bool Json::Parse(const string& str)
{
JSONNODE* node = json_parse(str.c_str());
if (node == NULL)
return false;
JSONNODE_ITERATOR iter = json_begin(node);
while (iter != json_end(node))
{
json_char* nodeName = json_name(*iter);
if(string(nodeName) == "" || json_type(*iter) == JSON_NULL)
{
json_free(nodeName);
break;
}
if (json_type(*iter) == JSON_NODE)
{
if(!Parse(nodeName, *iter))
return false;
}
else if(json_type(*iter) == JSON_ARRAY)
{
JSONNODE_ITERATOR i = json_begin(*iter);
while (i != json_end(*iter))
{
if(json_type(*iter) == JSON_NUMBER)
{
mDataFloatArray[nodeName].push_back(json_as_float(*i));
}
else
{
mDataStrArray[nodeName].push_back(json_as_string(*i));
}
i++;
}
}
else if(json_type(*iter) == JSON_NUMBER)
{
mDataFloat[nodeName] = json_as_float(*iter);
}
else if(json_type(*iter) == JSON_BOOL)
{
mDataBool[nodeName] = json_as_bool(*iter);
}
else if(json_type(*iter) == JSON_STRING)
{
mDataStr[nodeName] = json_as_string(*iter);
}
json_free(nodeName);
iter++;
}
json_delete(node);
return true;
}
/**
* Builds Native Libjson Node tree recusively
* \param pANode A SettingsAPI's Node.
* \return libjson's equivalent to SettingNode including children.
* If parentAbstractNode is null, then empty native node is returned
*/
JSONNODE* buildNativeJSONTreeNode(SNI* pANode) {
if (pANode == NULL) {
return json_new(identifyNodeType(SNI::TYPE_OBJECT));
}
JSONNODE* pNNode = json_new(identifyNodeType(pANode->getType()));
json_set_name(pNNode, pANode->getKey().c_str());
switch (pANode->getType()) {
case SNI::TYPE_VALUE:
{
json_set_a(pNNode, pANode->readString().c_str());
break;
}
case SNI::TYPE_OBJECT:
case SNI::TYPE_ARRAY:
{
std::vector<SNI*> children = pANode->getChildren();
std::vector<SNI*>::iterator it = children.begin();
while (it != children.end()) {
SNI* cANode = *it;
JSONNODE* cNChild = buildNativeJSONTreeNode(cANode);
json_insert(pNNode, json_end(pNNode), cNChild);
++it;
}
break;
}
default:
// Node is undefined type.
break;
}
return pNNode;
}
void JSON_GET_TEXT_ARRAY(sLONG_PTR *pResult, PackagePtr pParams)
{
C_TEXT json;
ARRAY_TEXT values;
json.fromParamAtIndex(pParams, 1);
values.setSize(1);
JSONNODE *n = _fromHex(json);
if(n){
if(json_type(n) == JSON_ARRAY){
JSONNODE_ITERATOR i = json_begin(n);
while (i != json_end(n)){
if (*i){
json_char *s = json_as_string(*i);
std::wstring w = std::wstring(s);
C_TEXT t;
_copyString(w, t);
CUTF16String u;
t.copyUTF16String(&u);
values.appendUTF16String(&u);
json_free(s);
}
++i;
}
}
}
values.toParamAtIndex(pParams, 2);
}
int json_send_warn(struct asfd *asfd, const char *msg)
{
if(json_start(asfd)
|| yajl_gen_str_pair_w("warning", msg)
|| json_end(asfd)) return -1;
return 0;
}
void SdkHandler::passwordFinished(char *bufferchar)
{
CCLOG("in function:[%s], buff:[%s]", __FUNCTION__, bufferchar);
int state = 0;
int userId = 0;
int flag = 0;
JSONNODE *n = json_parse(bufferchar);
if (n == NULL){
return;
}
JSONNODE_ITERATOR i = json_begin(n);
while (i != json_end(n)){
CCLOG("Start Parse Json in [%s]", __FUNCTION__);
if (*i == NULL){
break;
}
// recursively call ourselves to dig deeper into the tree
if (json_type(*i) == JSON_ARRAY || json_type(*i) == JSON_NODE){
break;
}
// get the node name and value as a string
json_char *node_name = json_name(*i);
// find out where to store the values
if (strcmp(node_name, "STATE") == 0){
json_int_t node_value = json_as_int(*i);
state = node_value;
}
else if (strcmp(node_name, "USER_ID") == 0){
json_int_t node_value = json_as_int(*i);
userId = node_value;
}
else if (strcmp(node_name, "LOGIN_KEY") == 0){
json_char *node_value = json_as_string(*i);
json_free(node_value);
}
else if (strcmp(node_name, "ERROR_TYPE") == 0){
json_int_t node_value = json_as_int(*i);
flag = node_value;
}
// cleanup and increment the iterator
json_free(node_name);
++i;
}
CCLOG("state:[%d], flag:[%d]", state, flag);
SdkInfoData *sdkLoginData = new SdkInfoData();
sdkLoginData->state = state;
sdkLoginData->errorFlag = flag;
SGNotificationCenter::sharedNotificationCenter()->postNotification(PASSWORDLAG,sdkLoginData,false);
}
int json_cntr_to_file(struct asfd *asfd, struct cntr *cntr)
{
int ret=-1;
if(json_start(asfd)
|| do_counters(cntr))
goto end;
ret=0;
end:
if(json_end(asfd)) return -1;
return ret;
}
json_object *parse_filter(const char *s) {
json_pull *jp = json_begin_string(s);
json_object *filter = json_read_tree(jp);
if (filter == NULL) {
fprintf(stderr, "Could not parse filter %s\n", s);
fprintf(stderr, "%s\n", jp->error);
exit(EXIT_FAILURE);
}
json_disconnect(filter);
json_end(jp);
return filter;
}
void SdkHandler::destroyGuestFinished(char *bufferchar)
{
CCLOG("in function:[%s], buff:[%s]", __FUNCTION__, bufferchar);
int state = 0;
int userId = 0;
int flag = 0;
JSONNODE *n = json_parse(bufferchar);
if (n == NULL){
return;
}
JSONNODE_ITERATOR i = json_begin(n);
while (i != json_end(n)){
CCLOG("Start Parse Json in [%s]", __FUNCTION__);
if (*i == NULL){
break;
}
// recursively call ourselves to dig deeper into the tree
if (json_type(*i) == JSON_ARRAY || json_type(*i) == JSON_NODE){
break;
}
// get the node name and value as a string
json_char *node_name = json_name(*i);
// find out where to store the values
if (strcmp(node_name, "STATE") == 0){
json_int_t node_value = json_as_int(*i);
state = node_value;
}
else if (strcmp(node_name, "USER_ID") == 0){
json_int_t node_value = json_as_int(*i);
userId = node_value;
}
else if (strcmp(node_name, "LOGIN_KEY") == 0){
json_char *node_value = json_as_string(*i);
json_free(node_value);
}
else if (strcmp(node_name, "ERROR_TYPE") == 0){
json_int_t node_value = json_as_int(*i);
flag = node_value;
}
// cleanup and increment the iterator
json_free(node_name);
++i;
}
}
json_object *read_filter(const char *fname) {
FILE *fp = fopen(fname, "r");
if (fp == NULL) {
perror(fname);
exit(EXIT_FAILURE);
}
json_pull *jp = json_begin_file(fp);
json_object *filter = json_read_tree(jp);
if (filter == NULL) {
fprintf(stderr, "%s: %s\n", fname, jp->error);
exit(EXIT_FAILURE);
}
json_disconnect(filter);
json_end(jp);
fclose(fp);
return filter;
}
int json_wlparam_proc_all(JSONNODE* node, wlp_descr_t* wlp, void* params) {
int ret;
void* param;
while(wlp->type != WLP_NULL) {
JSONNODE_ITERATOR i_param = json_find(node, wlp->name),
i_end = json_end(node);
param = ((char*) params) + wlp->off;
if(i_param == i_end) {
/* If parameter is optional, try to assign it to default value */
if(wlp->flags & WLPF_OPTIONAL) {
ret = wlparam_set_default(wlp, param);
if(ret == WLPARAM_NO_DEFAULT) {
