Files
util.nix/package/c/hectic/hectic.c

2177 lines
74 KiB
C

#include "hectic.h"
#include <fnmatch.h>
#include <string.h>
#include <assert.h>
// On systems without strsep, provide a custom implementation
#ifndef _GNU_SOURCE
#define _GNU_SOURCE 1
#endif
#ifndef HAVE_STRSEP
char *strsep(char **stringp, const char *delim) {
char *start = *stringp;
char *p;
if (!start)
return NULL;
p = start;
while (*p && !strchr(delim, *p))
p++;
if (*p) {
*p++ = '\0';
*stringp = p;
} else {
*stringp = NULL;
}
return start;
}
#endif
// Forward declarations
void free_log_rules();
const char* json_type_to_string(JsonType type);
// Global color mode variable definition
ColorMode color_mode = COLOR_MODE_AUTO;
// Global logging variables
LogLevel current_log_level = LOG_LEVEL_INFO;
LogRule *log_rules = NULL;
const char* color_mode_to_string(ColorMode mode) {
switch (mode) {
case COLOR_MODE_AUTO: return "AUTO";
case COLOR_MODE_FORCE: return "FORCE";
case COLOR_MODE_DISABLE: return "DISABLE";
default: return "UNKNOWN";
}
}
void set_output_color_mode(ColorMode mode) {
// Log the color mode change
const char* mode_name = color_mode_to_string(mode);
// Using fprintf since this might be called before logging is initialized
raise_message(LOG_LEVEL_INFO, __FILE__, __func__, __LINE__, "CONFIG: Setting output color mode to %s", mode_name);
// Set the mode
color_mode = mode;
}
#define POSITION_INFO_DECLARATION const char *file, const char *func, int line
#define POSITION_INFO file, func, line
#define CTX_DECLARATION POSITION_INFO_DECLARATION, Arena *arena
#define CTX(lifetimed_arena) POSITION_INFO, arena = (lifetimed_arena)
// ------------
// -- Logger --
// ------------
const char* log_level_to_string(LogLevel level) {
switch (level) {
case LOG_LEVEL_TRACE: return "TRACE";
case LOG_LEVEL_DEBUG: return "DEBUG";
case LOG_LEVEL_LOG: return "LOG";
case LOG_LEVEL_INFO: return "INFO";
case LOG_LEVEL_NOTICE: return "NOTICE";
case LOG_LEVEL_WARN: return "WARN";
case LOG_LEVEL_EXCEPTION: return "EXCEPTION";
default: return "UNKNOWN";
}
}
const char* log_level_to_color(LogLevel level) {
switch (level) {
case LOG_LEVEL_TRACE: return OPTIONAL_COLOR(COLOR_GREEN);
case LOG_LEVEL_DEBUG: return OPTIONAL_COLOR(COLOR_BLUE);
case LOG_LEVEL_LOG: return OPTIONAL_COLOR(COLOR_CYAN);
case LOG_LEVEL_INFO: return OPTIONAL_COLOR(COLOR_GREEN);
case LOG_LEVEL_NOTICE: return OPTIONAL_COLOR(COLOR_CYAN);
case LOG_LEVEL_WARN: return OPTIONAL_COLOR(COLOR_YELLOW);
case LOG_LEVEL_EXCEPTION: return OPTIONAL_COLOR(COLOR_RED);
default: return OPTIONAL_COLOR(COLOR_RESET);
}
}
LogLevel log_level_from_string(const char *level_str) {
if (!level_str) return LOG_LEVEL_INFO;
if (strcmp(level_str, "TRACE") == 0)
return LOG_LEVEL_TRACE;
else if (strcmp(level_str, "DEBUG") == 0)
return LOG_LEVEL_DEBUG;
else if (strcmp(level_str, "LOG") == 0)
return LOG_LEVEL_LOG;
else if (strcmp(level_str, "INFO") == 0)
return LOG_LEVEL_INFO;
else if (strcmp(level_str, "NOTICE") == 0)
return LOG_LEVEL_NOTICE;
else if (strcmp(level_str, "WARN") == 0)
return LOG_LEVEL_WARN;
else if (strcmp(level_str, "EXCEPTION") == 0)
return LOG_LEVEL_EXCEPTION;
else
return LOG_LEVEL_INFO;
}
void logger_level_reset() {
current_log_level = LOG_LEVEL_INFO;
free_log_rules();
}
void logger_level(LogLevel level) {
current_log_level = level;
free_log_rules(); // Clear any complex rules
}
void init_logger(void) {
const char* env_level = getenv("LOG_LEVEL");
if (env_level) {
// Check if it's a complex rule format (contains '=' or ',')
if (strchr(env_level, '=') || strchr(env_level, ',')) {
if (logger_parse_rules(env_level)) {
fprintf(stderr, "INIT: Logger initialized with complex rules from environment\n");
} else {
fprintf(stderr, "INIT: Failed to parse complex log rules, using default level INFO\n");
current_log_level = LOG_LEVEL_INFO;
}
} else {
// Simple log level
current_log_level = log_level_from_string(env_level);
fprintf(stderr, "INIT: Logger initialized with level %s from environment\n",
log_level_to_string(current_log_level));
}
} else {
fprintf(stderr, "INIT: Logger initialized with default level %s\n",
log_level_to_string(current_log_level));
}
}
char* raise_message(
LogLevel level,
const char *file,
const char *func,
int line,
const char *format,
...) {
// Check against the effective log level for this context
LogLevel effective_level = logger_get_effective_level(file, func, line);
if (level < effective_level) {
return NULL;
}
time_t now = time(NULL);
struct tm tm_info;
localtime_r(&now, &tm_info);
static char timeStr[20];
strftime(timeStr, sizeof(timeStr), "%Y-%m-%d %H:%M:%S", &tm_info);
// Print timestamp, log level with color, location info
fprintf(stderr, "%s %s%s%s %s:%s:%s%d%s ",
timeStr,
log_level_to_color(level),
log_level_to_string(level),
OPTIONAL_COLOR(COLOR_RESET),
file,
func,
OPTIONAL_COLOR(COLOR_GREEN),
line,
OPTIONAL_COLOR(COLOR_RESET));
// Print the actual message with variable arguments
va_list args;
va_start(args, format);
vfprintf(stderr, format, args);
va_end(args);
fprintf(stderr, "\n");
return timeStr;
}
// -----------
// -- debug --
// -----------
PtrSet *ptrset_init__(POSITION_INFO_DECLARATION, Arena *arena) {
PtrSet *set = arena_alloc__(POSITION_INFO, arena, sizeof(PtrSet));
set->data = arena_alloc__(POSITION_INFO, arena, 4 * sizeof(void*));
set->size = 0;
set->capacity = 4;
return set;
}
bool debug_ptrset_contains__(PtrSet *set, void *ptr) {
for (size_t i = 0; i < set->size; i++) {
if (set->data[i] == ptr)
return true;
}
return false;
}
void debug_ptrset_add__(CTX_DECLARATION, PtrSet *set, void *ptr) {
if (set->size == set->capacity) {
set->capacity = set->capacity ? set->capacity * 2 : 4;
set->data = arena_realloc__(CTX(arena), set->data, set->capacity, set->capacity * sizeof(void*));
}
set->data[set->size++] = ptr;
}
char *string_to_debug_str__(CTX_DECLARATION, const char *name, const char *string) {
return arena_strdup_fmt__(CTX(arena), "%s = %p \"%s\"", name, string, string);
}
char *int_to_debug_str__(CTX_DECLARATION, const char *name, int number) {
return arena_strdup_fmt__(CTX(arena), "%s = %d", name, number);
}
char *float_to_debug_str__(CTX_DECLARATION, const char *name, double number) {
return arena_strdup_fmt__(CTX(arena), "%s = %f", name, number);
}
char *size_t_to_debug_str__(CTX_DECLARATION, const char *name, size_t number) {
return arena_strdup_fmt__(CTX(arena), "%s = %zu", name, number);
}
char *ptr_to_debug_str__(CTX_DECLARATION, const char *name, void *ptr) {
return arena_strdup_fmt__(CTX(arena), "%s = %p", name, ptr);
}
char *char_to_debug_str__(CTX_DECLARATION, const char *name, char c) {
return arena_strdup_fmt__(CTX(arena), "%s = %c", name, c);
}
/* Private function */
char *debug_join_debug_strings_v(CTX_DECLARATION, int count, va_list args) {
raise_message(LOG_LEVEL_TRACE, POSITION_INFO, "DEBUG JOIN: Joining %d strings", count);
int total_len = 1;
va_list args_copy;
va_copy(args_copy, args);
raise_message(LOG_LEVEL_TRACE, POSITION_INFO, "DEBUG JOIN: Starting first pass");
for (int i = 0; i < count; i++) {
raise_message(LOG_LEVEL_TRACE, POSITION_INFO, "iter1");
char *s = va_arg(args_copy, char*);
int len = strlen(s);
raise_message(LOG_LEVEL_TRACE, POSITION_INFO, "DEBUG JOIN: String %d: [%s] %p len: %d", i, s, s, len);
total_len += len;
raise_message(LOG_LEVEL_TRACE, POSITION_INFO, "iter2");
}
va_end(args_copy);
char *joined = arena_alloc__(CTX(arena), total_len);
joined[0] = '\0';
raise_message(LOG_LEVEL_TRACE, POSITION_INFO, "DEBUG JOIN: concatenating strings");
va_copy(args_copy, args);
for (int i = 0; i < count; i++) {
char *s = va_arg(args_copy, char*);
strcat(joined, s);
if (i < count - 1) {
strcat(joined, ", ");
}
}
va_end(args_copy);
return joined;
}
char *struct_to_debug_str__(CTX_DECLARATION, const char *type, const char *name, void *ptr, int count, ...) {
raise_message(LOG_LEVEL_TRACE, POSITION_INFO, "DEBUG STR: type: %s, name: %s, ptr: %p, count: %d", type, name, ptr, count);
va_list args;
va_start(args, count);
char *joined = debug_join_debug_strings_v(CTX(arena), count, args);
va_end(args);
