int init(int n,
int k,
int p,
int x1,
int y1,
int x2,
int y2) {
/// Validates initialization.
if (!validInitialization(n, k, p, x1, y1, x2, y2)) {
return ERROR;
}
/// Checks if first player initialized game already.
if (currentGame.isInitialized) {
return ERROR;
}
if (!currentGame.isInitialized) {
currentGame.mapSize = n;
currentGame.maxRound = k;
currentGame.startingX1 = x1;
currentGame.startingY1 = y1;
currentGame.startingX2 = x2;
currentGame.startingY2 = y2;
/// Initializes last round to 0, so pawns can move immediately.
/// Places them on 4 fields next to each other in same row, starting from king.
pawn *kingA = newPawn(x1, y1, currentGame.currentRound - 1, KING_PLAYER_A_ID);
pawn *peasantA = newPawn(x1 + 1, y1, currentGame.currentRound - 1, PEASANT_PLAYER_A_ID);
pawn *knight1A = newPawn(x1 + 2, y1, currentGame.currentRound - 1, KNIGHT_PLAYER_A_ID);
pawn *knight2A = newPawn(x1 + 3, y1, currentGame.currentRound - 1, KNIGHT_PLAYER_A_ID);
hashmapPut(currentGame.gameMap, kingA);
hashmapPut(currentGame.gameMap, peasantA);
hashmapPut(currentGame.gameMap, knight1A);
hashmapPut(currentGame.gameMap, knight2A);
pawn *kingB = newPawn(x2, y2, currentGame.currentRound - 1, KING_PLAYER_B_ID);
pawn *peasantB = newPawn(x2 + 1, y2, currentGame.currentRound - 1, PEASANT_PLAYER_B_ID);
pawn *knight1B = newPawn(x2 + 2, y2, currentGame.currentRound - 1, KNIGHT_PLAYER_B_ID);
pawn *knight2B = newPawn(x2 + 3, y2, currentGame.currentRound - 1, KNIGHT_PLAYER_B_ID);
hashmapPut(currentGame.gameMap, kingB);
hashmapPut(currentGame.gameMap, peasantB);
hashmapPut(currentGame.gameMap, knight1B);
hashmapPut(currentGame.gameMap, knight2B);
}
if (!currentGame.isInitialized) {
currentGame.isInitialized = true;
}
if (p != 1 && p != 2) { ///< Wrong player initialization.
return ERROR;
}
return GAME_OK;
}
/**
* lockNodes:<p>
* Provide the possibility to lock new entities during the transaction
*/
int transactionLockNodes(Transaction transaction,int lock, int force, Node nodes[] ,int nodesLenght){
TransactionInternal*internal=(TransactionInternal*)transaction;
if(nodes==NULL){
return NULL_NODE;
}
if(nodesLenght<=0){
return NULL_NODE;
}
if (internal->transaction!=NULL){
transactionLockNodes(internal->transaction,lock,force,nodes,nodesLenght);
}else{
if(lock==TRUE){
// Lock the entities in the server
schemaAdapterLockNodes(internal->scheamAdapter,lock, force, nodes,nodesLenght);
// Now that this schema owns the entities we can add them to the transaction
int i;
Node node;
for (i=0;i<nodesLenght;i++){
node=nodes[i];
hashmapPut(internal->transactionEntities,node->id,node);
}
}else{
return CAN_NOT_UNLOCK_ENTITIES_DURING_TRANSACTION;
}
}
}
char *tboot_config_set(char *key, char *value)
{
int i;
int valid_key;
if (!tboot_config) {
pr_error("tboot config wasn't init.\n");
return NULL;
}
valid_key = 0;
for (i = 0; tc_keys[i]; i++) {
if (!strcmp(key, tc_keys[i])) {
valid_key = 1;
break;
}
}
if (!valid_key) {
pr_error("invalid tboot config keyword:%s\n", key);
return NULL;
}
return hashmapPut(tboot_config, (void *)key, (void *)value);
}
/**
* createNode method<p>
* create node inside transaction<p>
* Like the non transactional schemaAdapter in create new entity,<p>
* but unlike the non transactional schemaAdapter, the change doesn't the effect in the server until they will be commited
*/
int transactionCreateNode(Transaction transaction,StringHashMap attributes,Node *node){
TransactionInternal*internal=(TransactionInternal*)transaction;
int result;
if(internal->transaction!=NULL){
result=transactionCreateNode(internal->transaction,attributes,node);
}else{
