node = (stat_node *)g_hash_table_lookup(st->names,parent_name); if (node) return node->id; else return 0; /* XXX: this is the root shoud we return -1 instead?*/ } extern int stats_tree_range_node_with_pname(stats_tree *st, const gchar *name, const gchar *parent_name, ...) { va_list list; gchar *curr_range; stat_node *range_node = NULL; int parent_id = stats_tree_parent_id_by_name(st,parent_name); stat_node *rng_root = new_stat_node(st, name, parent_id, FALSE, TRUE); va_start( list, parent_name ); while (( curr_range = va_arg(list, gchar*) )) { range_node = new_stat_node(st, curr_range, rng_root->id, FALSE, FALSE); range_node->rng = get_range(curr_range); } va_end( list ); return rng_root->id; } extern int stats_tree_tick_range(stats_tree *st, const gchar *name, int parent_id, int value_in_range) { stat_node *node = NULL; stat_node *parent = NULL; stat_node *child = NULL; gint stat_floor, stat_ceil; if (parent_id >= 0 && parent_id < (int) st->parents->len) { parent = (stat_node *)g_ptr_array_index(st->parents,parent_id); } else { g_assert_not_reached(); } if( parent->hash ) { node = (stat_node *)g_hash_table_lookup(parent->hash,name); } else { node = (stat_node *)g_hash_table_lookup(st->names,name); } if ( node == NULL ) g_assert_not_reached(); /* update stats for container node. counter should already be ticked so we only update total and min/max */ node->total += value_in_range; if (node->minvalue > value_in_range) { node->minvalue = value_in_range; } if (node->maxvalue < value_in_range) { node->maxvalue = value_in_range; } node->st_flags |= ST_FLG_AVERAGE; for ( child = node->children; child; child = child->next) { stat_floor = child->rng->floor; stat_ceil = child->rng->ceil; if ( value_in_range >= stat_floor && value_in_range <= stat_ceil ) { child->counter++; child->total += value_in_range; if (child->minvalue > value_in_range) { child->minvalue = value_in_range; } if (child->maxvalue < value_in_range) { child->maxvalue = value_in_range; } child->st_flags |= ST_FLG_AVERAGE; update_burst_calc(child, 1); return node->id; } } return node->id; } extern int stats_tree_create_pivot(stats_tree *st, const gchar *name, int parent_id) { stat_node *node = new_stat_node(st,name,parent_id,TRUE,TRUE); if (node) return node->id; else return 0; } extern int stats_tree_create_pivot_by_pname(stats_tree *st, const gchar *name, const gchar *parent_name) { int parent_id = stats_tree_parent_id_by_name(st,parent_name); stat_node *node; node = new_stat_node(st,name,parent_id,TRUE,TRUE); if (node) return node->id; else return 0; } extern int stats_tree_tick_pivot(stats_tree *st, int pivot_id, const gchar *pivot_value) { stat_node *parent = (stat_node *)g_ptr_array_index(st->parents,pivot_id); parent->counter++; update_burst_calc(parent, 1); stats_tree_manip_node( MN_INCREASE, st, pivot_value, pivot_id, FALSE, 1); return pivot_id; } extern gchar* stats_tree_get_displayname (gchar* fullname) { gchar *buf = g_strdup(fullname); gchar *sep; if (prefs.st_sort_showfullname) { return buf; /* unmodifed */ } sep = buf; while ((sep = strchr(sep,'/')) != NULL) { if (*(++sep)=='/') { /* escapeded slash - two slash characters after each other */ memmove(sep,sep+1,strlen(sep)); } else { /* we got a new path separator */ memmove(buf,sep,strlen(sep)+1); sep = buf; } } return buf; } extern gint stats_tree_get_default_sort_col (stats_tree *st) { switch ((st->st_flags&ST_FLG_SRTCOL_MASK)>>ST_FLG_SRTCOL_SHIFT) { case ST_SORT_COL_NAME: return COL_NAME; case ST_SORT_COL_COUNT: return COL_COUNT; case ST_SORT_COL_AVG: return COL_AVERAGE; case ST_SORT_COL_MIN: return COL_MIN; case ST_SORT_COL_MAX: return COL_MAX; case ST_SORT_COL_BURSTRATE: return COL_BURSTRATE; } return COL_COUNT; /* nothing specific set */ } extern gboolean stats_tree_is_default_sort_DESC (stats_tree *st) { return st->st_flags&ST_FLG_SORT_DESC; } extern const gchar* stats_tree_get_column_name (gint col_index) { switch (col_index) { case COL_NAME: return "Topic / Item"; case COL_COUNT: return "Count"; case COL_AVERAGE: return "Average"; case COL_MIN: return "Min val"; case COL_MAX: return "Max val"; case COL_RATE: return "Rate (ms)"; case COL_PERCENT: return "Percent"; case COL_BURSTRATE: return prefs.st_burst_showcount?"Burst count":"Burst rate"; case COL_BURSTTIME: return "Burst start"; default: return "(Unknown)"; } } extern gint stats_tree_get_column_size (gint col_index) { if (col_index==COL_NAME) { return 36; /* but caller should really call stats_tree_branch_max_namelen() */ } if (col_indexst->num_columns)); values[COL_NAME]= (node->st_flags&ST_FLG_ROOTCHILD)?stats_tree_get_displayname(node->name):g_strdup(node->name); values[COL_COUNT]= g_strdup_printf("%u",node->counter); values[COL_AVERAGE]= ((node->st_flags&ST_FLG_AVERAGE)||node->rng)? (node->counter?g_strdup_printf("%.2f",((float)node->total)/node->counter):g_strdup("-")): g_strdup(""); values[COL_MIN]= ((node->st_flags&ST_FLG_AVERAGE)||node->rng)? (node->counter?g_strdup_printf("%u",node->minvalue):g_strdup("-")): g_strdup(""); values[COL_MAX]= ((node->st_flags&ST_FLG_AVERAGE)||node->rng)? (node->counter?g_strdup_printf("%u",node->maxvalue):g_strdup("-")): g_strdup(""); values[COL_RATE]= (node->st->elapsed)?g_strdup_printf("%.4f",((float)node->counter)/node->st->elapsed):g_strdup(""); values[COL_PERCENT]= ((node->parent)&&(node->parent->counter))? g_strdup_printf("%.2f%%",(node->counter*100.0)/node->parent->counter): (node->parent==&(node->st->root)?g_strdup("100%"):g_strdup("")); if (node->st->num_columns>COL_BURSTTIME) { values[COL_BURSTRATE]= (!prefs.st_enable_burstinfo)?g_strdup(""): (node->max_burst?(prefs.st_burst_showcount? g_strdup_printf("%d",node->max_burst): g_strdup_printf("%.4f",((double)node->max_burst)/prefs.st_burst_windowlen)): g_strdup("-")); values[COL_BURSTTIME]= (!prefs.st_enable_burstinfo)?g_strdup(""): (node->max_burst?g_strdup_printf("%.3f",((double)node->burst_time/1000.0)):g_strdup("-")); } return values; } extern gint stats_tree_sort_compare (const stat_node *a, const stat_node *b, gint sort_column, gboolean sort_descending) { int result = 0; float avg_a, avg_b; if (prefs.st_sort_rng_nameonly&&(a->rng&&b->rng)) { /* always sort ranges by range name */ result = a->rng->floor - b->rng->floor; if (sort_descending&&(!prefs.st_sort_rng_fixorder)) { result= -result; } return result; } switch (sort_column) { case COL_NAME: if (a->rng&&b->rng) { result = a->rng->floor - b->rng->floor; } else if (prefs.st_sort_casesensitve) { result = strcmp(a->name,b->name); } else { result = g_ascii_strcasecmp(a->name,b->name); } break; case COL_RATE: case COL_PERCENT: case COL_COUNT: result = a->counter - b->counter; break; case COL_AVERAGE: if (a->counter) { result= 1; /* assume a>b */ if (b->counter) { avg_a= ((float)a->total)/a->counter; avg_b= ((float)b->total)/b->counter; result= (avg_a>avg_b)?1:((avg_aa */ } break; case COL_MIN: result = a->minvalue - b->minvalue; break; case COL_MAX: result = a->maxvalue - b->maxvalue; break; case COL_BURSTRATE: result = a->max_burst - b->max_burst; break; case COL_BURSTTIME: result = (a->burst_time>b->burst_time)?1:((a->burst_timeburst_time)?-1:0); break; default: /* no sort comparison found for column - must update this switch statement */ g_assert_not_reached(); } /* break tie between items with same primary search result */ if (!result) { if (sort_column==COL_NAME) { result = a->counter - b->counter; } else { if (a->rng&&b->rng) { result = a->rng->floor - b->rng->floor; } else if (prefs.st_sort_casesensitve) { result = strcmp(a->name,b->name); } else { result = g_ascii_strcasecmp(a->name,b->name); } } } /* take into account sort order */ if (sort_descending) { result= -result; } if ((a->st_flags&ST_FLG_SORT_TOP)!=(b->st_flags&ST_FLG_SORT_TOP)) { /* different sort groups top vs non-top */ result= (a->st_flags&ST_FLG_SORT_TOP)?