return arena_strdup_fmt__(CTX(arena), "%s %s = {%s} %p", type, name, joined, ptr);
}
// ------------
// -- arena --
// ------------
Arena arena_init__(POSITION_INFO_DECLARATION, size_t size) {
// Function entry logging
raise_message(LOG_LEVEL_DEBUG, POSITION_INFO,
"ARENA INIT: Creating arena (size: %zu bytes)", size);
Arena arena;
arena.begin = malloc(size);
// Check for allocation failure
if (!arena.begin) {
raise_message(LOG_LEVEL_EXCEPTION, POSITION_INFO,
"ARENA INIT: Failed to allocate memory for arena (requested: %zu bytes)", size);
exit(1);
}
memset(arena.begin, 0, size);
arena.current = arena.begin;
arena.capacity = size;
// Success logging at LOG level
raise_message(LOG_LEVEL_LOG, POSITION_INFO,
"ARENA INIT: Arena initialized successfully (address: %p, capacity: %zu bytes)", arena.begin, size);
return arena;
}
void* arena_alloc_or_null__(POSITION_INFO_DECLARATION, Arena *arena, size_t size, bool expand) {
raise_message(LOG_LEVEL_TRACE, POSITION_INFO,
"ARENA ALLOC: Requesting memory from arena (arena: %p, size: %zu bytes)", arena, size);
if (arena->begin == 0) {
raise_message(LOG_LEVEL_DEBUG, POSITION_INFO,
"ARENA ALLOC: Arena not initialized, creating new arena");
*arena = arena_init__(POSITION_INFO, 1024);
}
// align size to 8
size = (size + 7) & ~((size_t)7);
size_t used = (size_t)arena->current - (size_t)arena->begin;
size_t available = arena->capacity - used;
if (available < size) {
if (expand) {
// FIXME(yukkop): All pointers to the arena will be invalidated
// We need to use a virtual memory allocator to avoid this issue
size_t new_capacity = arena->capacity * 2 + size;
raise_message(LOG_LEVEL_WARN, POSITION_INFO,
"ARENA ALLOC: Expanding arena (old: %zu, new: %zu)", arena->capacity, new_capacity);
void *new_mem = malloc(new_capacity);
if (!new_mem) {
raise_message(LOG_LEVEL_WARN, POSITION_INFO,
"ARENA ALLOC: Failed to expand arena (requested: %zu bytes)", new_capacity);
return NULL;
}
memcpy(new_mem, arena->begin, used);
free(arena->begin);
arena->begin = new_mem;
arena->current = (char *)new_mem + used;
arena->capacity = new_capacity;
raise_message(LOG_LEVEL_WARN, POSITION_INFO,
"ARENA ALLOC: Arena expanded successfully (address: %p, capacity: %zu)", new_mem, new_capacity);
} else {
raise_message(LOG_LEVEL_WARN, POSITION_INFO,
"ARENA ALLOC: Insufficient memory in arena (address: %p, capacity: %zu bytes, used: %zu bytes, requested: %zu bytes)",
arena->begin, arena->capacity, used, size);
return NULL;
}
}
void *mem = arena->current;
arena->current = (char*)arena->current + size;
raise_message(LOG_LEVEL_DEBUG, POSITION_INFO,
"ARENA ALLOC: Memory allocated (address: %p, size: %zu)", mem, size);
return mem;
}
void* arena_alloc__(POSITION_INFO_DECLARATION, Arena *arena, size_t size) {
// Function entry logging
raise_message(LOG_LEVEL_DEBUG, POSITION_INFO,
"ARENA ALLOC: Allocating memory (arena: %p, size: %zu bytes)", arena, size);
void *mem = arena_alloc_or_null__(POSITION_INFO, arena, size, false);
if (!mem) {
raise_message(LOG_LEVEL_DEBUG, POSITION_INFO,
"ARENA ALLOC: Allocation failed (arena: %p, requested: %zu bytes)", arena, size);
raise_message(LOG_LEVEL_EXCEPTION, POSITION_INFO,
"ARENA ALLOC: Arena out of memory (requested: %zu bytes)", size);
exit(1);
}
// Success logging
raise_message(LOG_LEVEL_LOG, POSITION_INFO,
"ARENA ALLOC: Memory allocated successfully (address: %p, size: %zu bytes)", mem, size);
return mem;
}
/*
* Reallocates a memory block and copies the contents of the old block to the new one.
* NOTE(yukkop): We need to provide the old size to avoid copying more than needed.
*/
void* arena_realloc__(POSITION_INFO_DECLARATION, Arena *arena,
void *ptr, size_t size, size_t new_size) {
void *new_ptr = NULL;
if (ptr == NULL) {
new_ptr = arena_alloc__(POSITION_INFO, arena, new_size);
} else if (new_size <= size) {
new_ptr = ptr;
} else {
// FIXME(yukkop): Must tries to expand the arena before allocating new memory
new_ptr = arena_alloc_or_null__(POSITION_INFO, arena, new_size, false);
if (new_ptr)
memcpy(new_ptr, ptr, size);
}
return new_ptr;
}
void arena_reset__(POSITION_INFO_DECLARATION, Arena *arena) {
// Function entry logging
raise_message(LOG_LEVEL_DEBUG, POSITION_INFO,
"ARENA RESET: Resetting arena (address: %p)", arena);
// Check for NULL arena
if (!arena) {
raise_message(LOG_LEVEL_WARN, POSITION_INFO,
"ARENA RESET: Attempted to reset NULL arena");
return;
}
// Reset the arena
arena->current = arena->begin;
// Operation success logging
raise_message(LOG_LEVEL_LOG, POSITION_INFO,
"ARENA RESET: Arena reset successfully (address: %p, capacity: %zu bytes)",
arena->begin, arena->capacity);
}
void arena_free__(POSITION_INFO_DECLARATION, Arena *arena) {
// Function entry logging
raise_message(LOG_LEVEL_DEBUG, POSITION_INFO,
"ARENA FREE: Releasing arena memory (address: %p)", arena);
// Check for NULL arena
if (!arena) {
raise_message(LOG_LEVEL_WARN, POSITION_INFO,
"ARENA FREE: Attempted to free NULL arena");
return;
}
// Check for NULL begin pointer
if (!arena->begin) {
raise_message(LOG_LEVEL_WARN, POSITION_INFO,
"ARENA FREE: Attempted to free arena with NULL memory block");
return;
}
// Calculate used memory for logging
size_t used = (size_t)arena->current - (size_t)arena->begin;
// Free the memory
free(arena->begin);
// Success logging
raise_message(LOG_LEVEL_LOG, POSITION_INFO,
"ARENA FREE: Arena released successfully (address: %p, capacity: %zu bytes, used: %zu bytes)",
arena->begin, arena->capacity, used);
// Clear the pointers
arena->begin = NULL;
arena->current = NULL;
arena->capacity = 0;
}
/*
* Duplicates a string and returns a pointer to the new string.
*/
char* arena_strdup__(POSITION_INFO_DECLARATION, Arena *arena, const char *s) {
// Function entry logging
raise_message(LOG_LEVEL_TRACE, POSITION_INFO,
"ARENA STRDUP: Duplicating string (arena: %p, source: %p, preview: %.20s%s)",
arena, s, s ? s : "", s && strlen(s) > 20 ? "..." : "");
// Check for NULL string
if (!s) {
raise_message(LOG_LEVEL_DEBUG, POSITION_INFO,
"ARENA STRDUP: Source string is NULL, returning NULL");
return NULL;
}
// Calculate string length and allocate memory
size_t len = strlen(s) + 1;
// Success case
char *result = (char*)arena_alloc__(POSITION_INFO, arena, len);
// Copy the string
memcpy(result, s, len);
// Success logging
raise_message(LOG_LEVEL_DEBUG, POSITION_INFO,
"ARENA STRDUP: String duplicated successfully (result: %p, length: %zu bytes)",
result, len);
return result;
}
/*
* Duplicates a string and returns a pointer to the new string.
* The string is formatted using the provided format string and arguments.
*/
char* arena_strdup_fmt__(POSITION_INFO_DECLARATION, Arena *arena, const char *fmt, ...) {
va_list args;
va_start(args, fmt);
int len = vsnprintf(NULL, 0, fmt, args);
va_end(args);
if (len < 0) return NULL;
char *temp = arena_alloc__(POSITION_INFO, DISPOSABLE_ARENA, len + 1);
va_start(args, fmt);
vsnprintf(temp, len + 1, fmt, args);
va_end(args);
return arena_strdup__(POSITION_INFO, arena, temp);
}
char* arena_strncpy__(POSITION_INFO_DECLARATION, Arena *arena, const char *start, size_t len) {
// Function entry logging
raise_message(LOG_LEVEL_TRACE, POSITION_INFO,
"ARENA STRNCPY: Copying string (arena: %p, source: %p, length: %zu, preview: %.20s%s)",
arena, start, len, start ? start : "", start && strlen(start) > 20 ? "..." : "");
// Check for NULL string
if (!start) {
raise_message(LOG_LEVEL_DEBUG, POSITION_INFO,
"ARENA STRNCPY: Source string is NULL, returning NULL");
return NULL;
}
// Allocate memory for the string plus null terminator
char *result = (char*)arena_alloc__(POSITION_INFO, arena, len + 1);
if (!result) {
raise_message(LOG_LEVEL_DEBUG, POSITION_INFO,
"ARENA STRNCPY: Memory allocation failed");
return NULL;
}
// Copy the string and ensure null termination
strncpy(result, start, len);
result[len] = '\0';
// Success logging
raise_message(LOG_LEVEL_DEBUG, POSITION_INFO,
"ARENA STRNCPY: String copied successfully (result: %p, length: %zu bytes)",
result, len + 1);
return result;
}
/*
* Replaces a substring in a string with a new string.