int schemaId=internal->sessionMetaData->schemaId;
int coreManagerId=internal->sessionMetaData->coreManagerId;
int sessionId=internal->sessionMetaData->id;
int lockTimeout=schemaAdapterGetLockTimeout(internal->scheamAdapter);
Command command = commandBuilderBuildCreateNode(TRUE, schemaId, coreManagerId, sessionId, lockTimeout, attributes);
int entityId=idProviderGetTempId(internal->idProvider);
int true=TRUE;
commandPush(command,ENTITY_ID, INTEGER,&entityId);
commandPush(command,TRANSACTION, INTEGER, &true);
commandPush(command,COPY_OF_ENTITY_ID, INTEGER, &entityId);
commandPush(command,LOCK, INTEGER, true);
result=commandExecuterConsume(internal->commandExecutor,command);
registryGetNode(internal->registry,entityId,node);
hashmapPut(internal->transactionEntities,entityId,node);
arrayListAddAll(internal->commandList,command);
}
return result;
}
static bool read(Hashmap *m, FILE *f) {
struct entry *e = malloc(sizeof (struct entry));
if (!e)
return false;
fread(e, sizeof (struct entry), 1, f);
hashmapPut(m, &e->id, &e->sid);
return true;
}
void texture_cache_unload(struct texture_cache* self, const char* key)
{
struct texture* tex = hashmapGet(self->cache, (void*)key);
if (!tex) {
hashmapPut(self->cache, (void*)key, NULL);
texture_unload(tex);
} else {
fprintf(stderr, "texture %s has already been removed", key);
}
}
// TODO : export load from binary data in Lua.
struct texture* texture_cache_load(struct texture_cache* self,
const char* key)
{
struct texture* tex = hashmapGet(self->cache, (void*)key);
if (!tex) {
tex = texture_load_from_png(key);
strncpy(tex->name, key, strlen(key));
printf("texture load key = %s, tex = %p\n", key, tex);
hashmapPut(self->cache, (void*)tex->name, (void*)tex);
} else {
tex->ref++;
}
return tex;
}
int validationManagerValidateRefferance(ValidationManager validationManager,int entityId){
ValidationManagerStruct* internal=(ValidationManagerStruct*)validationManager;
ValidationDataStructure * data;
HashMap chidrenMap;
hashmapGet(internal->parentChildrenRelationEntities,entityId,&chidrenMap);
if(chidrenMap==NULL){
chidrenMap = stringHashmapCreate(SMALL_CONTAINER_SIZE);
hashmapPut(internal->parentChildrenRelationEntities,entityId,chidrenMap);
}
ArrayList parents;
hashmapGet(internal->childrenParentRelationEntities,entityId,&parents);
if(parents==NULL){
parents = arrayListCreate();
hashmapPut(internal->childrenParentRelationEntities,entityId,parents);
}
int parentSize=arrayListSize(parents);
int childrenSize=stringHashmapLength(chidrenMap);
if(parentSize>0||childrenSize>0){
return VALID;
}else{
return NO_CHILD_PARENT_RELATION;
}
}
void ttref_add_activity(Hashmap *map, long dr) {
if (dr) {
long t = dr;
for (int i = 0; i < 6; i++) {
long v = t&MASK;
t = t >> 6;
if (v) {
// -1 as 0 means no-activity
v = (v - 1) << 1;
if (!hashmapContainsKey(map, (void *) data[v]))
hashmapPut(map, (void *) data[v], (void *) data[v + 1]);
}
}
}
}
int validationManagerValidateParentOfChild(ValidationManager validationManager,int entityId,int childEntityId,char* arcName,int arcLength){
ValidationManagerStruct* internal=(ValidationManagerStruct*)validationManager;
ValidationDataStructure * data;
StringHashMap childrenMap;
hashmapGet(internal->parentChildrenRelationEntities,entityId,&childrenMap);
if(childrenMap==NULL){
childrenMap = stringHashmapCreate(SMALL_CONTAINER_SIZE);
hashmapPut(internal->parentChildrenRelationEntities,entityId,childrenMap);
}
stringHashmapGet(childrenMap,arcName,arcLength,(Object*)&data);
if(data==NULL||data->id!=childEntityId){
return NO_CHILD_PARENT_RELATION;
}else{
return VALID;
}
}
/*
* Create node.