-1:1; } return result; } extern GString* stats_tree_format_as_str(const stats_tree* st, st_format_type format_type, gint sort_column, gboolean sort_descending) { int maxnamelen= stats_tree_branch_max_namelen(&st->root,0); stat_node *child; GString *s; int count; gchar *separator = NULL; switch(format_type) { case ST_FORMAT_YAML: s = g_string_new("---\n"); break; case ST_FORMAT_XML: s = g_string_new("\n"); break; case ST_FORMAT_CSV: s = g_string_new("\"level\",\"parent\","); for (count = 0; countnum_columns; count++) { g_string_append_printf(s,"\"%s\",",stats_tree_get_column_name(count)); } g_string_append (s,"\n"); break; case ST_FORMAT_PLAIN: { char fmt[16]; int sep_length; sep_length= maxnamelen; for (count = 1; countnum_columns; count++) { sep_length += stats_tree_get_column_size(count)+2; } separator = (gchar *)g_malloc(sep_length+1); memset (separator, '=', sep_length); separator[sep_length] = 0; s = g_string_new("\n"); g_string_append(s,separator); g_string_append_printf(s,"\n%s:\n",st->cfg->name); g_snprintf (fmt,(gulong)sizeof(fmt),"%%-%us",maxnamelen); g_string_append_printf(s,fmt,stats_tree_get_column_name(0)); for (count = 1; countnum_columns; count++) { g_snprintf (fmt,(gulong)sizeof(fmt)," %%-%us",stats_tree_get_column_size(count)+1); g_string_append_printf(s,fmt,stats_tree_get_column_name(count)); } memset (separator, '-', sep_length); g_string_append_printf(s,"\n%s\n",separator); } break; default: return g_string_new("unknown format for stats_tree\n"); } for (child = st->root.children; child; child = child->next ) { stats_tree_format_node_as_str(child,s,format_type,0,"",maxnamelen,sort_column,sort_descending); } if (format_type==ST_FORMAT_PLAIN) { g_string_append_printf(s,"\n%s\n",separator); g_free(separator); } return s; } typedef struct { gint sort_column; gboolean sort_descending; } sortinfo; /* Function to compare elements for child array sort. a and b are children, user_data points to a st_flags value */ extern gint stat_node_array_sortcmp (gconstpointer a, gconstpointer b, gpointer user_data) { /* user_data is *guint value to st_flags */ return stats_tree_sort_compare (*(const stat_node**)a,*(const stat_node**)b, ((sortinfo*)user_data)->sort_column,((sortinfo*)user_data)->sort_descending); } static gchar* clean_for_xml_tag (gchar *str) { gchar *s = str; while ((s=strpbrk(s,"!\"#$%%&'()*+,/;<=>?@[\\]^`{|}~ ")) != NULL) { *(s++) = '-'; } return str; } /** helper funcation to add note to formatted stats_tree */ WS_DLL_PUBLIC void stats_tree_format_node_as_str(const stat_node *node, GString *s, st_format_type format_type, guint indent, const gchar *path, gint maxnamelen, gint sort_column, gboolean sort_descending) { int count; int num_columns= node->st->num_columns; gchar **values= stats_tree_get_values_from_node(node); stat_node *child; sortinfo si; gchar *full_path; char fmt[16] = "%s%s%s"; switch(format_type) { case ST_FORMAT_YAML: if (indent) { g_snprintf(fmt, (gulong)sizeof(fmt), "%%%ds%%s%%s", indent*4-2); } g_string_append_printf(s, fmt, "", indent?"- ":"", "Description"); g_string_append_printf(s, ": \"%s\"\n", values[0]); for (count = 1; countchildren) { g_string_append_printf(s, fmt, "", indent?" ":"", "Items:\n"); } break; case ST_FORMAT_XML: { char *itemname = xml_escape(values[0]); g_string_append_printf(s,"\n",itemname, node->rng?" isrange=\"true\"":""); g_free(itemname); for (count = 1; count",clean_for_xml_tag(colname)); g_string_append_printf(s,"%s\n",values[count],colname); g_free(colname); } } break; case ST_FORMAT_CSV: g_string_append_printf(s,"%d,\"%s\",\"%s\"",indent,path,values[0]); for (count = 1; count INDENT_MAX ? INDENT_MAX : indent; full_path= g_strdup_printf ("%s/%s",path,values[0]); for (count = 0; countchildren) { GArray *Children= g_array_new(FALSE,FALSE,sizeof(child)); for (child = node->children; child; child = child->next ) { g_array_append_val(Children,child); } si.sort_column = sort_column; si.sort_descending = sort_descending; g_array_sort_with_data(Children,stat_node_array_sortcmp,&si); for (count = 0; count<((int)Children->len); count++) { stats_tree_format_node_as_str(g_array_index(Children,stat_node*,count), s, format_type, indent, full_path, maxnamelen, sort_column, sort_descending); } g_array_free(Children,FALSE); } g_free(full_path); if (format_type==ST_FORMAT_XML) { g_string_append(s,"\n"); } } /* * Editor modelines - http://www.wireshark.org/tools/modelines.html * * Local variables: * c-basic-offset: 4 * tab-width: 8 * indent-tabs-mode: nil * End: * * vi: set shiftwidth=4 tabstop=8 expandtab: * :indentSize=4:tabSize=8:noTabs=true: */