*/
char* arena_repstr__(POSITION_INFO_DECLARATION, Arena *arena,
const char *src, size_t start, size_t len, const char *rep) {
// Function entry logging
raise_message(LOG_LEVEL_TRACE, POSITION_INFO,
"ARENA REPSTR: Replacing substring (source: %p, start: %zu, length: %zu, replacement: %.20s%s)",
src, start, len, rep, strlen(rep) > 20 ? "..." : "");
// Check inputs
if (!src) {
raise_message(LOG_LEVEL_WARN, POSITION_INFO,
"ARENA REPSTR: Source string is NULL");
return NULL;
}
if (!rep) {
raise_message(LOG_LEVEL_WARN, POSITION_INFO,
"ARENA REPSTR: Replacement string is NULL");
return NULL;
}
// Calculate lengths
int src_len = strlen(src);
int rep_len = strlen(rep);
// Validate start and length
if (start > (size_t)src_len) {
raise_message(LOG_LEVEL_WARN, POSITION_INFO,
"ARENA REPSTR: Start position %zu exceeds source length %d", start, src_len);
// Return a copy of the source string
return arena_strdup__(POSITION_INFO, arena, src);
}
if (start + len > (size_t)src_len) {
size_t old_len = len;
len = src_len - start;
raise_message(LOG_LEVEL_DEBUG, POSITION_INFO,
"ARENA REPSTR: Adjusted length from %zu to %zu to fit source bounds", old_len, len);
}
// Calculate new length and allocate memory
int new_len = src_len - (int)len + rep_len;
char *new_str = (char*)arena_alloc__(POSITION_INFO, arena, new_len + 1);
// Perform the replacement operation
memcpy(new_str, src, start);
memcpy(new_str + start, rep, rep_len);
strcpy(new_str + start + rep_len, src + start + len);
// Success logging
raise_message(LOG_LEVEL_DEBUG, POSITION_INFO,
"ARENA REPSTR: Replacement complete (result: %p, new length: %d)", new_str, new_len);
return new_str;
}
// ----------
// -- misc --
// ----------
void substr_clone__(POSITION_INFO_DECLARATION, const char * const src, char *dest, size_t from, size_t len) {
// Log function entry at TRACE level
raise_message(LOG_LEVEL_TRACE, POSITION_INFO,
"Function called with src=%p, dest=%p, from=%zu, len=%zu",
src, dest, from, len);
if (!src || !dest) {
raise_message(LOG_LEVEL_EXCEPTION, POSITION_INFO,
"Invalid NULL pointer: %s%s",
(!src ? "src " : ""),
(!dest ? "dest" : ""));
if (dest) dest[0] = '\0';
return;
}
size_t srclen = strlen(src);
if (from >= srclen) {
// Log warning with context when 'from' is out of range
raise_message(LOG_LEVEL_WARN, POSITION_INFO,
"Out of range: 'from' index (%zu) exceeds source length (%zu)",
from, srclen);
dest[0] = '\0';
return;
}
// Adjust length if needed
if (from + len > srclen) {
size_t old_len = len;
len = srclen - from;
raise_message(LOG_LEVEL_DEBUG, POSITION_INFO,
"Adjusted length from %zu to %zu to fit source bounds",
old_len, len);
}
// Copy the substring
strncpy(dest, src + from, len);
dest[len] = '\0';
// Log success at TRACE level
raise_message(LOG_LEVEL_TRACE, POSITION_INFO,
"Successfully copied %zu bytes: \"%.*s\"",
len, (int)len, dest);
}
// ----------
// -- Json --
// ----------
char *json_to_pretty_str__(POSITION_INFO_DECLARATION, Arena *arena, const Json * const item, int indent_level) {
raise_message(LOG_LEVEL_DEBUG, POSITION_INFO,
"PRETTY: Starting JSON prettification (item: %p, indent: %d)",
item, indent_level);
if (!item) {
raise_message(LOG_LEVEL_EXCEPTION, POSITION_INFO,
"PRETTY: Invalid JSON object (NULL) provided for prettification");
return NULL;
}
if (!arena) {
raise_message(LOG_LEVEL_EXCEPTION, POSITION_INFO,
"PRETTY: Invalid arena (NULL) provided for prettification");
return NULL;
}
char *out = arena_alloc__(POSITION_INFO, arena, 1024);
if (!out) {
raise_message(LOG_LEVEL_EXCEPTION, POSITION_INFO,
"PRETTY: Memory allocation failed during JSON prettification");
return NULL;
}
char *ptr = out;
if (item->type == JSON_OBJECT) {
ptr += sprintf(ptr, "{\n");
Json *child = item->child;
int child_count = 0;
raise_message(LOG_LEVEL_TRACE, POSITION_INFO,
"PRETTY: Processing JSON object children");
while (child) {
for (int i = 0; i < indent_level + 1; i++) {
ptr += sprintf(ptr, " ");
}
ptr += sprintf(ptr, "\"%s\": ", child->key ? child->key : "");
char *child_str = json_to_pretty_str__(POSITION_INFO, arena, child, indent_level + 1);
if (child_str) {
ptr += sprintf(ptr, "%s", child_str);
} else {
raise_message(LOG_LEVEL_WARN, POSITION_INFO,
"PRETTY: Failed to prettify child element (key=%s)",
child->key ? child->key : "<null>");
}
if (child->next) {
ptr += sprintf(ptr, ",\n");
} else {
ptr += sprintf(ptr, "\n");
}
child = child->next;
child_count++;
}
for (int i = 0; i < indent_level; i++) {
ptr += sprintf(ptr, " ");
}
sprintf(ptr, "}");
raise_message(LOG_LEVEL_TRACE, POSITION_INFO,
"PRETTY: Object prettification complete with %d child elements", child_count);
} else if (item->type == JSON_ARRAY) {
ptr += sprintf(ptr, "[\n");
Json *child = item->child;
int child_count = 0;
raise_message(LOG_LEVEL_TRACE, POSITION_INFO,
"PRETTY: Processing JSON array elements");
while (child) {
// Add indentation
for (int i = 0; i < indent_level + 1; i++) {
ptr += sprintf(ptr, " ");
}
char *child_str = json_to_pretty_str__(POSITION_INFO, arena, child, indent_level + 1);
if (child_str) {
ptr += sprintf(ptr, "%s", child_str);
} else {
raise_message(LOG_LEVEL_WARN, POSITION_INFO,
"PRETTY: Failed to prettify array element at index %d", child_count);
}
if (child->next) {
ptr += sprintf(ptr, ",\n");
} else {
ptr += sprintf(ptr, "\n");
}
child = child->next;
child_count++;
}
for (int i = 0; i < indent_level; i++) {
ptr += sprintf(ptr, " ");
}
sprintf(ptr, "]");
raise_message(LOG_LEVEL_TRACE, POSITION_INFO,
"PRETTY: Array prettification complete with %d elements", child_count);
} else if (item->type == JSON_STRING) {
sprintf(ptr, "\"%s\"", item->JsonValue.string ? item->JsonValue.string : "");
} else if (item->type == JSON_NUMBER) {
sprintf(ptr, "%g", item->JsonValue.number);
} else if (item->type == JSON_BOOL) {
sprintf(ptr, item->JsonValue.boolean ? "true" : "false");
} else if (item->type == JSON_NULL) {
sprintf(ptr, "null");
}
raise_message(LOG_LEVEL_LOG, POSITION_INFO,
"PRETTY: JSON %s prettified (length=%zu)",
json_type_to_string(item->type), strlen(out));
return out;
}
const char* json_type_to_string(JsonType type) {
switch (type) {
case JSON_NULL: return "NULL";
case JSON_BOOL: return "BOOL";
case JSON_NUMBER: return "NUMBER";
case JSON_STRING: return "STRING";
case JSON_ARRAY: return "ARRAY";
case JSON_OBJECT: return "OBJECT";
default: return "UNKNOWN";
}
}
/* Utility: Skip whitespace */
static const char *skip_whitespace(const char *s) {
while (*s && isspace((unsigned char)*s))
s++;
return s;
}
static Json *json_parse_value__(POSITION_INFO_DECLARATION, const char **s, Arena *arena);
/* Parse a JSON string (does not handle full escaping) */
static char *json_parse_string__(POSITION_INFO_DECLARATION, const char **s_ptr, Arena *arena) {
const char *s = *s_ptr;
raise_message(LOG_LEVEL_DEBUG, POSITION_INFO, "Entering json_parse_string__ at position: %p", s);
if (*s != '"') {
raise_message(LOG_LEVEL_DEBUG, POSITION_INFO, "Expected '\"' at start of string, got: %c", *s);
return NULL;
}
s++; // skip opening quote
const char *start = s;
while (*s && *s != '"') {
if (*s == '\\') {
s++; // skip escape char indicator
}
s++;
}
if (*s != '"') {
raise_message(LOG_LEVEL_DEBUG, POSITION_INFO, "Unterminated string starting at: %p", start);
return NULL;
}
size_t len = s - start;
char *str = arena_alloc__(POSITION_INFO, arena, len + 1);