*/
int nodeCreate(Registry registry,int nodeId,int schemaId,int lock,Node * result){
// Create the new node and update data
RegistryInternal* internal=(RegistryInternal*)registry;
NodeInternal* node = (NodeInternal*) memoryAlloc(sizeof(NodeInternal));
node->id=nodeId;
node->phantom=FALSE;
node->locked=FALSE;
node->children=stringHashmapCreate(SMALL_CONTAINER_SIZE);
node->schemaId=schemaId;
node->phantom=FALSE;
node->lockOwnerSessionId=lock;
node->attributes=stringHashmapCreate(SMALL_CONTAINER_SIZE);
hashmapPut(internal->nodes,nodeId,node);
// Update result only if it doesn't refer to NULL;
if(result!=NULL){
*result =(Node)node;
}
return VALID;
}
Properties propertiesCreate(char *filePath) {
PropertiesInternal *m = (PropertiesInternal *) memoryAlloc(sizeof(PropertiesInternal));
m->map = hashmapCreate(SMALL_CONTAINER_SIZE);
FILE *fp;
long len;
char *buf;
fp = fopen(filePath, "rt");
if (fp == NULL) {
printf("couldn't open the properties file");
};
fseek(fp, 0, SEEK_END); //go to end
len = ftell(fp); //get position at end (length)
fseek(fp, 0, SEEK_SET); //go to beg.
buf = (char *) memoryAlloc(len + 1); //malloc buffer
long result = fread(buf, (size_t) (len + 1), 1, fp); //read into buffer
if (result < 0) {
printf("Fail to read properties file .");
}
fclose(fp);
buf[len] = 0;
char *key;
char *value;
const char newLineDelimiter[] = "\n";
const char spaseDelimiter[] = "=";
char *token;
token = strtok(buf, newLineDelimiter);
LinkedList linkedList = linkedListCreate();
while (token != NULL) {
linkedListAddFirst(linkedList, token);
token = strtok(NULL, newLineDelimiter);
}
while (linkedListSize(linkedList) > 0) {
char *token = (char *) linkedListRemoveFirst(linkedList);
key = strtok(token, spaseDelimiter);
value = strtok(NULL, spaseDelimiter);
unsigned int keyId = stringTransformToInt(key, strlen(key));
hashmapPut(m->map, keyId, value);
}
linkedListFree(linkedList);
return m;
}
void commandContainerPushCommand(CommandContainer commandContainer,Command command){
CommandContainerInternal* internal=(CommandContainerInternal*)commandContainer;
lockLock(internal->lock);
time_t currentTime; // Stores seconds elapsed since 01-01-1970
time(¤tTime);
int type=commandGetInt(command,COMMAND_TYPE);
if(type==ATOMIC_MODEL_COMMAND){
commandPush(command,SERVER_HANDLING_TIME,INTEGER,¤tTime);
linkedListAddLast(internal->atomicCommands,command);
}else{
int version=commandGetInt(command,VERSION);
int* intBuffer=memoryAlloc(SIZE_OF_INT);
memcpy(intBuffer,&version,SIZE_OF_INT);
commandPush(command,SERVER_HANDLING_TIME,INTEGER,¤tTime);
// Update version Map;
hashmapPut(internal->versionMap,version,command);
// Update version list
linkedListAddLast(internal->versions,intBuffer);
}
lockUnlock(internal->lock);
}
static PeerProxy* peerProxyCreate(Peer* peer, Credentials credentials) {
PeerProxy* peerProxy = calloc(1, sizeof(PeerProxy));
if (peerProxy == NULL) {
return NULL;
}
peerProxy->inputBuffer = bufferCreate(sizeof(Header));
if (peerProxy->inputBuffer == NULL) {
free(peerProxy);
return NULL;
}
peerProxy->peer = peer;
peerProxy->credentials = credentials;
// Initial state == expecting a header.
peerProxyExpectHeader(peerProxy);
// Add this proxy to the map. Make sure the key points to the stable memory
// inside of the peer proxy itself.