tsload_error_msg(TSE_INTERNAL_ERROR, "Missing default value for %s", wlp->name);
return WLPARAM_JSON_NOT_FOUND;
}
wlp++;
continue;
}
tsload_error_msg(TSE_INVALID_DATA, "Workload parameter %s not specified", wlp->name);
return WLPARAM_JSON_NOT_FOUND;
}
ret = json_wlparam_proc(*i_param, wlp, param);
if(ret == WLPARAM_JSON_WRONG_TYPE) {
tsload_error_msg(TSE_INVALID_DATA, "Workload parameter %s has wrong type", wlp->name);
return ret;
}
if(ret == WLPARAM_JSON_OUTSIDE_RANGE) {
tsload_error_msg(TSE_INVALID_DATA, "Workload parameter %s outside defined range", wlp->name);
return ret;
}
wlp++;
}
return WLPARAM_JSON_OK;
}
bool admJsonToCouple::scan( void *xnode,string name)
{
JSONNODE *node=(JSONNODE *)xnode;
if (!node){
ADM_error("Invalid JSON Node\n");
return false;
}
JSONNODE_ITERATOR i = json_begin(node);
while (i != json_end(node)){
if (*i == NULL){
ADM_error("Invalid JSON Node\n");
return false;
}
json_char *node_name = json_name(*i);
//printf("Node :%s\n",node_name);
// recursively call ourselves to dig deeper into the tree
if (json_type(*i) == JSON_ARRAY || json_type(*i) == JSON_NODE)
{
if(name=="")
scan(*i,string(node_name));
else
scan(*i,name+string(".")+string(node_name));
}
else
{
keyVal k;
json_char *node_value = json_as_string(*i);
if(name=="")
k.key=string(node_name);
else
k.key=string(name)+string(".")+string(node_name);
k.value=string(node_value);
readItems.push_back(k);
json_free(node_value);
}
json_free(node_name);
++i;
}
return true;
}
int json_send(struct asfd *asfd, struct cstat *clist, struct cstat *cstat,
struct bu *bu, const char *logfile, const char *browse,
int use_cache)
{
int ret=-1;
struct cstat *c;
if(json_start(asfd)
|| json_clients())
goto end;
if(cstat && bu)
{
if(json_send_client_backup(asfd, cstat, bu, NULL,
logfile, browse, use_cache)) goto end;
}
else if(cstat)
{
if(json_send_client_backup_list(asfd, cstat, use_cache))
goto end;
}
else for(c=clist; c; c=c->next)
{
if(!c->permitted) continue;
if(json_send_client_backup(asfd, c,
bu_find_current(c->bu),
bu_find_working_or_finishing(c->bu),
NULL, NULL, use_cache))
goto end;
}
ret=0;
end:
if(json_clients_end()
|| json_end(asfd)) return -1;
return ret;
}
void JSON_DELETE_ITEM_BY_NAME(sLONG_PTR *pResult, PackagePtr pParams)
{
C_TEXT json;
C_TEXT name;
C_LONGINT option;
json.fromParamAtIndex(pParams, 1);
name.fromParamAtIndex(pParams, 2);
option.fromParamAtIndex(pParams, 3);
JSONNODE *n = _fromHex(json);
if(n){
std::wstring w;
_copyString(name, w);
JSONNODE_ITERATOR i;
switch (option.getIntValue()) {
case 1:
i = json_find_nocase(n, w.c_str());
break;
default:
i = json_find(n, w.c_str());
break;
}
/*
while (i != json_end(n)){
json_erase(n, i);
++i;
}
*/
if (i != json_end(n)){
json_erase(n, i);
}
}
}
void JSON_GET_BOOL_ARRAY(sLONG_PTR *pResult, PackagePtr pParams)
{
C_TEXT json;
ARRAY_BOOLEAN values;
json.fromParamAtIndex(pParams, 1);
values.setSize(1);
JSONNODE *n = _fromHex(json);
if(n){
if(json_type(n) == JSON_ARRAY){
JSONNODE_ITERATOR i = json_begin(n);
while (i != json_end(n)){
if (*i){
values.appendBooleanValue(json_as_bool(*i));
}
++i;
}
}
}
values.toParamAtIndex(pParams, 2);
}
void JSON_DELETE_ITEM_BY_POSITION(sLONG_PTR *pResult, PackagePtr pParams)
{
C_TEXT json;
C_LONGINT pos;
json.fromParamAtIndex(pParams, 1);
pos.fromParamAtIndex(pParams, 2);
json.fromParamAtIndex(pParams, 1);
JSONNODE *n = _fromHex(json);
if(n){
JSONNODE_ITERATOR i = json_begin(n);
int p = 1;
while (i != json_end(n)){
if(p == pos.getIntValue()){
json_erase(n, i);
break;
}
++i;
}
}
}
int read_json(int argc, char **argv, char *fname, const char *layername, int maxzoom, int minzoom, sqlite3 *outdb, struct pool *exclude, struct pool *include, int exclude_all, double droprate, int buffer, const char *tmpdir, double gamma, char *prevent) {
int ret = EXIT_SUCCESS;
char metaname[strlen(tmpdir) + strlen("/meta.XXXXXXXX") + 1];
char geomname[strlen(tmpdir) + strlen("/geom.XXXXXXXX") + 1];
char indexname[strlen(tmpdir) + strlen("/index.XXXXXXXX") + 1];
sprintf(metaname, "%s%s", tmpdir, "/meta.XXXXXXXX");
sprintf(geomname, "%s%s", tmpdir, "/geom.XXXXXXXX");
sprintf(indexname, "%s%s", tmpdir, "/index.XXXXXXXX");
int metafd = mkstemp(metaname);
if (metafd < 0) {
perror(metaname);
exit(EXIT_FAILURE);
}
int geomfd = mkstemp(geomname);
if (geomfd < 0) {
perror(geomname);
exit(EXIT_FAILURE);
}
int indexfd = mkstemp(indexname);
if (indexfd < 0) {
perror(indexname);
exit(EXIT_FAILURE);
}
FILE *metafile = fopen(metaname, "wb");
if (metafile == NULL) {
perror(metaname);
exit(EXIT_FAILURE);
}
FILE *geomfile = fopen(geomname, "wb");
if (geomfile == NULL) {
perror(geomname);
exit(EXIT_FAILURE);
}
FILE *indexfile = fopen(indexname, "wb");
if (indexfile == NULL) {
perror(indexname);
exit(EXIT_FAILURE);
}
long long metapos = 0;
long long geompos = 0;
long long indexpos = 0;
unlink(metaname);
unlink(geomname);
unlink(indexname);
unsigned file_bbox[] = { UINT_MAX, UINT_MAX, 0, 0 };
unsigned midx = 0, midy = 0;
long long seq = 0;
int nlayers = argc;
if (nlayers == 0) {
nlayers = 1;
}
int n;
for (n = 0; n < nlayers; n++) {
json_pull *jp;
const char *reading;
FILE *fp;
long long found_hashes = 0;
long long found_features = 0;
if (n >= argc) {
reading = "standard input";
fp = stdin;
} else {
reading = argv[n];
fp = fopen(argv[n], "r");
if (fp == NULL) {
perror(argv[n]);
continue;
}
}
jp = json_begin_file(fp);
while (1) {
json_object *j = json_read(jp);
if (j == NULL) {
if (jp->error != NULL) {
fprintf(stderr, "%s:%d: %s\n", reading, jp->line, jp->error);
}
json_free(jp->root);
break;
}
if (j->type == JSON_HASH) {
found_hashes++;
if (found_hashes == 50 && found_features == 0) {
fprintf(stderr, "%s:%d: Not finding any GeoJSON features in input. Is your file just bare geometries?\n", reading, jp->line);
break;
}
}
json_object *type = json_hash_get(j, "type");
if (type == NULL || type->type != JSON_STRING || strcmp(type->string, "Feature") != 0) {
continue;
}
found_features++;
json_object *geometry = json_hash_get(j, "geometry");
if (geometry == NULL) {
fprintf(stderr, "%s:%d: feature with no geometry\n", reading, jp->line);
json_free(j);
continue;
}
json_object *geometry_type = json_hash_get(geometry, "type");
if (geometry_type == NULL) {
static int warned = 0;
if (!warned) {
fprintf(stderr, "%s:%d: null geometry (additional not reported)\n", reading, jp->line);
warned = 1;
}
json_free(j);
continue;
}
if (geometry_type->type != JSON_STRING) {
fprintf(stderr, "%s:%d: geometry without type\n", reading, jp->line);
json_free(j);
