optional<expr> apply_strategy() {
std::string s_name(get_config().m_strategy);
if (s_name == "preprocess") {
return apply_preprocess();
} else if (s_name == "simp") {
return apply_simp();
} else if (s_name == "simp_nohyps") {
return apply_simp_nohyps();
} else if (s_name == "simple") {
return apply_simple();
} else if (s_name == "all") {
// TODO(Leo):
return apply_simple();
} else if (s_name == "cc") {
return apply_cc();
} else if (s_name == "grind") {
return apply_grind();
} else if (s_name == "grind_simp") {
return apply_grind_simp();
} else if (s_name == "core_grind") {
return apply_core_grind();
} else if (s_name == "ematch") {
return apply_ematch();
} else if (s_name == "ematch_simp") {
return apply_ematch_simp();
} else if (s_name == "rec_ematch_simp") {
return apply_rec_ematch_simp();
} else if (s_name == "rec_simp") {
return apply_rec_simp();
} else if (s_name == "constructor") {
return apply_constructor();
} else if (s_name == "unit") {
return apply_unit();
} else if (s_name == "backward") {
return apply_backward();
} else {
throw exception(sstream() << "unknown blast strategy '" << s_name << "'");
}
}
String M2MDevice::resource_value_string(DeviceResource resource,
uint16_t instance_id) const
{
String value = "";
M2MResourceInstance* res = get_resource_instance(resource,instance_id);
if(res) {
if(M2MDevice::Manufacturer == resource ||
M2MDevice::ModelNumber == resource ||
M2MDevice::DeviceType == resource ||
M2MDevice::SerialNumber == resource ||
M2MDevice::HardwareVersion == resource ||
M2MDevice::FirmwareVersion == resource ||
M2MDevice::SoftwareVersion == resource ||
M2MDevice::UTCOffset == resource ||
M2MDevice::Timezone == resource) {
uint8_t* buffer = NULL;
uint32_t length = 0;
res->get_value(buffer,length);
char *char_buffer = (char*)malloc(length+1);
if(char_buffer) {
memset(char_buffer,0,length+1);
memcpy(char_buffer,(char*)buffer,length);
String s_name(char_buffer);
value = s_name;
if(char_buffer) {
free(char_buffer);
}
}
if(buffer) {
free(buffer);
}
}
}
return value;
}
void reduceFunction::getMapInfo(){
for(std::map<int,mapNode>::iterator it=mapAddress.begin(); it!=mapAddress.end(); ++it){
int fd;
//int cound=0;
while(true){
fd=open_clientfd(it->second.mapIp, it->second.mapPort);
if(fd<0){
/*if(cound==3){
NodeInfo newNode("8080", "10.0.2.15");
changeInfo(1, newNode);
}*/
printf("Node is missing.\n");
sleep(1);
//cound++;
continue;
}
else{
//break;
std::cout<<"geting map info"<<std::endl;
char buf_s[80];
sprintf(buf_s,"GETMAP %d\n",it->first);
Rio_writep(fd, buf_s, strlen(buf_s));
char buf_r[80];
char * saveptr=NULL;
int numBytes;
rio_t t;
Rio_readinitb( &t,fd);
bool finished=false;
std::map<std::string, int> tempMap;
while(numBytes = Rio_readlineb(&t, buf_r, MAXLINE)>0){
if(numBytes<=0){
std::cout<<"close fd"<<std::endl;
break;
}
printf("numBytes is %d\n", numBytes);
char* r1 = strtok_r(buf_r, "*",&saveptr);
char r_name[80];
strcpy(r_name,r1);
std::string s_name(r_name);
if(s_name=="FINISH"){
finished=true;
break;
}
char* r2 = strtok_r(NULL, "*",&saveptr);
int r_num=atoi(r2);
tempMap[s_name]+=r_num;
//std::cout<<r_num<<std::endl;
}
if(finished){
for(std::map<std::string,int>::iterator tempit=tempMap.begin(); tempit!=tempMap.end(); ++tempit){
myMap[tempit->first]=tempit->second;
}
break;
}
continue;
}
}
}
}
bool ParserAlterQuery::parseImpl(Pos & pos, Pos end, ASTPtr & node, Pos & max_parsed_pos, Expected & expected)
{
Pos begin = pos;
ParserKeyword s_alter_table("ALTER TABLE");
ParserKeyword s_add_column("ADD COLUMN");
ParserKeyword s_drop_column("DROP COLUMN");
ParserKeyword s_modify_column("MODIFY COLUMN");
ParserKeyword s_modify_primary_key("MODIFY PRIMARY KEY");