pid_t* pid = &(peerProxy->credentials.pid);
hashmapPut(peer->peerProxies, pid, peerProxy);
return peerProxy;
}
static int load_config(const char *config)
{
struct config_parser *cp;
char *value;
int i;
if (!config || strlen(config) == 0)
cp = config_parser_init(TBOOT_CONFIG);
else
cp = config_parser_init(config);
if (!cp)
goto err;
/* init config with default values */
tboot_config = hashmapCreate(array_size(tc_keys), strhash, strcompare);
if (!tboot_config)
goto err;
for (i = 0; tc_keys[i]; i++)
hashmapPut(tboot_config, (void *)tc_keys[i], (void *)tc_values[i]);
/* parse config file */
value = config_parser_get(cp, UI_CONF_KEY);
if (value)
tboot_config_set(UI_CONF_KEY, value);
value = config_parser_get(cp, DISK_CONFIG_KEY);
if (value)
tboot_config_set(DISK_CONFIG_KEY, value);
value = config_parser_get(cp, PUSH_DIR_KEY);
if (value)
tboot_config_set(PUSH_DIR_KEY, value);
value = config_parser_get(cp, ROOTFS_KEY);
if (value)
tboot_config_set(ROOTFS_KEY, value);
value = config_parser_get(cp, ENABLE_NFS_KEY);
if (value)
tboot_config_set(ENABLE_NFS_KEY, value);
value = config_parser_get(cp, NFSURL_KEY);
if (value)
tboot_config_set(NFSURL_KEY, value);
value = config_parser_get(cp, DISK_FORCE_KEY);
if (value)
tboot_config_set(DISK_FORCE_KEY, value);
value = config_parser_get(cp, BAT_THRESHOLD_KEY);
if (value)
tboot_config_set(BAT_THRESHOLD_KEY, value);
value = config_parser_get(cp, LCD_DIM_TIMEOUT_KEY);
if (value)
tboot_config_set(LCD_DIM_TIMEOUT_KEY, value);
value = config_parser_get(cp, LCD_OFF_TIMEOUT_KEY);
if (value)
tboot_config_set(LCD_OFF_TIMEOUT_KEY, value);
value = config_parser_get(cp, LCD_DIM_BRIGHTNESS_KEY);
if (value)
tboot_config_set(LCD_DIM_BRIGHTNESS_KEY, value);
config_parser_free(cp);
tboot_config_dump();
return 0;
err:
if (cp)
config_parser_free(cp);
if (tboot_config)
hashmapFree(tboot_config);
return -1;
}
static int produceUnit(int x1,
int y1,
int x2,
int y2,
int unitId) {
/// Validates initialization.
if (!isValidField(currentGame.mapSize, x1, y1) ||
!isValidField(currentGame.mapSize, x2, y2)) {
return ERROR;
}
if (currentGame.isInitialized == false) {
return ERROR;
}
/// Validates distance.
if (distMax(x1, y1, x2, y2) != 1) {
return ERROR;
}
/// Picks pawn from board.
pawn *currentPawn = hashmapGet(currentGame.gameMap, x1, y1);
/// Checks if pawn was picked.
if (currentPawn == NULL) {
return ERROR;
}
/// Checks if pawn is able to produce.
if (currentPawn->lastMove >= currentGame.currentRound - 2) {
return ERROR;
}
/// Checks if pawn belongs to current player.
if (currentGame.playerTurn != getPawnAdherence(currentPawn)) {
return ERROR;
}
if (isPeasant(currentPawn)) {
pawn *targetPawn = hashmapGet(currentGame.gameMap, x2, y2);
if (getPawnId(targetPawn) == EMPTY_SPACE_ID) {
pawn *createdPawn;
currentPawn->lastMove = currentGame.currentRound;
if (unitId == PEASANT_PRODUCE_ID) {
int newPawnId = currentGame.playerTurn == PLAYER_A_TURN ?
PEASANT_PLAYER_A_ID : PEASANT_PLAYER_B_ID;
createdPawn = newPawn(x2, y2, currentGame.currentRound - 1, newPawnId);
} else if (unitId == KNIGHT_PRODUCE_ID) {
int newPawnId = currentGame.playerTurn == PLAYER_A_TURN ?
KNIGHT_PLAYER_A_ID : KNIGHT_PLAYER_B_ID;
createdPawn = newPawn(x2, y2, currentGame.currentRound - 1, newPawnId);
} else { ///< Tried to produce wrong unit.
return ERROR;
}
hashmapPut(currentGame.gameMap, createdPawn);
return GAME_OK;
} else { ///< Field was not empty.
return ERROR;
}
} else { ///< Unit that tried to produce was not peasant.
return ERROR;
}
}
int move(int x1,
int y1,
int x2,
int y2) {
/// Validates fields.
if (!isValidField(currentGame.mapSize, x1, y1) ||
!isValidField(currentGame.mapSize, x2, y2)) {
return ERROR;
}
/// Validates initialization.
if (currentGame.isInitialized == false) {
return ERROR;
}
/// Validates distance between fields.
if (distMax(x1, y1, x2, y2) != 1) {
return ERROR;
}
/// Picks pawn from board.
pawn *currentPawn = hashmapRemove(currentGame.gameMap, x1, y1);
/// Checks if any pawn was picked.
if (currentPawn == NULL) {
return ERROR;
}
/// Checks if pawn is able to move.
if (currentPawn->lastMove >= currentGame.currentRound) {
free(currentPawn);
return ERROR;
}
/// Checks if pawn belong to current player.
if (currentGame.playerTurn != getPawnAdherence(currentPawn)) {
free(currentPawn);
return ERROR;
}
currentPawn->lastMove = currentGame.currentRound;
pawn *targetPawn = hashmapRemove(currentGame.gameMap, x2, y2);
if (getPawnAdherence(currentPawn) == getPawnAdherence(targetPawn)) {
///< Player wants to move onto his own pawn.
free(currentPawn);
if (targetPawn != NULL) {
free(targetPawn);
}
return ERROR;
} else {
int actionResult = performAction(currentPawn, targetPawn);
switch (actionResult) {
/// Frees pawn that was killed.