continue;
}
json_object *properties = json_hash_get(j, "properties");
if (properties == NULL || (properties->type != JSON_HASH && properties->type != JSON_NULL)) {
fprintf(stderr, "%s:%d: feature without properties hash\n", reading, jp->line);
json_free(j);
continue;
}
json_object *coordinates = json_hash_get(geometry, "coordinates");
if (coordinates == NULL || coordinates->type != JSON_ARRAY) {
fprintf(stderr, "%s:%d: feature without coordinates array\n", reading, jp->line);
json_free(j);
continue;
}
int t;
for (t = 0; t < GEOM_TYPES; t++) {
if (strcmp(geometry_type->string, geometry_names[t]) == 0) {
break;
}
}
if (t >= GEOM_TYPES) {
fprintf(stderr, "%s:%d: Can't handle geometry type %s\n", reading, jp->line, geometry_type->string);
json_free(j);
continue;
}
{
unsigned bbox[] = { UINT_MAX, UINT_MAX, 0, 0 };
int nprop = 0;
if (properties->type == JSON_HASH) {
nprop = properties->length;
}
long long metastart = metapos;
char *metakey[nprop];
char *metaval[nprop];
int metatype[nprop];
int m = 0;
int i;
for (i = 0; i < nprop; i++) {
if (properties->keys[i]->type == JSON_STRING) {
if (exclude_all) {
if (!is_pooled(include, properties->keys[i]->string, VT_STRING)) {
continue;
}
} else if (is_pooled(exclude, properties->keys[i]->string, VT_STRING)) {
continue;
}
metakey[m] = properties->keys[i]->string;
if (properties->values[i] != NULL && properties->values[i]->type == JSON_STRING) {
metatype[m] = VT_STRING;
metaval[m] = properties->values[i]->string;
m++;
} else if (properties->values[i] != NULL && properties->values[i]->type == JSON_NUMBER) {
metatype[m] = VT_NUMBER;
metaval[m] = properties->values[i]->string;
m++;
} else if (properties->values[i] != NULL && (properties->values[i]->type == JSON_TRUE || properties->values[i]->type == JSON_FALSE)) {
metatype[m] = VT_BOOLEAN;
metaval[m] = properties->values[i]->type == JSON_TRUE ? "true" : "false";
m++;
} else if (properties->values[i] != NULL && (properties->values[i]->type == JSON_NULL)) {
;
} else {
fprintf(stderr, "%s:%d: Unsupported property type for %s\n", reading, jp->line, properties->keys[i]->string);
json_free(j);
continue;
}
}
}
serialize_int(metafile, m, &metapos, fname);
for (i = 0; i < m; i++) {
serialize_int(metafile, metatype[i], &metapos, fname);
serialize_string(metafile, metakey[i], &metapos, fname);
serialize_string(metafile, metaval[i], &metapos, fname);
}
long long geomstart = geompos;
serialize_byte(geomfile, mb_geometry[t], &geompos, fname);
serialize_byte(geomfile, n, &geompos, fname);
serialize_long_long(geomfile, metastart, &geompos, fname);
parse_geometry(t, coordinates, bbox, &geompos, geomfile, VT_MOVETO, fname, jp);
serialize_byte(geomfile, VT_END, &geompos, fname);
/*
* Note that minzoom for lines is the dimension
* of the geometry in world coordinates, but
* for points is the lowest zoom level (in tiles,
* not in pixels) at which it should be drawn.
*
* So a line that is too small for, say, z8
* will have minzoom of 18 (if tile detail is 10),
* not 8.
*/
int minzoom = 0;
if (mb_geometry[t] == VT_LINE) {
for (minzoom = 0; minzoom < 31; minzoom++) {
unsigned mask = 1 << (32 - (minzoom + 1));
if (((bbox[0] & mask) != (bbox[2] & mask)) ||
((bbox[1] & mask) != (bbox[3] & mask))) {
break;
}
}
} else if (mb_geometry[t] == VT_POINT) {
double r = ((double) rand()) / RAND_MAX;
if (r == 0) {
r = .00000001;
}
minzoom = maxzoom - floor(log(r) / - log(droprate));
}
serialize_byte(geomfile, minzoom, &geompos, fname);
struct index index;
index.start = geomstart;
index.end = geompos;
index.index = encode(bbox[0] / 2 + bbox[2] / 2, bbox[1] / 2 + bbox[3] / 2);
fwrite_check(&index, sizeof(struct index), 1, indexfile, fname);
indexpos += sizeof(struct index);
for (i = 0; i < 2; i++) {
if (bbox[i] < file_bbox[i]) {
file_bbox[i] = bbox[i];
}
}
for (i = 2; i < 4; i++) {
if (bbox[i] > file_bbox[i]) {
file_bbox[i] = bbox[i];
}
}
if (seq % 10000 == 0) {
fprintf(stderr, "Read %.2f million features\r", seq / 1000000.0);
}
seq++;
}
json_free(j);
/* XXX check for any non-features in the outer object */
}
json_end(jp);
fclose(fp);
}
fclose(metafile);
fclose(geomfile);
fclose(indexfile);
struct stat geomst;
struct stat metast;
if (fstat(geomfd, &geomst) != 0) {
perror("stat geom\n");
exit(EXIT_FAILURE);
}
if (fstat(metafd, &metast) != 0) {
perror("stat meta\n");
exit(EXIT_FAILURE);
}
if (geomst.st_size == 0 || metast.st_size == 0) {
fprintf(stderr, "did not read any valid geometries\n");
exit(EXIT_FAILURE);
}
char *meta = (char *) mmap(NULL, metast.st_size, PROT_READ, MAP_PRIVATE, metafd, 0);
if (meta == MAP_FAILED) {
perror("mmap meta");
exit(EXIT_FAILURE);
}
struct pool file_keys1[nlayers];
struct pool *file_keys[nlayers];
int i;
for (i = 0; i < nlayers; i++) {
pool_init(&file_keys1[i], 0);
file_keys[i] = &file_keys1[i];
}
char *layernames[nlayers];
for (i = 0; i < nlayers; i++) {
if (argc <= 1 && layername != NULL) {
layernames[i] = strdup(layername);
} else {
char *src = argv[i];
if (argc < 1) {
src = fname;
}
char *trunc = layernames[i] = malloc(strlen(src) + 1);
const char *ocp, *use = src;
for (ocp = src; *ocp; ocp++) {
if (*ocp == '/' && ocp[1] != '\0') {
use = ocp + 1;
}
}
strcpy(trunc, use);
char *cp = strstr(trunc, ".json");
if (cp != NULL) {
*cp = '\0';
}
cp = strstr(trunc, ".mbtiles");
if (cp != NULL) {
*cp = '\0';
}
layername = trunc;
char *out = trunc;
for (cp = trunc; *cp; cp++) {
if (isalpha(*cp) || isdigit(*cp) || *cp == '_') {
*out++ = *cp;
}
}
*out = '\0';
printf("using layer %d name %s\n", i, trunc);
}
}
/* Sort the index by geometry */
{
int bytes = sizeof(struct index);
fprintf(stderr, "Sorting %lld features\n", (long long) indexpos / bytes);
int page = sysconf(_SC_PAGESIZE);
long long unit = (50 * 1024 * 1024 / bytes) * bytes;
while (unit % page != 0) {
unit += bytes;
}
int nmerges = (indexpos + unit - 1) / unit;
struct merge merges[nmerges];
long long start;
for (start = 0; start < indexpos; start += unit) {
long long end = start + unit;
if (end > indexpos) {
end = indexpos;
}
if (nmerges != 1) {
fprintf(stderr, "Sorting part %lld of %d\r", start / unit + 1, nmerges);
}
merges[start / unit].start = start;
merges[start / unit].end = end;
merges[start / unit].next = NULL;
void *map = mmap(NULL, end - start, PROT_READ | PROT_WRITE, MAP_PRIVATE, indexfd, start);
if (map == MAP_FAILED) {
perror("mmap");
exit(EXIT_FAILURE);
}
qsort(map, (end - start) / bytes, bytes, indexcmp);
// Sorting and then copying avoids the need to
// write out intermediate stages of the sort.