ParserKeyword s_attach_partition("ATTACH PARTITION");
ParserKeyword s_detach_partition("DETACH PARTITION");
ParserKeyword s_drop_partition("DROP PARTITION");
ParserKeyword s_attach_part("ATTACH PART");
ParserKeyword s_fetch_partition("FETCH PARTITION");
ParserKeyword s_freeze_partition("FREEZE PARTITION");
ParserKeyword s_reshard("RESHARD");
ParserKeyword s_partition("PARTITION");
ParserKeyword s_after("AFTER");
ParserKeyword s_from("FROM");
ParserKeyword s_from_partition("FROM PARTITION");
ParserKeyword s_copy("COPY");
ParserKeyword s_to("TO");
ParserKeyword s_using("USING");
ParserKeyword s_coordinate("COORDINATE");
ParserKeyword s_with("WITH");
ParserKeyword s_name("NAME");
ParserString s_dot(".");
ParserString s_comma(",");
ParserString s_doubledot("..");
ParserWhitespaceOrComments ws;
ParserIdentifier table_parser;
ParserCompoundIdentifier parser_name;
ParserCompoundColumnDeclaration parser_col_decl;
ParserLiteral parser_literal;
ParserUnsignedInteger parser_uint;
ParserStringLiteral parser_string_literal;
ASTPtr table;
ASTPtr database;
String cluster_str;
ASTPtr col_type;
ASTPtr col_after;
ASTPtr col_drop;
auto query = std::make_shared<ASTAlterQuery>();
ws.ignore(pos, end);
if (!s_alter_table.ignore(pos, end, max_parsed_pos, expected))
return false;
ws.ignore(pos, end);
if (!table_parser.parse(pos, end, database, max_parsed_pos, expected))
return false;
/// Parse [db].name
if (s_dot.ignore(pos, end))
{
if (!table_parser.parse(pos, end, table, max_parsed_pos, expected))
return false;
query->table = typeid_cast<ASTIdentifier &>(*table).name;
query->database = typeid_cast<ASTIdentifier &>(*database).name;
}
else
{
table = database;
query->table = typeid_cast<ASTIdentifier &>(*table).name;
}
ws.ignore(pos, end);
if (ParserKeyword{"ON"}.ignore(pos, end, max_parsed_pos, expected))
{
if (!ASTQueryWithOnCluster::parse(pos, end, cluster_str, max_parsed_pos, expected))
return false;
}
bool parsing_finished = false;
do
{
ASTAlterQuery::Parameters params;
ws.ignore(pos, end);
if (s_add_column.ignore(pos, end, max_parsed_pos, expected))
{
ws.ignore(pos, end);
if (!parser_col_decl.parse(pos, end, params.col_decl, max_parsed_pos, expected))
return false;
ws.ignore(pos, end);
if (s_after.ignore(pos, end, max_parsed_pos, expected))
{
ws.ignore(pos, end);
if(!parser_name.parse(pos, end, params.column, max_parsed_pos, expected))
return false;
}
params.type = ASTAlterQuery::ADD_COLUMN;
}
else if (s_drop_partition.ignore(pos, end, max_parsed_pos, expected))
{
ws.ignore(pos, end);
if (!parser_literal.parse(pos, end, params.partition, max_parsed_pos, expected))
return false;
params.type = ASTAlterQuery::DROP_PARTITION;
}
else if (s_drop_column.ignore(pos, end, max_parsed_pos, expected))
{
ws.ignore(pos, end);
if (!parser_name.parse(pos, end, params.column, max_parsed_pos, expected))
return false;
params.type = ASTAlterQuery::DROP_COLUMN;
params.detach = false;
if (s_from_partition.ignore(pos, end, max_parsed_pos, expected))
{
ws.ignore(pos, end);
if (!parser_literal.parse(pos, end, params.partition, max_parsed_pos, expected))
return false;
}
}
else if (s_detach_partition.ignore(pos, end, max_parsed_pos, expected))
{
ws.ignore(pos, end);
if (!parser_literal.parse(pos, end, params.partition, max_parsed_pos, expected))
return false;
params.type = ASTAlterQuery::DROP_PARTITION;
params.detach = true;
}
else if (s_attach_partition.ignore(pos, end, max_parsed_pos, expected))
{
ws.ignore(pos, end);
if (!parser_literal.parse(pos, end, params.partition, max_parsed_pos, expected))
return false;
params.type = ASTAlterQuery::ATTACH_PARTITION;
}