if (!str) {
raise_message(LOG_LEVEL_DEBUG, POSITION_INFO, "Memory allocation failed in json_parse_string__");
return NULL;
}
memcpy(str, start, len);
str[len] = '\0';
*s_ptr = s + 1; // skip closing quote
raise_message(LOG_LEVEL_DEBUG, POSITION_INFO, "Parsed string: \"%s\" (length: %zu)", str, len);
return str;
}
/* Parse a number using strtod */
static double json_parse_number__(POSITION_INFO_DECLARATION, const char **s_ptr) {
raise_message(LOG_LEVEL_DEBUG, POSITION_INFO, "Parsing number at position: %p", *s_ptr);
char *end;
double num = strtod(*s_ptr, &end);
if (*s_ptr == end)
raise_message(LOG_LEVEL_DEBUG, POSITION_INFO, "No valid number found at: %p", *s_ptr);
*s_ptr = end;
raise_message(LOG_LEVEL_DEBUG, POSITION_INFO, "Parsed number: %g", num);
return num;
}
/* Parse a JSON array: [ value, value, ... ] */
static Json *json_parse_array__(POSITION_INFO_DECLARATION, const char **s, Arena *arena) {
raise_message(LOG_LEVEL_DEBUG, POSITION_INFO, "Entering json_parse_array__ at position: %p", *s);
if (**s != '[') return NULL;
(*s)++; // skip '['
*s = skip_whitespace(*s);
Json *array = arena_alloc__(POSITION_INFO, arena, sizeof(Json));
if (!array) {
raise_message(LOG_LEVEL_DEBUG, POSITION_INFO, "Memory allocation failed in json_parse_array__");
return NULL;
}
memset(array, 0, sizeof(Json));
array->type = JSON_ARRAY;
Json *last = NULL;
if (**s == ']') { // empty array
(*s)++;
raise_message(LOG_LEVEL_DEBUG, POSITION_INFO, "Parsed empty array");
return array;
}
while (**s) {
Json *element = json_parse_value__(POSITION_INFO, s, arena);
if (!element) {
raise_message(LOG_LEVEL_DEBUG, POSITION_INFO, "Failed to parse array element");
return NULL;
}
if (!array->child)
array->child = element;
else
last->next = element;
last = element;
*s = skip_whitespace(*s);
if (**s == ',') {
(*s)++;
*s = skip_whitespace(*s);
} else if (**s == ']') {
(*s)++;
raise_message(LOG_LEVEL_DEBUG, POSITION_INFO, "Completed parsing array");
break;
} else {
raise_message(LOG_LEVEL_DEBUG, POSITION_INFO, "Unexpected character '%c' in array", **s);
return NULL;
}
}
raise_message(LOG_LEVEL_DEBUG, POSITION_INFO, "Completed parsing array");
return array;
}
/* Parse a JSON object: { "key": value, ... } */
static Json *json_parse_object__(POSITION_INFO_DECLARATION, const char **s, Arena *arena) {
raise_message(LOG_LEVEL_DEBUG, POSITION_INFO, "Entering json_parse_object__ at position: %p", *s);
if (**s != '{') return NULL;
(*s)++; // skip '{'
*s = skip_whitespace(*s);
Json *object = arena_alloc__(POSITION_INFO, arena, sizeof(Json));
if (!object) {
raise_message(LOG_LEVEL_DEBUG, POSITION_INFO, "Memory allocation failed in json_parse_object__");
return NULL;
}
memset(object, 0, sizeof(Json));
object->type = JSON_OBJECT;
Json *last = NULL;
if (**s == '}') {
(*s)++;
raise_message(LOG_LEVEL_DEBUG, POSITION_INFO, "Parsed empty object");
return object;
}
while (**s) {
char *key = json_parse_string__(POSITION_INFO, s, arena);
if (!key) {
raise_message(LOG_LEVEL_DEBUG, POSITION_INFO, "Failed to parse key in object");
return NULL;
}
*s = skip_whitespace(*s);
if (**s != ':') {
raise_message(LOG_LEVEL_DEBUG, POSITION_INFO, "Expected ':' after key \"%s\", got: %c", key, **s);
return NULL;
}
(*s)++; // skip ':'
*s = skip_whitespace(*s);
Json *value = json_parse_value__(POSITION_INFO, s, arena);
if (!value) {
raise_message(LOG_LEVEL_DEBUG, POSITION_INFO, "Failed to parse value for key \"%s\"", key);
return NULL;
}
value->key = key; // assign key to the value
if (!object->child)
object->child = value;
else
last->next = value;
last = value;
*s = skip_whitespace(*s);
if (**s == ',') {
(*s)++;
*s = skip_whitespace(*s);
} else if (**s == '}') {
(*s)++;
break;
} else {
raise_message(LOG_LEVEL_DEBUG, POSITION_INFO, "Unexpected character '%c' in object", **s);
return NULL;
}
}
raise_message(LOG_LEVEL_DEBUG, POSITION_INFO, "Completed parsing object");
return object;
}
/* Full JSON value parser */
static Json *json_parse_value__(POSITION_INFO_DECLARATION, const char **s, Arena *arena) {
*s = skip_whitespace(*s);
raise_message(LOG_LEVEL_DEBUG, POSITION_INFO, "Parsing JSON value at position: %p", *s);
if (**s == '"') {
Json *item = arena_alloc__(POSITION_INFO, arena, sizeof(Json));
if (!item) {
raise_message(LOG_LEVEL_DEBUG, POSITION_INFO, "Memory allocation failed in json_parse_value for string");
return NULL;
}
memset(item, 0, sizeof(Json));
item->type = JSON_STRING;
item->JsonValue.string = json_parse_string__(POSITION_INFO, s, arena);
return item;
} else if (strncmp(*s, "null", 4) == 0) {
Json *item = arena_alloc__(POSITION_INFO, arena, sizeof(Json));
if (!item) return NULL;
memset(item, 0, sizeof(Json));
item->type = JSON_NULL;
*s += 4;
return item;
} else if (strncmp(*s, "true", 4) == 0) {
Json *item = arena_alloc__(POSITION_INFO, arena, sizeof(Json));
if (!item) return NULL;
memset(item, 0, sizeof(Json));
item->type = JSON_BOOL;
item->JsonValue.boolean = 1;
*s += 4;
return item;
} else if (strncmp(*s, "false", 5) == 0) {
Json *item = arena_alloc__(POSITION_INFO, arena, sizeof(Json));
if (!item) return NULL;
memset(item, 0, sizeof(Json));
item->type = JSON_BOOL;
item->JsonValue.boolean = 0;
*s += 5;
return item;
} else if ((**s == '-') || isdigit((unsigned char)**s)) {
Json *item = arena_alloc__(POSITION_INFO, arena, sizeof(Json));
if (!item) {
raise_message(LOG_LEVEL_DEBUG, POSITION_INFO, "Memory allocation failed in json_parse_value for number");
return NULL;
}
memset(item, 0, sizeof(Json));
item->type = JSON_NUMBER;
item->JsonValue.number = json_parse_number__(POSITION_INFO, s);
return item;
} else if (**s == '[') {
return json_parse_array__(POSITION_INFO, s, arena);
} else if (**s == '{') {
return json_parse_object__(POSITION_INFO, s, arena);
}
raise_message(LOG_LEVEL_DEBUG, POSITION_INFO, "Unrecognized JSON value at position: %p", *s);
return NULL;
}
Json *json_parse__(POSITION_INFO_DECLARATION, Arena *arena, const char **s) {
// Function entry logging with DEBUG level
raise_message(LOG_LEVEL_DEBUG, POSITION_INFO,
"PARSE: Starting JSON parsing (input: %p)", *s);
// Check input parameters
if (!s || !*s) {
raise_message(LOG_LEVEL_EXCEPTION, POSITION_INFO,
"PARSE: Invalid input parameters (NULL pointer provided for JSON parsing)");
return NULL;
}
if (!arena) {
raise_message(LOG_LEVEL_EXCEPTION, POSITION_INFO,
"PARSE: Invalid arena (NULL) provided for JSON parsing");
return NULL;
}
// Show input preview for debugging with TRACE level
raise_message(LOG_LEVEL_TRACE, POSITION_INFO,
"PARSE: Input preview: '%.20s%s'", *s, strlen(*s) > 20 ? "..." : "");
// Process JSON value
Json *result = json_parse_value__(POSITION_INFO, s, arena);
// Log parsing result
if (!result) {
raise_message(LOG_LEVEL_WARN, POSITION_INFO,
"PARSE: Failed to parse JSON at position %p (context: '%.10s')",
*s, *s && strlen(*s) > 0 ? *s : "<empty>");
} else {
raise_message(LOG_LEVEL_LOG, POSITION_INFO,
"PARSE: JSON parsing completed successfully (type: %s)", json_type_to_string(result->type));
}
return result;
}
char *json_to_string__(POSITION_INFO_DECLARATION, Arena *arena, const Json * const item) {
return json_to_string_with_opts__(POSITION_INFO, arena, item, JSON_NORAW);
}
/* Minimal JSON printer with raw output option.
When raw is non-zero and the item is a JSON_STRING, it is printed without quotes.