void *map2 = mmap(NULL, end - start, PROT_READ | PROT_WRITE, MAP_SHARED, indexfd, start);
if (map2 == MAP_FAILED) {
perror("mmap (write)");
exit(EXIT_FAILURE);
}
memcpy(map2, map, end - start);
munmap(map, end - start);
munmap(map2, end - start);
}
if (nmerges != 1) {
fprintf(stderr, "\n");
}
void *map = mmap(NULL, indexpos, PROT_READ, MAP_PRIVATE, indexfd, 0);
if (map == MAP_FAILED) {
perror("mmap");
exit(EXIT_FAILURE);
}
FILE *f = fopen(indexname, "w");
if (f == NULL) {
perror(indexname);
exit(EXIT_FAILURE);
}
merge(merges, nmerges, (unsigned char *) map, f, bytes, indexpos / bytes);
munmap(map, indexpos);
fclose(f);
close(indexfd);
}
/* Copy geometries to a new file in index order */
indexfd = open(indexname, O_RDONLY);
if (indexfd < 0) {
perror("reopen sorted index");
exit(EXIT_FAILURE);
}
struct index *index_map = mmap(NULL, indexpos, PROT_READ, MAP_PRIVATE, indexfd, 0);
if (index_map == MAP_FAILED) {
perror("mmap index");
exit(EXIT_FAILURE);
}
unlink(indexname);
char *geom_map = mmap(NULL, geomst.st_size, PROT_READ, MAP_PRIVATE, geomfd, 0);
if (geom_map == MAP_FAILED) {
perror("mmap unsorted geometry");
exit(EXIT_FAILURE);
}
if (close(geomfd) != 0) {
perror("close unsorted geometry");
}
sprintf(geomname, "%s%s", tmpdir, "/geom.XXXXXXXX");
geomfd = mkstemp(geomname);
if (geomfd < 0) {
perror(geomname);
exit(EXIT_FAILURE);
}
geomfile = fopen(geomname, "wb");
if (geomfile == NULL) {
perror(geomname);
exit(EXIT_FAILURE);
}
{
geompos = 0;
/* initial tile is 0/0/0 */
serialize_int(geomfile, 0, &geompos, fname);
serialize_uint(geomfile, 0, &geompos, fname);
serialize_uint(geomfile, 0, &geompos, fname);
long long i;
long long sum = 0;
long long progress = 0;
for (i = 0; i < indexpos / sizeof(struct index); i++) {
fwrite_check(geom_map + index_map[i].start, sizeof(char), index_map[i].end - index_map[i].start, geomfile, fname);
sum += index_map[i].end - index_map[i].start;
long long p = 1000 * i / (indexpos / sizeof(struct index));
if (p != progress) {
fprintf(stderr, "Reordering geometry: %3.1f%%\r", p / 10.0);
progress = p;
}
}
/* end of tile */
serialize_byte(geomfile, -2, &geompos, fname);
fclose(geomfile);
}
if (munmap(index_map, indexpos) != 0) {
perror("unmap sorted index");
}
if (munmap(geom_map, geomst.st_size) != 0) {
perror("unmap unsorted geometry");
}
if (close(indexfd) != 0) {
perror("close sorted index");
}
/* Traverse and split the geometries for each zoom level */
geomfd = open(geomname, O_RDONLY);
if (geomfd < 0) {
perror("reopen sorted geometry");
exit(EXIT_FAILURE);
}
unlink(geomname);
if (fstat(geomfd, &geomst) != 0) {
perror("stat sorted geom\n");
exit(EXIT_FAILURE);
}
int fd[4];
off_t size[4];
fd[0] = geomfd;
size[0] = geomst.st_size;
int j;
for (j = 1; j < 4; j++) {
fd[j] = -1;
size[j] = 0;
}
fprintf(stderr, "%lld features, %lld bytes of geometry, %lld bytes of metadata\n", seq, (long long) geomst.st_size, (long long) metast.st_size);
int written = traverse_zooms(fd, size, meta, file_bbox, file_keys, &midx, &midy, layernames, maxzoom, minzoom, outdb, droprate, buffer, fname, tmpdir, gamma, nlayers, prevent);
if (maxzoom != written) {
fprintf(stderr, "\n\n\n*** NOTE TILES ONLY COMPLETE THROUGH ZOOM %d ***\n\n\n", written);
maxzoom = written;
ret = EXIT_FAILURE;
}
if (munmap(meta, metast.st_size) != 0) {
perror("munmap meta");
}
if (close(metafd) < 0) {
perror("close meta");
}
double minlat = 0, minlon = 0, maxlat = 0, maxlon = 0, midlat = 0, midlon = 0;
tile2latlon(midx, midy, maxzoom, &maxlat, &minlon);
tile2latlon(midx + 1, midy + 1, maxzoom, &minlat, &maxlon);
midlat = (maxlat + minlat) / 2;
midlon = (maxlon + minlon) / 2;
tile2latlon(file_bbox[0], file_bbox[1], 32, &maxlat, &minlon);
tile2latlon(file_bbox[2], file_bbox[3], 32, &minlat, &maxlon);
if (midlat < minlat) {
midlat = minlat;
}
if (midlat > maxlat) {
midlat = maxlat;
}
if (midlon < minlon) {
midlon = minlon;
}
if (midlon > maxlon) {
midlon = maxlon;
}
mbtiles_write_metadata(outdb, fname, layernames, minzoom, maxzoom, minlat, minlon, maxlat, maxlon, midlat, midlon, file_keys, nlayers); // XXX layers
for (i = 0; i < nlayers; i++) {
pool_free_strings(&file_keys1[i]);
free(layernames[i]);
}
return ret;
}
// master不保存settings，直接传给plugin_init()
int load_task_setting(ls_master_t* master) {
LOG("load_task_setting()\n");
const char* setting_file = "task/setting.json";
char* buf;
long len;
FILE* f = fopen(setting_file, "r");
if (f == NULL) {
LOGE("Failed to open setting_file: %s\n", setting_file);// TODO errno
return -1;
}
fseek(f, 0, SEEK_END);
len = ftell(f);
rewind(f);
buf = (char*) malloc(len + 1);
if (NULL == buf) {
LOGE("Failed to malloc for task_setting: %s\n", strerror(errno));
return -1;
}
len = fread(buf, 1, len, f);
buf[len] = '\0';
JSONNODE* setting = json_parse(buf);
master->num_plugins = json_size(setting);
master->plugins = (ls_plugin_t*)malloc(master->num_plugins * sizeof(ls_plugin_t));
ls_plugin_t* plugin;
size_t plugin_index = 0;
char plugin_path[128];
for (JSONNODE_ITERATOR i = json_begin(setting); i != json_end(setting); ++i, ++plugin_index) {
plugin = master->plugins + plugin_index;
plugin->plugin_index = plugin_index;
json_char* plugin_name = json_name(*i);
if (NULL == plugin_name) {
LOGE("Failed to get plugin_name from task_setting\n");
return -1;
}
snprintf(plugin_path, sizeof(plugin_path), "plugin/%s/%s.so", plugin_name, plugin_name);
if (uv_dlopen(plugin_path, &plugin->plugin_lib) < 0) {
LOGE(" Failed to uv_dlopen: %s\n", uv_dlerror(&plugin->plugin_lib));
return -1;
}
if (uv_dlsym(&(plugin->plugin_lib), "plugin_declare", (void**)&(plugin->plugin_declare)) < 0) {
LOGE(" Failed to uv_dlsym\n");
return -1;
}
if ((plugin->plugin_declare(plugin) < 0)) {
LOGE(" Failed to plugin_declare\n");
return -1;
}
JSONNODE* settings = *i;
// if (plugin->master_init != NULL && (plugin->master_init)(master, settings) < 0)
if (plugin->plugin_init != NULL && (plugin->plugin_init)(settings) < 0) {