else if (s_attach_part.ignore(pos, end, max_parsed_pos, expected))
{
ws.ignore(pos, end);
if (!parser_literal.parse(pos, end, params.partition, max_parsed_pos, expected))
return false;
params.part = true;
params.type = ASTAlterQuery::ATTACH_PARTITION;
}
else if (s_fetch_partition.ignore(pos, end, max_parsed_pos, expected))
{
ws.ignore(pos, end);
if (!parser_literal.parse(pos, end, params.partition, max_parsed_pos, expected))
return false;
ws.ignore(pos, end);
if (!s_from.ignore(pos, end, max_parsed_pos, expected))
return false;
ws.ignore(pos, end);
ASTPtr ast_from;
if (!parser_string_literal.parse(pos, end, ast_from, max_parsed_pos, expected))
return false;
params.from = typeid_cast<const ASTLiteral &>(*ast_from).value.get<const String &>();
params.type = ASTAlterQuery::FETCH_PARTITION;
}
else if (s_freeze_partition.ignore(pos, end, max_parsed_pos, expected))
{
ws.ignore(pos, end);
if (!parser_literal.parse(pos, end, params.partition, max_parsed_pos, expected))
return false;
ws.ignore(pos, end);
/// WITH NAME 'name' - place local backup to directory with specified name
if (s_with.ignore(pos, end, max_parsed_pos, expected))
{
ws.ignore(pos, end);
if (!s_name.ignore(pos, end, max_parsed_pos, expected))
return false;
ws.ignore(pos, end);
ASTPtr ast_with_name;
if (!parser_string_literal.parse(pos, end, ast_with_name, max_parsed_pos, expected))
return false;
params.with_name = typeid_cast<const ASTLiteral &>(*ast_with_name).value.get<const String &>();
ws.ignore(pos, end);
}
params.type = ASTAlterQuery::FREEZE_PARTITION;
}
else if (s_modify_column.ignore(pos, end, max_parsed_pos, expected))
{
ws.ignore(pos, end);
if (!parser_col_decl.parse(pos, end, params.col_decl, max_parsed_pos, expected))
return false;
ws.ignore(pos, end);
params.type = ASTAlterQuery::MODIFY_COLUMN;
}
else if (s_modify_primary_key.ignore(pos, end, max_parsed_pos, expected))
{
ws.ignore(pos, end);
if (!ParserString("(").ignore(pos, end, max_parsed_pos, expected))
return false;
ws.ignore(pos, end);
if (!ParserNotEmptyExpressionList(false).parse(pos, end, params.primary_key, max_parsed_pos, expected))
return false;
ws.ignore(pos, end);
if (!ParserString(")").ignore(pos, end, max_parsed_pos, expected))
return false;
ws.ignore(pos, end);
params.type = ASTAlterQuery::MODIFY_PRIMARY_KEY;
}
else if (s_reshard.ignore(pos, end, max_parsed_pos, expected))
{
ParserList weighted_zookeeper_paths_p(std::make_unique<ParserWeightedZooKeeperPath>(), std::make_unique<ParserString>(","), false);
ParserExpressionWithOptionalAlias parser_sharding_key_expr(false);
ParserStringLiteral parser_coordinator;
ws.ignore(pos, end);
if (s_copy.ignore(pos, end, max_parsed_pos, expected))
params.do_copy = true;
ws.ignore(pos, end);
if (s_partition.ignore(pos, end, max_parsed_pos, expected))
{
ws.ignore(pos, end);
if (!parser_uint.parse(pos, end, params.partition, max_parsed_pos, expected))
return false;
ws.ignore(pos, end);
if (s_doubledot.ignore(pos, end, max_parsed_pos, expected))
{
ws.ignore(pos, end);
if (!parser_uint.parse(pos, end, params.last_partition, max_parsed_pos, expected))
return false;
}
}
ws.ignore(pos, end);
if (!s_to.ignore(pos, end, max_parsed_pos, expected))
return false;
ws.ignore(pos, end);
if (!weighted_zookeeper_paths_p.parse(pos, end, params.weighted_zookeeper_paths, max_parsed_pos, expected))
return false;
ws.ignore(pos, end);
if (!s_using.ignore(pos, end, max_parsed_pos, expected))
return false;
ws.ignore(pos, end);
if (!parser_sharding_key_expr.parse(pos, end, params.sharding_key_expr, max_parsed_pos, expected))
return false;
ws.ignore(pos, end);
if (s_coordinate.ignore(pos, end, max_parsed_pos, expected))
{
ws.ignore(pos, end);