*/
char *json_to_string_with_opts__(POSITION_INFO_DECLARATION, Arena *arena, const Json * const item, JsonRawOpt raw) {
// Function entry with DEBUG level
raise_message(LOG_LEVEL_DEBUG, POSITION_INFO,
"FORMAT: Starting JSON conversion to string (item: %p, raw_mode: %s)",
item, raw == JSON_RAW ? "enabled" : "disabled");
// Check input parameters
if (!item) {
raise_message(LOG_LEVEL_EXCEPTION, POSITION_INFO,
"FORMAT: Invalid JSON object (NULL) provided for string conversion");
return NULL;
}
if (!arena) {
raise_message(LOG_LEVEL_EXCEPTION, POSITION_INFO,
"FORMAT: Invalid arena (NULL) provided for string conversion");
return NULL;
}
// Allocate memory for the string
char *out = arena_alloc__(POSITION_INFO, arena, 1024);
if (!out) {
raise_message(LOG_LEVEL_EXCEPTION, POSITION_INFO,
"FORMAT: Memory allocation failed during JSON string conversion");
return NULL;
}
char *ptr = out;
const char* type_name = "unknown";
// Formatting based on type
if (item->type == JSON_OBJECT) {
ptr += sprintf(ptr, "{");
type_name = "object";
Json *child = item->child;
int child_count = 0;
raise_message(LOG_LEVEL_TRACE, POSITION_INFO,
"FORMAT: Processing JSON object children");
while (child) {
ptr += sprintf(ptr, "\"%s\":", child->key ? child->key : "");
char *child_str = json_to_string_with_opts__(POSITION_INFO, arena, child, raw);
if (child_str) {
ptr += sprintf(ptr, "%s", child_str);
} else {
raise_message(LOG_LEVEL_WARN, POSITION_INFO,
"FORMAT: Failed to stringify child element (key=%s)",
child->key ? child->key : "<null>");
}
if (child->next) {
ptr += sprintf(ptr, ",");
}
child = child->next;
child_count++;
}
sprintf(ptr, "}");
raise_message(LOG_LEVEL_TRACE, POSITION_INFO,
"FORMAT: Object conversion complete with %d child elements", child_count);
} else if (item->type == JSON_ARRAY) {
ptr += sprintf(ptr, "[");
type_name = "array";
Json *child = item->child;
int child_count = 0;
raise_message(LOG_LEVEL_TRACE, POSITION_INFO,
"FORMAT: Processing JSON array elements");
while (child) {
char *child_str = json_to_string_with_opts__(file, func, line, arena, child, raw);
if (child_str) {
ptr += sprintf(ptr, "%s", child_str);
} else {
raise_message(LOG_LEVEL_WARN, POSITION_INFO,
"FORMAT: Failed to stringify array element at index %d", child_count);
}
if (child->next) {
ptr += sprintf(ptr, ",");
}
child = child->next;
child_count++;
}
sprintf(ptr, "]");
raise_message(LOG_LEVEL_TRACE, POSITION_INFO,
"FORMAT: Array conversion complete with %d elements", child_count);
} else if (item->type == JSON_STRING) {
type_name = "string";
if ((int)raw) {
sprintf(ptr, "%s", item->JsonValue.string ? item->JsonValue.string : "");
} else {
sprintf(ptr, "\"%s\"", item->JsonValue.string ? item->JsonValue.string : "");
}
} else if (item->type == JSON_NUMBER) {
type_name = "number";
sprintf(ptr, "%g", item->JsonValue.number);
} else if (item->type == JSON_BOOL) {
type_name = "boolean";
sprintf(ptr, item->JsonValue.boolean ? "true" : "false");
} else if (item->type == JSON_NULL) {
type_name = "null";
sprintf(ptr, "null");
}
raise_message(LOG_LEVEL_LOG, POSITION_INFO,
"FORMAT: JSON %s converted to string (length=%zu)",
type_name, strlen(out));
return out;
}
/* Retrieve an object item by key (case-sensitive) */
Json *json_get_object_item__(POSITION_INFO_DECLARATION, const Json * const object, const char * const key) {
raise_message(LOG_LEVEL_TRACE, POSITION_INFO,
"ACCESS: Searching for key \"%s\" in JSON object %p",
key ? key : "<null>", object);
// Check input parameters
if (!object) {
raise_message(LOG_LEVEL_WARN, POSITION_INFO,
"ACCESS: Invalid object (NULL) passed to json_get_object_item");
return NULL;
}
if (!key) {
raise_message(LOG_LEVEL_WARN, POSITION_INFO,
"ACCESS: Invalid key (NULL) passed to json_get_object_item");
return NULL;
}
if (object->type != JSON_OBJECT) {
raise_message(LOG_LEVEL_WARN, POSITION_INFO,
"ACCESS: JSON value is not an object (actual type: %d)", object->type);
return NULL;
}
// Count the total number of keys for debugging
int total_keys = 0;
Json *debug_scan = object->child;
while (debug_scan) {
total_keys++;
debug_scan = debug_scan->next;
}
raise_message(LOG_LEVEL_TRACE, POSITION_INFO,
"ACCESS: Object has %d key-value pairs", total_keys);
// Perform key search
Json *child = object->child;
int position = 0;
while (child) {
if (child->key) {
raise_message(LOG_LEVEL_TRACE, POSITION_INFO,
"ACCESS: Comparing key \"%s\" with \"%s\" at position %d",
child->key, key, position);
if (strcmp(child->key, key) == 0) {
raise_message(LOG_LEVEL_LOG, POSITION_INFO,
"ACCESS: Found value for key \"%s\" (type: %s)",
key, json_type_to_string(child->type));
return child;
}
} else {
raise_message(LOG_LEVEL_TRACE, POSITION_INFO,
"ACCESS: Skipping element at position %d with NULL key", position);
}
child = child->next;
position++;
}
raise_message(LOG_LEVEL_DEBUG, POSITION_INFO,
"ACCESS: Key \"%s\" not found in object (checked %d items)",
key, position);
return NULL;
}
char* json_to_debug_str__(POSITION_INFO_DECLARATION, Arena *arena, Json json) {
raise_message(LOG_LEVEL_TRACE, POSITION_INFO, "json_to_debug_str(<optimized>, <optimized>)");
char meta_buffer[256];
snprintf(meta_buffer, sizeof(meta_buffer), "Json{addr=%p, type=%s, key=%s, child=%p, next=%p, value=",
(void*)&json, json_type_to_string(json.type), json.key ? json.key : "NULL", (void*)json.child, (void*)json.next);
size_t meta_len = strlen(meta_buffer);
char value_buffer[256] = {0};
switch (json.type) {
case JSON_NULL:
strcpy(value_buffer, "null");
break;
case JSON_BOOL:
strcpy(value_buffer, json.JsonValue.boolean ? "true" : "false");
break;
case JSON_NUMBER:
snprintf(value_buffer, sizeof(value_buffer), "%g", json.JsonValue.number);
break;
case JSON_STRING: {
if (!json.JsonValue.string) {
strcpy(value_buffer, "null");
} else {
snprintf(value_buffer, sizeof(value_buffer), "\"%s\"", json.JsonValue.string);
}
break;
}
case JSON_ARRAY: {
// For arrays, simply note the number of elements
size_t count = 0;
Json *item = json.child;
while (item) {
count++;
item = item->next;
}
snprintf(value_buffer, sizeof(value_buffer), "[array with %zu elements]", count);
break;
}
case JSON_OBJECT: {
// For objects, note the number of key-value pairs
size_t count = 0;
Json *item = json.child;
while (item) {
count++;
item = item->next;
}
snprintf(value_buffer, sizeof(value_buffer), "{object with %zu key-value pairs}", count);
break;
}
default:
strcpy(value_buffer, "<UNKNOWN JSON TYPE>");
}
// Create final string
size_t result_len = meta_len + strlen(value_buffer) + 2; // +2 for closing brace and null character
char* result = arena_alloc(arena, result_len);
strcpy(result, meta_buffer);
strcat(result, value_buffer);
strcat(result, "}");
return result;
}
// -----------
// -- slice --
// -----------
// Create a slice from an array with boundary check.
Slice slice_create__(POSITION_INFO_DECLARATION, size_t isize, void *array, size_t array_len, size_t start, size_t len) {
// Function entry logging
raise_message(LOG_LEVEL_TRACE, POSITION_INFO,
"SLICE: Creating slice (source: %p, array_length: %zu, start: %zu, length: %zu, item_size: %zu)",
array, array_len, start, len, isize);
// Boundary check
if (start + len > array_len) {
raise_message(LOG_LEVEL_WARN, POSITION_INFO,
"SLICE: Slice boundaries exceed array length (start: %zu, length: %zu, array_length: %zu)",
start, len, array_len);
return (Slice){NULL, 0, isize};
}
// Create valid slice
Slice result = (Slice){ (char *)array + start * isize, len, isize };
// Success logging
raise_message(LOG_LEVEL_TRACE, POSITION_INFO,
"SLICE: Slice created successfully (data: %p, length: %zu, item_size: %zu)",
result.data, result.len, result.isize);
return result;
}
// Return a subslice from an existing slice.