LOGE("ERROR failed to plugin_init()\n");
return -1;
}
}
// TODO json_free
return 0;
}
void SdkHandler::thirdLoginFinished(char *bufferchar)
{
CCLOG("in function:[%s], buff:[%s]", __FUNCTION__, bufferchar);
CCLOG("userName:[%s], password:[%s]", userName.c_str(), password.c_str());
int state = 0;
int userId = 0;
int flag = 0;
const char* loginKey = NULL;
JSONNODE *n = json_parse(bufferchar);
if (n == NULL){
return;
}
JSONNODE_ITERATOR i = json_begin(n);
while (i != json_end(n)){
CCLOG("Start Parse Json in [%s]", __FUNCTION__);
if (*i == NULL){
break;
}
// recursively call ourselves to dig deeper into the tree
if (json_type(*i) == JSON_ARRAY || json_type(*i) == JSON_NODE){
break;
}
// get the node name and value as a string
json_char *node_name = json_name(*i);
// find out where to store the values
if (strcmp(node_name, "STATE") == 0){
json_int_t node_value = json_as_int(*i);
state = node_value;
}
else if (strcmp(node_name, "USER_ID") == 0){
json_int_t node_value = json_as_int(*i);
userId = node_value;
}
else if (strcmp(node_name, "LOGIN_KEY") == 0){
json_char *node_value = json_as_string(*i);
loginKey = node_value;
}
else if (strcmp(node_name, "ERROR_TYPE") == 0){
json_int_t node_value = json_as_int(*i);
flag = node_value;
}
// cleanup and increment the iterator
json_free(node_name);
++i;
}
if (flag == 20)
{
SGNotificationCenter::sharedNotificationCenter()->postNotification(INVALID_INFO_TIP,new CCInteger(20),false);
return ;
}
CCLOG("state:[%d], err_type:[%d]", state, flag);
if (state == 1)
{
SdkInfoData *sdkLoginData = new SdkInfoData();
sdkLoginData->accountId = userId;
sdkLoginData->errorFlag = flag;
sdkLoginData->loginKey = std::string(loginKey);
sdkLoginData->userName = this->userName;
sdkLoginData->password = this->password;
sdkLoginData->isEx = this->isExist;
CCLOG("loginKey:[%s]", loginKey);
//需要将登陆数据写入本地,在此非主线程,需要将当前数据发至主线程写入本地文件
SGNotificationCenter::sharedNotificationCenter()->postNotification(THIRDPARTYLOGIN,sdkLoginData,false);
}
else if (flag == 13)
{
SGNotificationCenter::sharedNotificationCenter()->postNotification(BIND_FAILED, false);
}
else
{
CCLOG("Login Failed!");
}
}
void JSON_GET_CHILD_NODES(sLONG_PTR *pResult, PackagePtr pParams)
{
C_TEXT json;
ARRAY_TEXT nodes;
ARRAY_LONGINT types;
ARRAY_TEXT names;
json.fromParamAtIndex(pParams, 1);
nodes.setSize(1);
types.setSize(1);
names.setSize(1);
JSONNODE *n = _fromHex(json);
if(n){
JSONNODE_ITERATOR i = json_begin(n);
while (i != json_end(n)){
if (*i){
json_char *s = json_name(*i);
std::wstring w = std::wstring(s);
C_TEXT t;
_copyString(w, t);
json_free(s);
CUTF16String nodeName;
t.copyUTF16String(&nodeName);
names.appendUTF16String(&nodeName);
C_TEXT h;
_toHex(*i, h);
CUTF16String nodeRef;
h.copyUTF16String(&nodeRef);
nodes.appendUTF16String(&nodeRef);
switch (json_type(*i)) {
case JSON_NULL:
types.appendIntValue(0);
break;
case JSON_STRING:
types.appendIntValue(1);
break;
case JSON_NUMBER:
types.appendIntValue(2);
break;
case JSON_BOOL:
types.appendIntValue(3);
break;
case JSON_ARRAY:
types.appendIntValue(4);
break;
case JSON_NODE:
types.appendIntValue(5);
break;
}
}
++i;
}
}
nodes.toParamAtIndex(pParams, 2);
types.toParamAtIndex(pParams, 3);
names.toParamAtIndex(pParams, 4);
}
void SdkHandler::registFinished(char *bufferchar)
{
CCLOG("in function:[%s], buff:[%s]", __FUNCTION__, bufferchar);
int state = 0;
int userId = 0;
int flag = 0;
const char* loginKey = NULL;
JSONNODE *n = json_parse(bufferchar);
if (n == NULL){
return;
}
JSONNODE_ITERATOR i = json_begin(n);
while (i != json_end(n)){
CCLOG("Start Parse Json in [%s]", __FUNCTION__);
if (*i == NULL){
break;
}
// recursively call ourselves to dig deeper into the tree
if (json_type(*i) == JSON_ARRAY || json_type(*i) == JSON_NODE){
break;
}
// get the node name and value as a string
json_char *node_name = json_name(*i);
// find out where to store the values
if (strcmp(node_name, "STATE") == 0){
json_int_t node_value = json_as_int(*i);
state = node_value;
}
else if (strcmp(node_name, "USER_ID") == 0){
json_int_t node_value = json_as_int(*i);
userId = node_value;
}
else if (strcmp(node_name, "LOGIN_KEY") == 0){
json_char *node_value = json_as_string(*i);
loginKey = node_value;
}
else if (strcmp(node_name, "ERROR_TYPE") == 0){
json_int_t node_value = json_as_int(*i);
flag = node_value;
}
// cleanup and increment the iterator
json_free(node_name);
++i;
}
//这里做状态判定
if (flag == 10)
{
SGNotificationCenter::sharedNotificationCenter()->postNotification(INVALID_INFO_TIP,new CCInteger(10),false);
return ;
}
else if (flag == 11)
{
SGNotificationCenter::sharedNotificationCenter()->postNotification(INVALID_INFO_TIP,new CCInteger(11),false);
return ;
}
else if (flag == 12)
{
SGNotificationCenter::sharedNotificationCenter()->postNotification(INVALID_INFO_TIP,new CCInteger(12),false);
return ;
}
CCLOG("Json parse completed! in fun : [%s]", __FUNCTION__);
SdkInfoData *sdkLoginData = new SdkInfoData();
sdkLoginData->state = state;
sdkLoginData->accountId = userId;
sdkLoginData->flag = flag;
sdkLoginData->loginKey = std::string(loginKey);
sdkLoginData->userName = userName;
sdkLoginData->password = password;
sdkLoginData->isEx = true;
CCLOG("####state:[%d]m accountId : [%d], flag : [%d], loginKey:[%s]####", state, userId, flag, loginKey);
SGNotificationCenter::sharedNotificationCenter()->postNotification(REREGISTFLAG,sdkLoginData,false);
}
void TestSuite::TestInspectors(void){
UnitTest::SetPrefix("TestInspectors.cpp - Inspectors");
#ifdef JSON_LIBRARY
JSONNODE * test = json_new(JSON_NULL);
assertEquals(json_type(test), JSON_NULL);
json_char * res = json_as_string(test);
assertCStringSame(res, JSON_TEXT(""));
json_free(res);
assertEquals_Primitive(json_as_int(test), 0);
assertEquals_Primitive(json_as_float(test), 0.0f);
assertEquals(json_as_bool(test), false);
json_set_f(test, 15.5f);
assertEquals(json_type(test), JSON_NUMBER);