/// Puts pawn that survived.
case UNIT_MOVED:
currentPawn->x = (unsigned int) x2 - 1; ///< 1-based to 0-based.
currentPawn->y = (unsigned int) y2 - 1;
hashmapPut(currentGame.gameMap, currentPawn);
break;
case ATTACKER_KILLED:
currentPawn->x = (unsigned int) x2 - 1;
currentPawn->y = (unsigned int) y2 - 1;
hashmapPut(currentGame.gameMap, currentPawn);
free(targetPawn);
break;
case DEFENDER_KILLED:
hashmapPut(currentGame.gameMap, targetPawn);
free(currentPawn);
break;
case ATTACKER_KILLED_KING:
currentPawn->x = (unsigned int) x2 - 1;
currentPawn->y = (unsigned int) y2 - 1;
hashmapPut(currentGame.gameMap, currentPawn);
free(targetPawn);
/// Player that made move is victorious.
return currentGame.playerTurn == PLAYER_A_TURN ? PLAYER_A_WON : PLAYER_B_WON;
case DEFENDER_KILLED_KING:
free(currentPawn);
hashmapPut(currentGame.gameMap, targetPawn);
/// Player that made move is beaten.
return currentGame.playerTurn == PLAYER_A_TURN ? PLAYER_B_WON : PLAYER_A_WON;
case BOTH_UNITS_DIED:
if (isKing(currentPawn)) {
free(currentPawn);
free(targetPawn);
return DRAW; ///< Kings killed each other.
} else {
free(currentPawn);
free(targetPawn);
}
break;
default:
return ERROR;
}
}
return GAME_OK;
}
void fileHelperConsume(FileHelper fileHelper, Command command) {
FileHelperInternal *m = (FileHelperInternal *) fileHelper;
PageManager pageManager = NULL;
int schemaId = commandGetInt(command, SCHEMA_ID);
int entityId = commandGetInt(command, ENTITY_ID);
hashmapGet(m->managers, schemaId, &pageManager);
char schemaIdString[10];
if (pageManager == NULL) {
stringConvertInt(schemaIdString, schemaId);
char *pageDir = (char *) memoryAlloc(strlen(m->filePath) + strlen(schemaIdString) + 1);
strcpy(pageDir, m->filePath);
strcat(pageDir, "/");
strcat(pageDir, schemaIdString);
mkdir(pageDir, S_IRWXU | S_IRGRP | S_IXGRP);
pageManager = pageManagerCreate(schemaId, pageDir);
hashmapPut(m->managers, schemaId, pageManager);
}
Registry registry;
hashmapGet(m->registryMap, schemaId, ®istry);
if (registry == NULL) {
Throw(Fatal, 1, "FileHelper unsupported state failed to find registry for schemaId ");
}
char *buf = NULL;
int type = commandGetInt(command, COMMAND_TYPE);
switch (type) {
case CREATE_NEW_ENTITY: {
int lenght = commandGetByteArray(command, SERIALIZED_NODE, &buf);
pageManagerAdd(pageManager, entityId, buf, lenght);
return;
}
case DELETE_ENTITY: {
pageManagerDelete(pageManager, entityId);
return;
}
case ADD_CHILD_ENTITY_TO_PARENT_ENTITY: {
int lenght = commandGetByteArray(command, SERIALIZED_NODE, &buf);
pageManagerUpdate(pageManager, entityId, buf, lenght);
return;
}
case REMOVE_CHILD_ENTITY_FROM_PARENT_ENTITY: {
int lenght = commandGetByteArray(command, SERIALIZED_NODE, &buf);
pageManagerUpdate(pageManager, entityId, buf, lenght);
return;
}
case UPDATE_ENTITY: {
int lenght = commandGetByteArray(command, SERIALIZED_NODE, &buf);
pageManagerUpdate(pageManager, entityId, buf, lenght);
return;