Slice slice_subslice__(POSITION_INFO_DECLARATION, Slice s, size_t start, size_t len) {
// Function entry logging
raise_message(LOG_LEVEL_TRACE, POSITION_INFO,
"SLICE: Creating subslice (source: %p, source_length: %zu, start: %zu, length: %zu)",
s.data, s.len, start, len);
// Boundary check
if (start + len > s.len) {
raise_message(LOG_LEVEL_WARN, POSITION_INFO,
"SLICE: Subslice boundaries exceed source slice length (start: %zu, length: %zu, source_length: %zu)",
start, len, s.len);
return (Slice){NULL, 0, s.isize};
}
// Create valid subslice
Slice result = (Slice){(char*)s.data + start * s.isize, len, s.isize};
// Success logging
raise_message(LOG_LEVEL_TRACE, POSITION_INFO,
"SLICE: Subslice created successfully (data: %p, length: %zu, item_size: %zu)",
result.data, result.len, result.isize);
return result;
}
int* arena_slice_copy__(POSITION_INFO_DECLARATION, Arena *arena, Slice s) {
raise_message(LOG_LEVEL_TRACE, POSITION_INFO, "arena_slice_copy(<optimized>, <optimized>)");
int *copy = (void*) arena_alloc__(POSITION_INFO, arena, s.len * sizeof(int));
if (copy)
memcpy(copy, s.data, s.len * s.isize);
return copy;
}
char* slice_to_debug_str__(POSITION_INFO_DECLARATION, Arena *arena, Slice slice) {
// Create complete information about the Slice structure
char buffer_meta[128];
snprintf(buffer_meta, sizeof(buffer_meta), "Slice{addr=%p, data=%p, len=%zu, isize=%zu, content=",
(void*)&slice, slice.data, slice.len, slice.isize);
size_t meta_len = strlen(buffer_meta);
// For NULL data, output a simple message
if (!slice.data) {
char* result = arena_alloc(arena, meta_len + 6);
strcpy(result, buffer_meta);
strcat(result, "NULL}");
return result;
}
// Allocate buffer with space for quotes, metadata and null terminator
size_t buffer_size = meta_len + slice.len * 4 + 20; // Extra space for escaping and closing brace
char* buffer = arena_alloc(arena, buffer_size);
// Copy metadata
strcpy(buffer, buffer_meta);
char* pos = buffer + meta_len;
*pos++ = '"';
// Copy slice data with escaping
for (size_t i = 0; i < slice.len; i++) {
char c = ((char*)slice.data)[i];
if (c == '\0') {
*pos++ = '\\';
*pos++ = '0';
} else if (c == '\n') {
*pos++ = '\\';
*pos++ = 'n';
} else if (c == '\r') {
*pos++ = '\\';
*pos++ = 'r';
} else if (c == '\t') {
*pos++ = '\\';
*pos++ = 't';
} else if (c == '"') {
*pos++ = '\\';
*pos++ = '"';
} else if (c == '\\') {
*pos++ = '\\';
*pos++ = '\\';
} else if (c < 32 || c > 126) {
// Non-printable characters as hex
pos += sprintf(pos, "\\x%02x", (unsigned char)c);
} else {
*pos++ = c;
}
}
*pos++ = '"';
*pos++ = '}'; // Closing brace for the structure
*pos = '\0';
raise_message(LOG_LEVEL_TRACE, POSITION_INFO, "slice_to_debug_str: %s", buffer);
return buffer;
}
// ------------------
// -- logger rules --
// ------------------
// Clean up existing log rules
void free_log_rules() {
LogRule *rule = log_rules;
while (rule) {
LogRule *next = rule->next;
if (rule->file_pattern) free(rule->file_pattern);
if (rule->function_pattern) free(rule->function_pattern);
free(rule);
rule = next;
}
log_rules = NULL;
}
// Add a new log rule to the rule chain
LogRule* add_log_rule(LogLevel level, const char *file_pattern, const char *function_pattern,
int line_start, int line_end) {
LogRule *rule = (LogRule*)malloc(sizeof(LogRule));
if (!rule) return NULL;
rule->level = level;
rule->file_pattern = file_pattern ? strdup(file_pattern) : NULL;
rule->function_pattern = function_pattern ? strdup(function_pattern) : NULL;
rule->line_start = line_start;
rule->line_end = line_end;
rule->next = NULL;
// Add to the end of the list
if (!log_rules) {
log_rules = rule;
} else {
LogRule *last = log_rules;
while (last->next) {
last = last->next;
}
last->next = rule;
}
return rule;
}
// Parse a line range specification (start:end)
void parse_line_range(const char *range_str, int *start, int *end) {
if (!range_str) {
*start = -1;
*end = -1;
return;
}
char *endptr;
*start = strtol(range_str, &endptr, 10);
if (*endptr == ':') {
*end = strtol(endptr + 1, NULL, 10);
} else {
*end = *start;
}
if (*start <= 0) *start = -1;
if (*end <= 0) *end = -1;
}
// Parse a complex rule string and set up log rules
int logger_parse_rules(const char *rules_str) {
if (!rules_str || !*rules_str) return 0;
// Clean up existing rules
free_log_rules();
// Make a copy of the rules string since we'll be modifying it
char *rules_copy = strdup(rules_str);
if (!rules_copy) return 0;
// First rule sets the default level
char *next_rule = rules_copy;
char *token = strsep(&next_rule, ",");
current_log_level = log_level_from_string(token);
// Process the remaining rules
while (next_rule && *next_rule) {
// Extract rule definition: pattern=level
char *rule_def = strsep(&next_rule, ",");
char *level_str = strchr(rule_def, '=');
if (!level_str) continue; // Invalid rule
*level_str = '\0'; // Split pattern and level
level_str++;
// Parse the rule pattern
char *pattern = rule_def;
char *file_pattern = NULL;
char *function_pattern = NULL;
char *line_range = NULL;
// Check for line range in file pattern
char *at_sign = strchr(pattern, '@');
if (at_sign) {
*at_sign = '\0';
file_pattern = pattern;
pattern = at_sign + 1;
// Check for line range or another @ for function
char *colon = strchr(pattern, ':');
char *second_at = strchr(pattern, '@');
if (second_at && (!colon || second_at < colon)) {
// Format: file@function@line_range
*second_at = '\0';
function_pattern = pattern;
line_range = second_at + 1;
} else if (colon) {
// Format: file@line_range
line_range = pattern;
} else {
// Format: file@function
function_pattern = pattern;
}
} else {
// Just file pattern
file_pattern = pattern;
}
// If file pattern is empty, set to NULL
if (file_pattern && !*file_pattern) file_pattern = NULL;
// If function pattern is empty, set to NULL
if (function_pattern && !*function_pattern) function_pattern = NULL;
// Parse line range
int line_start = -1, line_end = -1;
parse_line_range(line_range, &line_start, &line_end);
// Create a new rule
LogLevel level = log_level_from_string(level_str);
add_log_rule(level, file_pattern, function_pattern, line_start, line_end);
}
free(rules_copy);
return 1;
}
// Check if a file matches a pattern
static int match_file_pattern(const char *file, const char *pattern) {
if (!pattern) return 1; // NULL pattern matches any file
// Extract the filename part without the path
const char *filename = strrchr(file, '/');
if (!filename) filename = file;
else filename++; // Skip the '/'
return fnmatch(pattern, filename, 0) == 0 || fnmatch(pattern, file, 0) == 0;
}
// Check if a function matches a pattern
static int match_function_pattern(const char *func, const char *pattern) {
if (!pattern) return 1; // NULL pattern matches any function
return fnmatch(pattern, func, 0) == 0;
}
// Get the effective log level for a specific context
LogLevel logger_get_effective_level(const char *file, const char *func, int line) {
// If no rules are defined, use the global level
if (!log_rules) return current_log_level;
// Default to the global log level
LogLevel effective_level = current_log_level;
// Check each rule in order
for (LogRule *rule = log_rules; rule; rule = rule->next) {
int file_match = match_file_pattern(file, rule->file_pattern);
int function_match = match_function_pattern(func, rule->function_pattern);
int line_match = (rule->line_start == -1 || (line >= rule->line_start &&
(rule->line_end == -1 || line <= rule->line_end)));
// If all conditions match, use this rule's level
if (file_match && function_match && line_match) {
effective_level = rule->level;
// Don't break here - later rules can override earlier ones
}
}
return effective_level;
}
// Add a new log rule programmatically
int logger_add_rule(LogLevel level, const char *file_pattern, const char *function_pattern,
int line_start, int line_end) {
return add_log_rule(level, file_pattern, function_pattern, line_start, line_end) != NULL;
}
// Print all current logging rules to stderr
void logger_print_rules() {
fprintf(stderr, "Current logging rules:\n");
fprintf(stderr, " Default level: %s\n", log_level_to_string(current_log_level));
int rule_count = 0;
for (LogRule *rule = log_rules; rule; rule = rule->next) {
fprintf(stderr, " Rule %d: Level=%s, File=%s, Function=%s, Lines=%d:%d\n",
++rule_count,
log_level_to_string(rule->level),
rule->file_pattern ? rule->file_pattern : "<any>",
rule->function_pattern ? rule->function_pattern : "<any>",
rule->line_start, rule->line_end);
}
if (rule_count == 0) {
fprintf(stderr, " No specific rules defined\n");
}
}
// Helper to format a rule as a string
static void format_rule_to_buffer(char *buffer, size_t size, LogRule *rule) {