#ifdef JSON_CASTABLE
res = json_as_string(test);
assertCStringSame(res, JSON_TEXT("15.5"));
json_free(res);
#endif
assertEquals_Primitive(json_as_int(test), 15);
assertEquals_Primitive(json_as_float(test), 15.5f);
#ifdef JSON_CASTABLE
assertEquals(json_as_bool(test), true);
#endif
json_set_f(test, 0.0f);
assertEquals(json_type(test), JSON_NUMBER);
#ifdef JSON_CASTABLE
res = json_as_string(test);
assertCStringSame(res, JSON_TEXT("0"));
json_free(res);
#endif
assertEquals_Primitive(json_as_int(test), 0);
assertEquals_Primitive(json_as_float(test), 0.0f);
#ifdef JSON_CASTABLE
assertEquals(json_as_bool(test), false);
#endif
json_set_b(test, true);
assertEquals(json_type(test), JSON_BOOL);
#ifdef JSON_CASTABLE
res = json_as_string(test);
assertCStringSame(res, JSON_TEXT("true"));
json_free(res);
assertEquals_Primitive(json_as_int(test), 1);
assertEquals_Primitive(json_as_float(test), 1.0f);
#endif
assertEquals(json_as_bool(test), true);
json_set_b(test, false);
assertEquals(json_type(test), JSON_BOOL);
#ifdef JSON_CASTABLE
res = json_as_string(test);
assertCStringSame(res, JSON_TEXT("false"));
json_free(res);
assertEquals_Primitive(json_as_int(test), 0);
assertEquals_Primitive(json_as_float(test), 0.0f);
#endif
assertEquals(json_as_bool(test), false);
#ifdef JSON_CASTABLE
json_cast(test, JSON_NODE);
assertEquals(json_type(test), JSON_NODE);
assertEquals(json_size(test), 0);
json_push_back(test, json_new_a(JSON_TEXT("hi"), JSON_TEXT("world")));
json_push_back(test, json_new_a(JSON_TEXT("hello"), JSON_TEXT("mars")));
json_push_back(test, json_new_a(JSON_TEXT("salut"), JSON_TEXT("france")));
assertEquals(json_size(test), 3);
TestSuite::testParsingItself(test);
JSONNODE * casted = json_as_array(test);
#ifdef JSON_UNIT_TEST
assertNotEquals(((JSONNode*)casted) -> internal, ((JSONNode*)test) -> internal);
#endif
assertEquals(json_type(casted), JSON_ARRAY);
assertEquals(json_type(test), JSON_NODE);
assertEquals(json_size(test), 3);
assertEquals(json_size(casted), 3);
TestSuite::testParsingItself(casted);
#endif
UnitTest::SetPrefix("TestInspectors.cpp - Location");
#ifdef JSON_CASTABLE
#define CheckAt(parent, locale, text)\
if(JSONNODE * temp = json_at(parent, locale)){\
json_char * _res = json_as_string(temp);\
assertCStringSame(_res, text);\
json_free(_res);\
} else {\
FAIL(std::string("CheckAt: ") + #parent + "[" + #locale + "]");\
}
#define CheckNameAt(parent, locale, text)\
if(JSONNODE * temp = json_at(parent, locale)){\
json_char * _res = json_name(temp);\
assertCStringSame(_res, text);\
json_free(_res);\
} else {\
FAIL(std::string("CheckNameAt: ") + #parent + "[" + #locale + "]");\
}
CheckAt(casted, 0, JSON_TEXT("world"));
CheckAt(casted, 1, JSON_TEXT("mars"));
CheckAt(casted, 2, JSON_TEXT("france"));
CheckNameAt(casted, 0, JSON_TEXT(""));
CheckNameAt(casted, 1, JSON_TEXT(""));
CheckNameAt(casted, 2, JSON_TEXT(""));
CheckAt(test, 0, JSON_TEXT("world"));
CheckAt(test, 1, JSON_TEXT("mars"));
CheckAt(test, 2, JSON_TEXT("france"));
CheckNameAt(test, 0, JSON_TEXT("hi"));
CheckNameAt(test, 1, JSON_TEXT("hello"));
CheckNameAt(test, 2, JSON_TEXT("salut"));
#define CheckGet(parent, locale, text)\
if(JSONNODE * temp = json_get(parent, locale)){\
json_char * _res = json_as_string(temp);\
assertCStringSame(_res, text);\
json_free(_res);\
} else {\
FAIL(std::string("CheckGet: ") + #parent + "[" + #locale + "]");\
}
#ifdef JSON_CASE_INSENSITIVE_FUNCTIONS
#define CheckGetNoCase(parent, locale, text)\
if(JSONNODE * temp = json_get_nocase(parent, locale)){\
json_char * _res = json_as_string(temp);\
assertCStringSame(_res, text);\
json_free(_res);\
} else {\
FAIL(std::string("CheckGetNoCase: ") + #parent + "[" + #locale + "]");\
}
#else
#define CheckGetNoCase(parent, locale, text)
#endif
CheckGet(test, JSON_TEXT("hi"), JSON_TEXT("world"));
CheckGetNoCase(test, JSON_TEXT("HI"), JSON_TEXT("world"));
CheckGet(test, JSON_TEXT("hello"), JSON_TEXT("mars"));
CheckGetNoCase(test, JSON_TEXT("HELLO"), JSON_TEXT("mars"));
CheckGet(test, JSON_TEXT("salut"), JSON_TEXT("france"));
CheckGetNoCase(test, JSON_TEXT("SALUT"), JSON_TEXT("france"));
assertNull(json_get(test, JSON_TEXT("meh")));
#ifdef JSON_CASE_INSENSITIVE_FUNCTIONS
assertNull(json_get_nocase(test, JSON_TEXT("meh")));
#endif
#endif
#ifdef JSON_ITERATORS
#ifdef JSON_CASTABLE
UnitTest::SetPrefix("TestInspectors.cpp - Iterators");
for(JSONNODE_ITERATOR it = json_begin(casted), end = json_end(casted); it != end; ++it){
json_char * _res = json_name(*it);
assertCStringSame(_res, JSON_TEXT(""));
json_free(_res);
}
#endif
#endif
#ifdef JSON_BINARY
UnitTest::SetPrefix("TestInspectors.cpp - Binary");
json_set_binary(test, (const unsigned char *)"Hello World", 11);
assertEquals(json_type(test), JSON_STRING);
json_char * _res = json_as_string(test);
assertCStringSame(_res, JSON_TEXT("SGVsbG8gV29ybGQ="));
json_free(_res);
unsigned long i;
if(char * bin = (char*)json_as_binary(test, &i)){
assertEquals(i, 11);
char * terminated = (char*)std::memcpy(std::malloc(i + 1), bin, i);
terminated[i] = '\0';
assertCStringEquals(terminated, "Hello World");
json_free(bin);
std::free(terminated);
} else {
FAIL("as_binary failed");
}
json_set_a(test, JSON_TEXT("Hello World"));
assertEquals(json_type(test), JSON_STRING);
_res = json_as_string(test);
assertCStringSame(_res, JSON_TEXT("Hello World"));
json_free(_res);
#ifdef JSON_SAFE
assertEquals(json_as_binary(test, &i), 0);
assertEquals(i, 0);
#endif
#endif
json_delete(test);
#ifdef JSON_CASTABLE
json_delete(casted);
#endif
#else
JSONNode test = JSONNode(JSON_NULL);
#ifdef JSON_CASTABLE
assertEquals(test.as_string(), JSON_TEXT(""));
assertEquals(test.as_int(), 0);
assertEquals(test.as_float(), 0.0f);
assertEquals(test.as_bool(), false);
#endif
test = 15.5f;
assertEquals(test.type(), JSON_NUMBER);
#ifdef JSON_CASTABLE
assertEquals(test.as_string(), JSON_TEXT("15.5"));
#endif
assertEquals(test.as_int(), 15);