}
case ADD_ATTRIBUTE: {
int lenght = commandGetByteArray(command, SERIALIZED_NODE, &buf);
pageManagerUpdate(pageManager, entityId, buf, lenght);
return;
}
case REMOVE_ATTRIBUTE: {
int lenght = commandGetByteArray(command, SERIALIZED_NODE, &buf);
pageManagerUpdate(pageManager, entityId, buf, lenght);
return;
}
}
}
void fileHelperLoad(FileHelper fileHelper) {
FileHelperInternal *m = (FileHelperInternal *) fileHelper;
fileHelperCheckCreate(m->filePath);
int sizeOfInt = sizeof(int);
struct direct **schemasIds = {0};
struct direct *schenaId;
int size = scandir(m->filePath, &schemasIds, 0, alphasort);
// loop all schemas
int i;
for (i = 0; i < size; i++) {
schenaId = (struct direct *) schemasIds[i];
char *schemaIdString = schenaId->d_name;
int schemaId = atoi(schemaIdString);
if (schemaId != 0) {
printf("schema %s\n", schenaId->d_name);
struct direct **pagesIds = {0};
struct direct *pageStruct;
char endOdString = '\0';
int pageDirLength = strlen(m->filePath);
int schemaIdStringLength = strlen(schemaIdString);
char slesh = '/';
char *pageDir = (char *) memoryAlloc(pageDirLength + 1 + schemaIdStringLength + 1);
memcpy(pageDir, m->filePath, pageDirLength);
memcpy(pageDir + pageDirLength, &slesh, 1);
memcpy(pageDir + pageDirLength + 1, schemaIdString, schemaIdStringLength);
memcpy(pageDir + pageDirLength + 1 + schemaIdStringLength, &endOdString, 1);
// cleanBuffer(pageDir);
// strcat(pageDir,m->filePath);
// strcat(pageDir,"/");
// strcat(pageDir,schemaIdString);
HashMap childrenRelations = hashmapCreate(SMALL_CONTAINER_SIZE);
Registry registry = registryCreate();
hashmapPut(m->registryMap, schemaId, registry);
PageManager pageManager = pageManagerCreate(schemaId, pageDir);
hashmapPut(m->managers, schemaId, pageManager);
int size = scandir(pageDir, &pagesIds, 0, alphasort);
int h;
//loop pages
for (h = 0; h < size; h++) {
//scandir (pageDir, &pagesIds, 0, alphasort);
pageStruct = (struct direct *) pagesIds[h];
char *pageString = pageStruct->d_name;
int pageId = atoi(pageString);
if (pageId != 0) {
printf("page %s\n", pageStruct->d_name);
// create file path.
//int i=0;
int pageDirLength = strlen(pageDir);
int pageStringLength = strlen(pageString);
char slesh = '/';
char *filePath = (char *) memoryAlloc(pageDirLength + 1 + pageStringLength + 1);
memcpy(filePath, pageDir, pageDirLength);
memcpy(filePath + pageDirLength, &slesh, 1);
memcpy(filePath + pageDirLength + 1, pageString, pageStringLength);
memcpy(filePath + pageDirLength + 1 + pageStringLength, &endOdString, 1);
FILE *fp;
long len;
// Create pointer to file.
fp = fopen(filePath, "rb");
if (fp == NULL) {
printf("couldn't open the properties file");
}
fseek(fp, 0, SEEK_END); // Go to end
len = ftell(fp); // Get position at end (length)
// Read data to buffer
char *buffer = memoryAlloc(sizeof(char) * len); // Create buffer
char *pointerToFreeBuffer = buffer;
fseek(fp, 0, SEEK_SET); // Go to the beginning.