char line_range[32] = "";
// Format line range if specified
if (rule->line_start > 0) {
if (rule->line_end > 0 && rule->line_end != rule->line_start) {
snprintf(line_range, sizeof(line_range), "%d:%d", rule->line_start, rule->line_end);
} else {
snprintf(line_range, sizeof(line_range), "%d", rule->line_start);
}
}
// Format the complete rule
if (rule->file_pattern && rule->function_pattern && line_range[0]) {
// File + function + line range
snprintf(buffer, size, "%s@%s@%s=%s",
rule->file_pattern, rule->function_pattern, line_range,
log_level_to_string(rule->level));
} else if (rule->file_pattern && rule->function_pattern) {
// File + function
snprintf(buffer, size, "%s@%s=%s",
rule->file_pattern, rule->function_pattern,
log_level_to_string(rule->level));
} else if (rule->file_pattern && line_range[0]) {
// File + line range
snprintf(buffer, size, "%s@%s=%s",
rule->file_pattern, line_range,
log_level_to_string(rule->level));
} else if (rule->file_pattern) {
// Just file
snprintf(buffer, size, "%s=%s",
rule->file_pattern,
log_level_to_string(rule->level));
} else {
// Empty rule (shouldn't happen)
snprintf(buffer, size, "EMPTY=%s", log_level_to_string(rule->level));
}
}
// Format all rules into a string
char* logger_rules_to_string(Arena *arena) {
if (!arena) return NULL;
// Allocate a buffer in the arena (estimate size needed)
size_t estimated_size = 1024; // Start with 1KB
char *buffer = arena_alloc(arena, estimated_size);
if (!buffer) return NULL;
// Initialize with default level
int pos = snprintf(buffer, estimated_size, "%s", log_level_to_string(current_log_level));
// Add each rule
for (LogRule *rule = log_rules; rule; rule = rule->next) {
// Format the rule
char rule_str[256];
format_rule_to_buffer(rule_str, sizeof(rule_str), rule);
// Check buffer space and add to result
if (pos + strlen(rule_str) + 2 < estimated_size) {
buffer[pos++] = ',';
strcpy(buffer + pos, rule_str);
pos += strlen(rule_str);
} else {
// Buffer too small, just stop
strcat(buffer, ",...");
break;
}
}
return buffer;
}
char *log_rules_to_debug_str__(CTX_DECLARATION, char *name, LogRule *self, PtrSet *visited) {
char *result = arena_alloc(arena, MEM_KiB);
STRUCT_TO_DEBUG_STR(arena, result, LogRule, name, self, visited, 6,
string_to_debug_str__(POSITION_INFO, arena, "level", log_level_to_string(self->level)),
string_to_debug_str__(POSITION_INFO, arena, "file_pattern", self->file_pattern),
string_to_debug_str__(POSITION_INFO, arena, "function_pattern", self->function_pattern),
int_to_debug_str__(POSITION_INFO, arena, "line_start", self->line_start),
int_to_debug_str__(POSITION_INFO, arena, "line_end", self->line_end),
log_rules_to_debug_str__(POSITION_INFO, arena, "next", self->next, visited)
);
return result;
}
// ---------------
// -- Templater --
// ---------------
// Look at package\c\hectic\docs\templater.md
TemplateConfig template_default_config__(POSITION_INFO_DECLARATION) {
raise_message(LOG_LEVEL_TRACE, POSITION_INFO, "TEMPLATE: Default config");
TemplateConfig config;
config.Syntax.Braces.open = "{%";
config.Syntax.Braces.close = "%}";
config.Syntax.Section.control = "for ";
config.Syntax.Section.source = " in ";
config.Syntax.Section.begin = " do ";
config.Syntax.Interpolate.invoke = "";
config.Syntax.Include.invoke = "include ";
config.Syntax.Execute.invoke = "exec ";
config.Syntax.nesting = "->";
return config;
}
#define CHECK_CONFIG_STR(field, name) \
do { \
if (config->Syntax.field == NULL) { \
raise_message(LOG_LEVEL_EXCEPTION, POSITION_INFO, "VALIDATE: " name " is NULL"); \
return false; \
} \
if (strlen(config->Syntax.field) > TEMPLATE_MAX_PREFIX_LEN) { \
raise_message(LOG_LEVEL_EXCEPTION, POSITION_INFO, "VALIDATE: " name " is too long"); \
return false; \
} \
} while (0)
bool template_validate_config__(POSITION_INFO_DECLARATION, const TemplateConfig *config) {
raise_trace("VALIDATE: config %p", config);
if (!config) {
raise_message(LOG_LEVEL_EXCEPTION, POSITION_INFO, "VALIDATE: Config is NULL");
return false;
}
CHECK_CONFIG_STR(Braces.open, "Open brace");
CHECK_CONFIG_STR(Braces.close, "Close brace");
CHECK_CONFIG_STR(Section.control, "Section control");
CHECK_CONFIG_STR(Section.source, "Section source");
CHECK_CONFIG_STR(Section.begin, "Section begin");
CHECK_CONFIG_STR(Interpolate.invoke, "Interpolation invoke");
CHECK_CONFIG_STR(Include.invoke, "Include invoke");
CHECK_CONFIG_STR(Execute.invoke, "Execute invoke");
CHECK_CONFIG_STR(nesting, "Nesting");
return true;
}
#undef CHECK_CONFIG_STR
#define TEMPLATE_ASSERT_SYNTAX(pattern, message_arg, code_arg) \
if (strncmp(*s, pattern, strlen(pattern))) { \
raise_message(LOG_LEVEL_EXCEPTION, POSITION_INFO, "PARSE: " message_arg); \
result->type = RESULT_ERROR; \
result->Result.error.code = code_arg; \
result->Result.error.message = message_arg; \
return result; \
}
TemplateResult *template_parse__(POSITION_INFO_DECLARATION, Arena *arena, const char **s, const TemplateConfig *config);
TemplateResult *template_parse_interpolation__(POSITION_INFO_DECLARATION, Arena *arena, const char **s_ptr, const TemplateConfig *config) {
raise_message(LOG_LEVEL_TRACE, POSITION_INFO, "PARSE: Interpolation");
TemplateResult *result = arena_alloc__(POSITION_INFO, arena, sizeof(TemplateResult));
const char **s = s_ptr;
// Skip to the content of the interpolation
*s += strlen(config->Syntax.Braces.open);
*s = skip_whitespace(*s);
*s += strlen(config->Syntax.Interpolate.invoke);
*s = skip_whitespace(*s);
const char *key_start = *s;
while (isalnum(**s)) {
if (**s == ' ' || strncmp(*s, config->Syntax.Braces.close, strlen(config->Syntax.Braces.close))) break;
TEMPLATE_ASSERT_SYNTAX(config->Syntax.Braces.open, "Nested tag in interpolation", TEMPLATE_ERROR_NESTED_INTERPOLATION);
(*s)++;
}
size_t key_len = *s - key_start;
result->Result.some.value.interpolate.key = arena_strncpy__(POSITION_INFO, arena, key_start, key_len);
result->type = RESULT_SOME;
result->Result.some.type = TEMPLATE_NODE_INTERPOLATE;
*s_ptr = *s + strlen(config->Syntax.Braces.close);
return result;
}
TemplateResult *template_parse_section__(POSITION_INFO_DECLARATION, Arena *arena, const char **s_ptr, const TemplateConfig *config) {
raise_message(LOG_LEVEL_TRACE, POSITION_INFO, "PARSE: Section");
TemplateResult *result = arena_alloc__(POSITION_INFO, arena, sizeof(TemplateResult));
result->type = RESULT_SOME;
result->Result.some.type = TEMPLATE_NODE_SECTION;
const char **s = s_ptr;
// Skip to the content of the section
*s += strlen(config->Syntax.Braces.open);
*s = skip_whitespace(*s);
*s += strlen(config->Syntax.Section.control);
// Find the iterator name
*s = skip_whitespace(*s);
const char *iterator_start = *s;
while (isalnum(**s)) {
if (**s == ' ' || **s == '\n' || **s == '\t' || strncmp(*s, config->Syntax.Section.source, strlen(config->Syntax.Section.source))) break;
TEMPLATE_ASSERT_SYNTAX(config->Syntax.Braces.close, "Unexpected section end", TEMPLATE_ERROR_UNEXPECTED_SECTION_END);
TEMPLATE_ASSERT_SYNTAX(config->Syntax.Braces.open, "Nested tag in section element name", TEMPLATE_ERROR_NESTED_SECTION_ITERATOR);
(*s)++;
}
size_t iterator_len = *s - iterator_start;
result->Result.some.value.section.iterator = arena_strncpy__(POSITION_INFO, arena, iterator_start, iterator_len);
// Find the collection name
*s = skip_whitespace(*s);
const char *collection_start = *s;
while (isalnum(**s)) {
if (**s == ' ' || **s == '\n' || **s == '\t' || strncmp(*s, config->Syntax.Section.begin, strlen(config->Syntax.Section.begin))) break;
TEMPLATE_ASSERT_SYNTAX(config->Syntax.Braces.close, "Unexpected section end", TEMPLATE_ERROR_UNEXPECTED_SECTION_END);
TEMPLATE_ASSERT_SYNTAX(config->Syntax.Braces.open, "Nested tag in section iterator", TEMPLATE_ERROR_NESTED_SECTION_ITERATOR);
(*s)++;
}
size_t collection_len = *s - collection_start;
result->Result.some.value.section.collection = arena_strncpy__(POSITION_INFO, arena, collection_start, collection_len);
// Parse the body
TemplateResult *body_result = template_parse__(POSITION_INFO, arena, s, config);
if (body_result->type == RESULT_ERROR) {
return body_result;
}
result->Result.some.value.section.body = &body_result->Result.some;
*s_ptr = *s + strlen(config->Syntax.Braces.close);
return result;
}
TemplateResult *template_parse_include__(POSITION_INFO_DECLARATION, Arena *arena, const char **s_ptr, const TemplateConfig *config) {
raise_message(LOG_LEVEL_TRACE, POSITION_INFO, "PARSE: Include");
TemplateResult *result = arena_alloc__(POSITION_INFO, arena, sizeof(TemplateResult));
result->type = RESULT_SOME;
result->Result.some.type = TEMPLATE_NODE_INCLUDE;