assertEquals(test.as_float(), 15.5f);
#ifdef JSON_CASTABLE
assertEquals(test.as_bool(), true);
#endif
test = 0.0f;
assertEquals(test.type(), JSON_NUMBER);
#ifdef JSON_CASTABLE
assertEquals(test.as_string(), JSON_TEXT("0"));
#endif
assertEquals(test.as_int(), 0);
assertEquals(test.as_float(), 0.0f);
#ifdef JSON_CASTABLE
assertEquals(test.as_bool(), false);
#endif
test = true;
assertEquals(test.type(), JSON_BOOL);
#ifdef JSON_CASTABLE
assertEquals(test.as_string(), JSON_TEXT("true"));
assertEquals(test.as_int(), 1);
assertEquals(test.as_float(), 1.0f);
#endif
assertEquals(test.as_bool(), true);
test = false;
assertEquals(test.type(), JSON_BOOL);
#ifdef JSON_CASTABLE
assertEquals(test.as_string(), JSON_TEXT("false"));
assertEquals(test.as_int(), 0);
assertEquals(test.as_float(), 0.0f);
#endif
assertEquals(test.as_bool(), false);
#ifdef JSON_CASTABLE
test.cast(JSON_NODE);
#else
test = JSONNode(JSON_NODE);
#endif
assertEquals(test.type(), JSON_NODE);
assertEquals(test.size(), 0);
test.push_back(JSONNode(JSON_TEXT("hi"), JSON_TEXT("world")));
test.push_back(JSONNode(JSON_TEXT("hello"), JSON_TEXT("mars")));
test.push_back(JSONNode(JSON_TEXT("salut"), JSON_TEXT("france")));
assertEquals(test.size(), 3);
TestSuite::testParsingItself(test);
#ifdef JSON_CASTABLE
JSONNode casted = test.as_array();
#ifdef JSON_UNIT_TEST
assertNotEquals(casted.internal, test.internal);
#endif
assertEquals(casted.type(), JSON_ARRAY);
assertEquals(test.type(), JSON_NODE);
assertEquals(test.size(), 3);
assertEquals(casted.size(), 3);
TestSuite::testParsingItself(casted);
#endif
UnitTest::SetPrefix("TestInspectors.cpp - Location");
try {
#ifdef JSON_CASTABLE
assertEquals(casted.at(0), JSON_TEXT("world"));
assertEquals(casted.at(1), JSON_TEXT("mars"));
assertEquals(casted.at(2), JSON_TEXT("france"));
assertEquals(casted.at(0).name(), JSON_TEXT(""));
assertEquals(casted.at(1).name(), JSON_TEXT(""));
assertEquals(casted.at(2).name(), JSON_TEXT(""));
#endif
assertEquals(test.at(0), JSON_TEXT("world"));
assertEquals(test.at(1), JSON_TEXT("mars"));
assertEquals(test.at(2), JSON_TEXT("france"));
assertEquals(test.at(0).name(), JSON_TEXT("hi"));
assertEquals(test.at(1).name(), JSON_TEXT("hello"));
assertEquals(test.at(2).name(), JSON_TEXT("salut"));
} catch (std::out_of_range){
FAIL("exception caught");
}
try {
assertEquals(test.at(JSON_TEXT("hi")), JSON_TEXT("world"));
assertEquals(test.at(JSON_TEXT("hello")), JSON_TEXT("mars"));
assertEquals(test.at(JSON_TEXT("salut")), JSON_TEXT("france"));
#ifdef JSON_CASE_INSENSITIVE_FUNCTIONS
assertEquals(test.at_nocase(JSON_TEXT("SALUT")), JSON_TEXT("france"));
assertEquals(test.at_nocase(JSON_TEXT("HELLO")), JSON_TEXT("mars"));
assertEquals(test.at_nocase(JSON_TEXT("HI")), JSON_TEXT("world"));
#endif
} catch (std::out_of_range){
FAIL("exception caught");
}
assertException(test.at(JSON_TEXT("meh")), std::out_of_range);
#ifdef JSON_CASE_INSENSITIVE_FUNCTIONS
assertException(test.at_nocase(JSON_TEXT("meh")), std::out_of_range);
#endif
assertEquals(test[JSON_TEXT("hi")], json_string(JSON_TEXT("world")));
assertEquals(test[JSON_TEXT("hello")], json_string(JSON_TEXT("mars")));
assertEquals(test[JSON_TEXT("salut")], json_string(JSON_TEXT("france")));
assertEquals(test[0], JSON_TEXT("world"));
assertEquals(test[1], JSON_TEXT("mars"));
assertEquals(test[2], JSON_TEXT("france"));
#ifdef JSON_ITERATORS
#ifdef JSON_CASTABLE
UnitTest::SetPrefix("TestInspectors.cpp - Iterators");
for(JSONNode::iterator it = casted.begin(), end = casted.end(); it != end; ++it){
assertEquals((*it).name(), JSON_TEXT(""));
}
#endif
#endif
#ifdef JSON_BINARY
UnitTest::SetPrefix("TestInspectors.cpp - Binary");
test.set_binary((const unsigned char *)"Hello World", 11);
assertEquals(test.type(), JSON_STRING);
assertEquals(test.as_string(), JSON_TEXT("SGVsbG8gV29ybGQ="));
assertEquals(test.as_binary(), "Hello World");
assertEquals(test.as_binary().size(), 11);
test = JSON_TEXT("Hello World");
assertEquals(test.type(), JSON_STRING);
assertEquals(test.as_string(), JSON_TEXT("Hello World"));
#ifdef JSON_SAFE
assertEquals(test.as_binary(), "");
#endif
#endif
#ifdef JSON_READ_PRIORITY
//This is a regression test for a bug in at()
json_string buffer(JSON_TEXT("{ \"myValue1\" : \"foo\", \"myValue2\" : \"bar\"}"));
JSONNode current = libjson::parse(buffer);
try {
JSONNode & value1 = current[JSON_TEXT("myValue1")];
assertEquals(value1.as_string(), JSON_TEXT("foo"));
JSONNode & value2 = current[JSON_TEXT("myValue2")];
assertEquals(value2.as_string(), JSON_TEXT("bar"));
} catch (...){
assertTrue(false);
}
#endif
#endif
}
void TestSuite::TestFunctions(void){
UnitTest::SetPrefix("TestFunctions.cpp - Swap");
#ifdef JSON_LIBRARY
JSONNODE * test1 = json_new(JSON_NODE);
JSONNODE * test2 = json_new(JSON_NODE);
json_set_i(test1, 14);
json_set_i(test2, 35);
json_swap(test1, test2);
assertEquals_Primitive(json_as_int(test1), 35);
assertEquals_Primitive(json_as_int(test2), 14);
UnitTest::SetPrefix("TestFunctions.cpp - Duplicate");
json_delete(test1);
test1 = json_duplicate(test2);
#ifdef JSON_UNIT_TEST
assertNotEquals(((JSONNode*)test1) -> internal, ((JSONNode*)test2) -> internal);
#endif
assertTrue(json_equal(test1, test2));
UnitTest::SetPrefix("TestFunctions.cpp - Duplicate with children");
JSONNODE * node = json_new(JSON_NODE);
json_push_back(node, json_new_i(JSON_TEXT(""), 15));
json_push_back(node, json_new_f(JSON_TEXT(""), 27.4f));
json_push_back(node, json_new_b(JSON_TEXT(""), true));
TestSuite::testParsingItself(node);
JSONNODE * dup = json_duplicate(node);
assertEquals(json_size(dup), 3);
#ifdef JSON_UNIT_TEST
assertNotEquals(((JSONNode*)node) -> internal, ((JSONNode*)dup) -> internal);
#endif
assertEquals(json_type(dup), JSON_NODE);
TestSuite::testParsingItself(node);
TestSuite::testParsingItself(dup);
assertEquals_Primitive(json_as_int(json_at(dup, 0)), 15);