int result = fread(buffer, len, 1, fp); // Read into buffer
if (result < 0) {
printf("Fail to read file : %s", buffer);
}
fclose(fp);
int order = 0;
long index = 0;
long step = 0;
while (index < len) {
char *start = buffer;
int id;
int schemaId;
int numberOfAttributes;
int childrenSize;
int attributeSize;
memcpy(&schemaId, buffer + SIZE_OF_INT * 0, SIZE_OF_INT);
memcpy(&id, buffer + SIZE_OF_INT * 1, SIZE_OF_INT);
memcpy(&numberOfAttributes, buffer + SIZE_OF_INT * 2, SIZE_OF_INT);
buffer += SIZE_OF_INT * 3;
Node node;
nodeCreate(registry, id, schemaId, FALSE, &node);
int h;
for (h = 0; h < numberOfAttributes; h++) {
memcpy(&attributeSize, buffer, SIZE_OF_INT);
Attribute attribute = attributeDeserializeLocal(buffer);
buffer += attributeSize;
stringHashmapPut(node->attributes, attribute->name, attribute->nameLength, attribute);
}
memcpy(&childrenSize, buffer, SIZE_OF_INT);
Array children = arrayCreate(childrenSize);
hashmapPut(childrenRelations, id, children);
int i;
buffer += SIZE_OF_INT;
int childrenIdBuffer;
for (i = 0; i < childrenSize; i++) {
memcpy(&childrenIdBuffer, buffer + SIZE_OF_INT, SIZE_OF_INT);
void *bufferElement = memoryAlloc(childrenIdBuffer + SIZE_OF_INT * 2);
memcpy(bufferElement, buffer, SIZE_OF_INT * 2 + childrenIdBuffer);
arrayInsertObject(children, bufferElement);
buffer += SIZE_OF_INT * 2 + childrenIdBuffer;
}
step = buffer - start;
index += step;
pageManagerRegister(pageManager, pageId, id, index - step, index, order, filePath);
order++;
}
// Free the file buffer
memoryFree(pointerToFreeBuffer);
}
}
if (size > 0) {
while (size) {
size = size - 1;
free(pagesIds[size]);
}
free(pagesIds);
}
hashmapIterate(childrenRelations, &updateChildren, registry);
hashmapFree(childrenRelations);
}
}
if (size > 0) {
while (size) {
size = size - 1;
free(schemasIds[size]);
}
free(schemasIds);
}
}
void massdns_scan(lookup_context_t *context)
{
memset(&stats, 0, sizeof(dns_stats_t));
size_t line_buflen = 4096;
char *line = safe_malloc(line_buflen);
size_t line_len = 0;
struct sockaddr_in server_addr;
server_addr.sin_family = AF_INET;
server_addr.sin_addr.s_addr = INADDR_ANY;
server_addr.sin_port = 0;
int sock = socket(AF_INET, SOCK_DGRAM, 0);
int socketbuf = 1024 * 1024 * 100;
if (setsockopt(sock, SOL_SOCKET, SO_SNDBUF, &socketbuf, sizeof(socketbuf)) != 0)
{
perror("Failed to adjust socket send buffer size.");
}
if (setsockopt(sock, SOL_SOCKET, SO_RCVBUF, &socketbuf, sizeof(socketbuf)) != 0)
{
perror("Failed to adjust socket receive buffer size.");
}
bind(sock, (sockaddr_t *) &server_addr, sizeof(server_addr));
fcntl(sock, F_SETFL, fcntl(sock, F_GETFL, 0) | O_NONBLOCK);
if (sock < 0)
{
perror("Failed to create socket");
exit(1);
}
FILE *f;
if(context->cmd_args.show_progress)
{
f = fopen(context->cmd_args.domains, "r");
if (f == NULL)
{
perror("Failed to open domain file");
exit(1);
}
while(!feof(f))
{
if (0 <= getline(&line, &line_buflen, f))
{
trim_end(line);
strtolower(line);
if (strcmp(line, "") != 0)
{
context->total_domains++;
}
}
}
fclose(f);
}
f = fopen(context->cmd_args.domains, "r");
if (f == NULL)
{
perror("Failed to open domain file");
exit(1);
}
if (geteuid() == 0)
{
fprintf(stderr, "You have started the program with root privileges.\n");
struct passwd *nobody = getpwnam(UNPRIVILEGED_USER);
if (!context->cmd_args.root)
{
if (nobody && setuid(nobody->pw_uid) == 0)
{
fprintf(stderr, "Privileges have been dropped to \"%s\" for security reasons.\n\n", UNPRIVILEGED_USER);
}
else if (!context->cmd_args.root)
{
fprintf(stderr, "Privileges could not be dropped to \"%s\".\n"
"For security reasons, this program will only run as root user when supplied with --root"
"which is not recommended.\n"
"It is better practice to run this program as a different user.\n", UNPRIVILEGED_USER);
exit(1);
}
}
else
{
fprintf(stderr, "[WARNING] Privileges were not dropped. This is not recommended.\n\n");
}
}
FILE *randomness = fopen("/dev/urandom", "r");
if (!randomness)
{
fprintf(stderr, "Failed to open /dev/urandom.\n");
exit(1);
}
context->current_rate = 0;
context->sock = sock;
context->resolvers = massdns_resolvers_from_file(context->cmd_args.resolvers);
context->map = hashmapCreate(context->cmd_args.hashmap_size, hash_string, cmp_lookup);
context->initial = true;
gettimeofday(&context->start_time, NULL);
context->next_update = context->start_time;
while (true)
{
while (hashmapSize(context->map) < context->cmd_args.hashmap_size && !feof(f))
{
if (0 <= getline(&line, &line_buflen, f))
{
trim_end(line);
line_len = strlen(line);
strtolower(line);
if(strcmp(line, "") == 0)
{
continue;
}
if (line_len > 0 && line[line_len - 1] == '.')