const char **s = s_ptr;
// Skip to the content of the include
*s += strlen(config->Syntax.Braces.open);
*s = skip_whitespace(*s);
*s += strlen(config->Syntax.Include.invoke);
*s = skip_whitespace(*s);
const char *include_start = *s;
while (isalnum(**s)) {
if (**s == ' ' || **s == '\n' || **s == '\t' || strncmp(*s, config->Syntax.Braces.close, strlen(config->Syntax.Braces.close))) break;
TEMPLATE_ASSERT_SYNTAX(config->Syntax.Braces.open, "Nested tag in include", TEMPLATE_ERROR_NESTED_INCLUDE);
(*s)++;
}
size_t include_len = *s - include_start;
result->Result.some.value.include.key = arena_strncpy__(POSITION_INFO, arena, include_start, include_len);
*s_ptr = *s + strlen(config->Syntax.Braces.close);
return result;
}
TemplateResult *template_parse_execute__(POSITION_INFO_DECLARATION, Arena *arena, const char **s_ptr, const TemplateConfig *config) {
raise_message(LOG_LEVEL_TRACE, POSITION_INFO, "PARSE: Execute");
TemplateResult *result = arena_alloc__(POSITION_INFO, arena, sizeof(TemplateResult));
result->type = RESULT_SOME;
result->Result.some.type = TEMPLATE_NODE_EXECUTE;
const char **s = s_ptr;
*s += strlen(config->Syntax.Braces.open);
*s = skip_whitespace(*s);
*s += strlen(config->Syntax.Execute.invoke);
*s = skip_whitespace(*s);
const char *code_start = *s;
while (strncmp(*s, config->Syntax.Braces.close, strlen(config->Syntax.Braces.close))) {
TEMPLATE_ASSERT_SYNTAX(config->Syntax.Braces.open, "Nested tag in execute", TEMPLATE_ERROR_NESTED_EXECUTE);
(*s)++;
}
size_t code_len = *s - code_start;
result->Result.some.value.execute.code = arena_strncpy__(POSITION_INFO, arena, code_start, code_len);
*s_ptr = *s + strlen(config->Syntax.Braces.close);
return result;
}
TemplateResult *template_parse__(POSITION_INFO_DECLARATION, Arena *arena, const char **s, const TemplateConfig *config) {
raise_message(LOG_LEVEL_TRACE, POSITION_INFO, "PARSE: Iteration start");
if (!template_validate_config__(POSITION_INFO, config)) {
raise_message(LOG_LEVEL_EXCEPTION, POSITION_INFO, "PARSE: Invalid config");
return NULL;
}
if (!arena) {
raise_message(LOG_LEVEL_EXCEPTION, POSITION_INFO, "PARSE: Arena is NULL");
return NULL;
}
const char *start = *s;
TemplateNode *root = arena_alloc__(POSITION_INFO, arena, sizeof(TemplateNode));
TemplateNode *current = root;
int open_brace_len = strlen(config->Syntax.Braces.open);
while (*s) {
// Find the first open brace
if (strncmp(*s, config->Syntax.Braces.open, open_brace_len) == 0) {
// Add text node if there is any text before the tag
if (start != *s) {
raise_message(LOG_LEVEL_TRACE, POSITION_INFO, "PARSE: Text node: %s", arena_strncpy__(POSITION_INFO, DISPOSABLE_ARENA, start, *s - start));
current->type = TEMPLATE_NODE_TEXT;
current->value.text.content = arena_strncpy__(POSITION_INFO, arena, start, *s - start);
}
// Deside tag type by prefix
TemplateResult *current_result = arena_alloc__(POSITION_INFO, arena, sizeof(TemplateResult));
{
raise_message(LOG_LEVEL_TRACE, POSITION_INFO, "PARSE: Found tag");
const char *tag_prefix = *s + open_brace_len;
tag_prefix = skip_whitespace(tag_prefix);
raise_trace("tag_prefix: %p", tag_prefix);
if (strncmp(tag_prefix, config->Syntax.Section.control, strlen(config->Syntax.Section.control)) == 0) {
raise_message(LOG_LEVEL_TRACE, POSITION_INFO, "PARSE: Section tag");
current_result = template_parse_section__(POSITION_INFO, arena, s, config);
} else if (strncmp(tag_prefix, config->Syntax.Interpolate.invoke, strlen(config->Syntax.Interpolate.invoke)) == 0) {
raise_message(LOG_LEVEL_TRACE, POSITION_INFO, "PARSE: Interpolation tag");
current_result = template_parse_interpolation__(POSITION_INFO, arena, s, config);
} else if (strncmp(tag_prefix, config->Syntax.Include.invoke, strlen(config->Syntax.Include.invoke)) == 0) {
raise_message(LOG_LEVEL_TRACE, POSITION_INFO, "PARSE: Include tag");
current_result = template_parse_include__(POSITION_INFO, arena, s, config);
} else if (strncmp(tag_prefix, config->Syntax.Execute.invoke, strlen(config->Syntax.Execute.invoke)) == 0) {
raise_message(LOG_LEVEL_TRACE, POSITION_INFO, "PARSE: Execute tag");
current_result = template_parse_execute__(POSITION_INFO, arena, s, config);
} else {
raise_message(LOG_LEVEL_EXCEPTION, POSITION_INFO, "PARSE: Unknown tag prefix: %s", slice_create__(POSITION_INFO, 1, (char *)tag_prefix, strlen(tag_prefix), 0, TEMPLATE_MAX_PREFIX_LEN));
TemplateResult *error_result = arena_alloc__(POSITION_INFO, arena, sizeof(TemplateResult));
error_result->type = RESULT_ERROR;
error_result->Result.error.code = TEMPLATE_ERROR_UNKNOWN_TAG;
error_result->Result.error.message = "Unknown tag prefix";
return error_result;
}
}
if (current_result->type == RESULT_ERROR) {
return current_result;
}
*current = current_result->Result.some;
current->next = arena_alloc__(POSITION_INFO, arena, sizeof(TemplateNode));
current = current->next;
}
(*s)++;
}
// Add text node if there is any text after the last tag
if (start != *s) {
current->type = TEMPLATE_NODE_TEXT;
current->value.text.content = arena_strncpy__(POSITION_INFO, arena, start, *s - start);
}
TemplateResult *result = arena_alloc__(POSITION_INFO, arena, sizeof(TemplateResult));
result->type = RESULT_SOME;
result->Result.some = *root;
return result;
}
#undef TEMPLATE_ASSERT_SYNTAX
#define TEMPLATE_NODE_MAX_DEBUG_DEPTH 20
static const char *template_error_code_to_string(TemplateErrorCode code) {
switch (code) {
case TEMPLATE_ERROR_NONE: return "NONE";
case TEMPLATE_ERROR_UNKNOWN_TAG: return "UNKNOWN_TAG";
case TEMPLATE_ERROR_NESTED_INTERPOLATION: return "NESTED_INTERPOLATION";
case TEMPLATE_ERROR_UNEXPECTED_SECTION_END: return "UNEXPECTED_SECTION_END";
case TEMPLATE_ERROR_NESTED_SECTION_ITERATOR: return "NESTED_SECTION_ITERATOR";
case TEMPLATE_ERROR_NESTED_INCLUDE: return "NESTED_INCLUDE";
case TEMPLATE_ERROR_NESTED_EXECUTE: return "NESTED_EXECUTE";
default: {
raise_exception("HECTICLIB ERROR: Unknown template error code: %d", code);
return "UNKNOWN";
};
}
}
static char *template_node_type_to_string(TemplateNodeType type) {
switch (type) {
case TEMPLATE_NODE_SECTION: return "SECTION";
case TEMPLATE_NODE_INTERPOLATE: return "INTERPOLATE";
case TEMPLATE_NODE_EXECUTE: return "EXECUTE";
case TEMPLATE_NODE_INCLUDE: return "INCLUDE";
case TEMPLATE_NODE_TEXT: return "TEXT";
default: {
raise_exception("HECTICLIB ERROR: Unknown template node type: %d", type);
return "UNKNOWN";
};
}
}
char *template_node_to_debug_str__(POSITION_INFO_DECLARATION, Arena *arena, const TemplateNode *node, int depth) {
if (!node) return arena_strncpy__(POSITION_INFO, arena, "", 0);
if (depth > TEMPLATE_NODE_MAX_DEBUG_DEPTH) {
return arena_strncpy__(POSITION_INFO, arena, "...", 3);
}
// Use a temporary buffer on the stack for building the string
char temp_buf[MEM_MiB];
size_t len = 0;
#define APPEND(...) do { \
int written = snprintf(temp_buf + len, sizeof(temp_buf) - len, ##__VA_ARGS__); \
if (written < 0) return NULL; \
len += written; \
} while (0)
if (depth == 0) {
APPEND("[");
}
APPEND("{\"type\":\"%s\",", template_node_type_to_string(node->type));
switch (node->type) {
case TEMPLATE_NODE_SECTION:
APPEND("\"content\":{\"iterator\":\"%s\",\"collection\"=\"%s\"}",
node->value.section.iterator,
node->value.section.collection);
char *body_str = template_node_to_debug_str__(POSITION_INFO, arena, node->value.section.body, depth + 1);
if (body_str) {
APPEND(",\"body\":%s", body_str);
}
break;
case TEMPLATE_NODE_INTERPOLATE:
APPEND("\"content\":{\"key\":\"%s\"}", node->value.interpolate.key);
break;
case TEMPLATE_NODE_EXECUTE:
APPEND("\"content\":{\"code\":\"%s\"}", node->value.execute.code);
break;
case TEMPLATE_NODE_INCLUDE:
APPEND("\"content\":{\"key\":\"%s\"}", node->value.include.key);
break;
case TEMPLATE_NODE_TEXT:
APPEND("\"content\":{\"content\":\"%s\"}", node->value.text.content);
break;
default:
break;
}
if (node->error.code != TEMPLATE_ERROR_NONE) {
APPEND(",\"error\":{\"code\":\"%s\",\"message\":\"%s\"}", template_error_code_to_string(node->error.code), node->error.message);
}
if (node->children) {
APPEND(",\"children\":[");
char *child_str = template_node_to_debug_str__(POSITION_INFO, arena, node->children, depth + 1);
if (child_str) {
APPEND(",%s", child_str);
}
APPEND("]");
}
APPEND("}");
if (node->next) {
char *next_str = template_node_to_debug_str__(POSITION_INFO, arena, node->next, depth + 1);
if (next_str) {
APPEND(",%s", next_str);
}
}
if (depth == 0) {
APPEND("]");
}
// Copy the final string to arena-allocated memory
char *result = arena_strncpy__(POSITION_INFO, arena, temp_buf, len);
return result;
}
// ---------
// -- End --
// ---------
#undef POSITION_INFO_DECLARATION
#undef POSITION_INFO