assertEquals_Primitive(json_as_float(json_at(dup, 1)), 27.4f);
assertEquals(json_as_bool(json_at(dup, 2)), true);
assertTrue(json_equal(json_at(dup, 0), json_at(node, 0)));
assertTrue(json_equal(json_at(dup, 1), json_at(node, 1)));
assertTrue(json_equal(json_at(dup, 2), json_at(node, 2)));
TestSuite::testParsingItself(dup);
#ifdef JSON_ITERATORS
for(JSONNODE_ITERATOR it = json_begin(node), end = json_end(node), dup_it = json_begin(dup);
it != end;
++it, ++dup_it){
assertTrue(json_equal(*it, *dup_it));
#ifdef JSON_UNIT_TEST
assertNotEquals(((JSONNode*)(*it)) -> internal, ((JSONNode*)(*dup_it)) -> internal);
#endif
}
#endif
UnitTest::SetPrefix("TestFunctions.cpp - Nullify");
json_nullify(test1);
assertEquals(json_type(test1), JSON_NULL);
json_char * res = json_name(test1);
assertCStringSame(res, JSON_TEXT(""));
json_free(res);
#ifdef JSON_CASTABLE
UnitTest::SetPrefix("TestFunctions.cpp - Cast");
json_cast(test1, JSON_NULL);
json_set_i(test2, 1);
json_cast(test2, JSON_BOOL);
assertEquals(json_type(test1), JSON_NULL);
assertEquals(json_type(test2), JSON_BOOL);
assertEquals(json_as_bool(test2), true);
json_set_b(test2, true);
assertEquals(json_as_bool(test2), true);
json_cast(test2, JSON_NUMBER);
assertEquals_Primitive(json_as_float(test2), 1.0f);
json_set_f(test2, 0.0f);
assertEquals_Primitive(json_as_float(test2), 0.0f);
json_cast(test2, JSON_BOOL);
assertEquals(json_as_bool(test2), false);
#endif
UnitTest::SetPrefix("TestFunctions.cpp - Merge");
json_set_a(test1, JSON_TEXT("hello"));
json_set_a(test2, JSON_TEXT("hello"));
#ifdef JSON_UNIT_TEST
assertNotEquals(((JSONNode*)test1) -> internal, ((JSONNode*)test2) -> internal);
#endif
assertTrue(json_equal(test1, test2));
json_merge(test1, test2);
#ifdef JSON_UNIT_TEST
#ifdef JSON_REF_COUNT
assertEquals(((JSONNode*)test1) -> internal, ((JSONNode*)test2) -> internal);
#else
assertNotEquals(((JSONNode*)test1) -> internal, ((JSONNode*)test2) -> internal);
#endif
#endif
#ifdef JSON_CASTABLE
json_cast(test1, JSON_NODE);
json_cast(test2, JSON_NODE);
assertEquals(json_type(test1), JSON_NODE);
assertEquals(json_type(test2), JSON_NODE);
json_push_back(test1, json_new_a(JSON_TEXT("hi"), JSON_TEXT("world")));
json_push_back(test2, json_new_a(JSON_TEXT("hi"), JSON_TEXT("world")));
TestSuite::testParsingItself(test1);
TestSuite::testParsingItself(test2);
json_merge(test1, test2);
#ifdef JSON_UNIT_TEST
#ifdef JSON_REF_COUNT
assertEquals(((JSONNode*)test1) -> internal, ((JSONNode*)test2) -> internal);
#else
assertNotEquals(((JSONNode*)test1) -> internal, ((JSONNode*)test2) -> internal);
#endif
#endif
TestSuite::testParsingItself(test1);
TestSuite::testParsingItself(test2);
#endif
json_delete(test1);
json_delete(test2);
json_delete(node);
json_delete(dup);
#else
JSONNode test1;
JSONNode test2;
test1 = JSON_TEXT("hello");
test2 = JSON_TEXT("world");
test1.swap(test2);
assertEquals(test1, JSON_TEXT("world"));
assertEquals(test2, JSON_TEXT("hello"));
UnitTest::SetPrefix("TestFunctions.cpp - Duplicate");
test1 = test2.duplicate();
#ifdef JSON_UNIT_TEST
assertNotEquals(test1.internal, test2.internal);
#endif
assertEquals(test1, test2);
UnitTest::SetPrefix("TestFunctions.cpp - Duplicate with children");
JSONNode node = JSONNode(JSON_NODE);
node.push_back(JSONNode(JSON_TEXT(""), 15));
node.push_back(JSONNode(JSON_TEXT(""), JSON_TEXT("hello world")));
node.push_back(JSONNode(JSON_TEXT(""), true));
TestSuite::testParsingItself(node);
JSONNode dup = node.duplicate();
assertEquals(dup.size(), 3);
#ifdef JSON_UNIT_TEST
assertNotEquals(node.internal, dup.internal);
#endif
assertEquals(dup.type(), JSON_NODE);
TestSuite::testParsingItself(node);
TestSuite::testParsingItself(dup);
try {
assertEquals(dup.at(0), 15);
assertEquals(dup.at(1), JSON_TEXT("hello world"));
assertEquals(dup.at(2), true);
assertEquals(dup.at(0), node.at(0));
assertEquals(dup.at(1), node.at(1));
assertEquals(dup.at(2), node.at(2));
} catch (std::out_of_range){
FAIL("exception caught");
}
TestSuite::testParsingItself(dup);
#ifdef JSON_ITERATORS
for(JSONNode::iterator it = node.begin(), end = node.end(), dup_it = dup.begin();
it != end;
++it, ++dup_it){
assertEquals(*it, *dup_it);
#ifdef JSON_UNIT_TEST
assertNotEquals((*it).internal, (*dup_it).internal);
#endif
}
#endif
UnitTest::SetPrefix("TestFunctions.cpp - Nullify");
test1.nullify();
assertEquals(test1.type(), JSON_NULL);
assertEquals(test1.name(), JSON_TEXT(""));
#ifdef JSON_CASTABLE
UnitTest::SetPrefix("TestFunctions.cpp - Cast");
test1.cast(JSON_NULL);
test2 = 1;
test2.cast(JSON_BOOL);
assertEquals(test1.type(), JSON_NULL);
assertEquals(test2.type(), JSON_BOOL);
assertEquals(test2, true);
test2 = true;
assertEquals(test2, true);
test2.cast(JSON_NUMBER);
assertEquals(test2, 1.0f);
test2 = 0.0f;
assertEquals(test2, 0.0f);
test2.cast(JSON_BOOL);
assertEquals(test2, false);
#endif
UnitTest::SetPrefix("TestFunctions.cpp - Merge");
test1 = JSON_TEXT("hello");
test2 = JSON_TEXT("hello");
#ifdef JSON_UNIT_TEST
assertNotEquals(test1.internal, test2.internal);
#endif
assertEquals(test1, test2);
test1.merge(test2);
#ifdef JSON_UNIT_TEST
#ifdef JSON_REF_COUNT
assertEquals(test1.internal, test2.internal);
#else
assertNotEquals(test1.internal, test2.internal);
#endif
#endif
#ifdef JSON_CASTABLE
test1.cast(JSON_NODE);
test2.cast(JSON_NODE);
#else
test1 = JSONNode(JSON_NODE);
test2 = JSONNode(JSON_NODE);
#endif
assertEquals(test1.type(), JSON_NODE);
assertEquals(test2.type(), JSON_NODE);
test1.push_back(JSONNode(JSON_TEXT("hi"), JSON_TEXT("world")));
test2.push_back(JSONNode(JSON_TEXT("hi"), JSON_TEXT("world")));
TestSuite::testParsingItself(test1);
TestSuite::testParsingItself(test2);
test1.merge(test2);
#ifdef JSON_UNIT_TEST
#ifdef JSON_REF_COUNT
assertEquals(test1.internal, test2.internal);
#else
assertNotEquals(test1.internal, test2.internal);
#endif
#endif
TestSuite::testParsingItself(test1);
TestSuite::testParsingItself(test2);
#endif
}