{
// Remove trailing dot from FQDN
line[line_len] = 0;
}
lookup_t *lookup = hashmapGet(context->map, line);
if (lookup == NULL)
{
char *value = safe_malloc(line_len + 1);
strcpy(value, line);
lookup = safe_malloc(sizeof(*lookup));
lookup->domain = value;
lookup->tries = 0;
if (fread(&lookup->transaction, 1, sizeof(lookup->transaction), randomness) !=
sizeof(lookup->transaction))
{
fprintf(stderr, "Failed to get randomness for transaction id.\n");
exit(1);
}
gettimeofday(&lookup->next_lookup, NULL);
hashmapPut(context->map, value, lookup);
}
}
}
if(!context->cooldown && hashmapSize(context->map) < context->cmd_args.hashmap_size)
{
context->cooldown = true;
gettimeofday(&context->cooldown_time, NULL);
}
while (massdns_receive_packet(sock, massdns_handle_packet, context));
if (feof(f) && hashmapSize(context->map) == 0)
{
break;
}
hashmapForEach(context->map, handle_domain, context);
}
for (size_t i = 0; i < context->resolvers.len; i++)
{
free(((sockaddr_in_t **) context->resolvers.data)[i]);
((sockaddr_in_t **) context->resolvers.data)[i] = NULL;
}
free(line);
free(context->resolvers.data);
context->resolvers.data = NULL;
print_stats(context);
hashmapFree(context->map);
context->map = NULL;
fclose(f);
fclose(randomness);
}
/*
* Handler to handle both TI (Insert) and TU (update) records.
*
* These records are identical except for update has possible additional entry for renaming a tiploc
*/
int tt_parse_ttinsert(struct CIFParser *parser) {
struct TimeTable *p = (struct TimeTable *) parser;
int insert = 0;
// Lookup for existing entry (update) or insert)
char tiploc[8];
cif_readString(parser->buf, 2, tiploc, 7);
struct TTTiploc *tpl = (struct TTTiploc *) hashmapGet(p->loc, tiploc);
if (!tpl) {
tpl = (struct TTTiploc *) malloc(sizeof (struct TTTiploc));
if (tpl) {
memset(tpl, 0, sizeof (struct TTTiploc));
insert = 1;
}
}
// Still no tpl then fail - out of memory most likely
if (!tpl)
return EXIT_FAILURE;
int ofs = 2;
ofs = cif_readString(parser->buf, ofs, tpl->tiploc, 7);
// ignore caps?
ofs += 2;
ofs = cif_readInt_r(parser->buf, ofs, &tpl->nlc, 6);
tpl->nlc_check = parser->buf[ofs++];
ofs = cif_readString(parser->buf, ofs, tpl->desc, 26);
ofs = cif_readInt_r(parser->buf, ofs, &tpl->stanox, 5);
// PO MCP code ignored
ofs += 4;
ofs = cif_readString(parser->buf, ofs, tpl->crs, 3);
ofs = cif_readString(parser->buf, ofs, tpl->nlcdesc, 16);
if (insert || parser->buf[ofs] == ' ') {
struct TTTiploc *old = (struct TTTiploc *) hashmapPut(p->loc, tpl->tiploc, tpl);
if (old) {
tpl->id = old->id;
free(old);
} else {
tpl->id = p->locSeq++;
}
} else {
char newt[8];
cif_readString(parser->buf, ofs, newt, 7);
logconsole("Tiploc change from '%s' to '%s'", tpl->tiploc, newt);
// Remove old entry from the map
struct TTTiploc *old = (struct TTTiploc *) hashmapRemove(p->loc, tpl->tiploc);
if (old) {
tpl->id = old->id;
free(old);
} else {
tpl->id = p->locSeq++;
}
// Replace new tiploc & re-insert
cif_readString(parser->buf, ofs, tpl->tiploc, 7);
old = (struct TTTiploc *) hashmapPut(p->loc, tpl->tiploc, tpl);
if (old)
free(old);
}
return EXIT_SUCCESS;
}
void sprite_frame_cache_add(struct sprite_frame_cache* self, struct sprite_frame* frame) {
hashmapPut(self->cache, frame->key, frame);
}