if (!s_with.ignore(pos, end, max_parsed_pos, expected))
return false;
ws.ignore(pos, end);
if (!parser_coordinator.parse(pos, end, params.coordinator, max_parsed_pos, expected))
return false;
ws.ignore(pos, end);
}
params.type = ASTAlterQuery::RESHARD_PARTITION;
}
else
return false;
ws.ignore(pos, end);
if (!s_comma.ignore(pos, end, max_parsed_pos, expected))
{
ws.ignore(pos, end);
parsing_finished = true;
}
query->addParameters(params);
}
while (!parsing_finished);
query->range = StringRange(begin, end);
query->cluster = cluster_str;
node = query;
return true;
}
// 解密PNG图片
void DecryptPNG(const std::vector<std::string> &filelist, const aes_key &key)
{
for (auto &filename : filelist)
{
std::ifstream in_file(filename, std::ios::binary | std::ios::ate);
if (!in_file.is_open())
{
std::cerr << "打开" << filename << " 失败！" << std::endl;
return;
}
// 读取数据块位置
uint64_t end_pos = in_file.tellg();
in_file.seekg(end_pos - sizeof(uint64_t));
uint64_t block_start_pos = *reinterpret_cast<uint64_t *>(&(ReadSome<sizeof(uint64_t)>(in_file)[0]));
in_file.seekg(block_start_pos);
// 解密数据块信息
auto block_info = ReadLarge(in_file, uint32_t(end_pos - sizeof(uint64_t) - block_start_pos));
DecryptBlock(block_info, key);
// 验证数据块内容
auto block_head = ReadSome<sizeof(BLOCK_HEAD)>(block_info);
for (unsigned int i = 0; i < block_head.size(); ++i)
{
if (block_head[i] != BLOCK_HEAD[i])
{
std::cerr << "密钥错误，解密" << filename << " 失败！" << std::endl;
return;
}
}
std::ofstream out_file(path::splitext(filename)[0] + ".png", std::ios::binary);
if (!out_file.is_open())
{
std::cerr << "创建" << path::splitext(filename)[1] << ".png" << " 失败！" << std::endl;
continue;
}
// 写入文件头
WriteToSteam(HEAD_DATA, sizeof(HEAD_DATA), out_file);
// 读取数据块
uint64_t read_size = 0;
while (true)
{
// 读取数据块信息
Block block;
memcpy(&block, &ReadSome<sizeof(Block)>(block_info)[0], sizeof(Block));
if (block_info.eof())
{
out_file.clear();
std::cerr << "the %s file format error!" << std::endl;
break;
}
// 写入数据块长度
char reverse_size[sizeof(block.size)];
memcpy(reverse_size, &block.size, sizeof(reverse_size));
std::reverse(reverse_size, reverse_size + sizeof(reverse_size));
WriteToSteam(reverse_size, sizeof(reverse_size), out_file);
// 写入数据块名称
WriteToSteam(&block.name, sizeof(block.name), out_file);
// 写入数据块内容
std::string s_name(block.name, sizeof(block.name));
if (strcmp(s_name.c_str(), "IHDR") == 0)
{
IHDRBlock ihdr;
memcpy(&ihdr, &block, sizeof(Block));
memcpy(((char *)&ihdr) + sizeof(Block), &ReadSome<sizeof(IHDRBlock) - sizeof(Block)>(block_info)[0], sizeof(IHDRBlock) - sizeof(Block));
WriteToSteam(ihdr.data, sizeof(ihdr.data), out_file);
}
else if (strcmp(s_name.c_str(), "IEND") == 0)
{
WriteToSteam(IEND_DATA, sizeof(IEND_DATA), out_file);
std::cout << "成功解密：" << filename << std::endl;
break;
}
else
{
in_file.seekg(read_size);
StreamMove(out_file, in_file, block.size + CRC_SIZE);
read_size += block.size + CRC_SIZE;
}
}
}
}
/* going out of the node ). */
int s_build_VCS( INDEX strm, enum Object type, double Temp, int add )
{
int i, j, ii, k;
int error_code = NO_ERR;
int num_el, found;
INDEX current_comp, current_opcode;
struct Stream *ptr;
struct Element_array el;
ptr = &stream_array[strm];
if ( (type==PIPE) || ((type==NODE) && add) )
{
s_reset_uni_elem( strm ); /* reset the unique element array and counter */
#if defined(DEBUG)
/* Lets print the incoming compounds */
fprintf(debug_prn_file,"\n %25.25s", s_name( strm ) );
for(i=0; i<ptr->no_of_comp; i++)
{
current_comp = ptr->comp[i]; /* get the index to the compound */
fprintf(debug_prn_file,"\n %25.25s %f", c_name(current_comp), c_get_mole( current_comp ) );
}
#endif
/* we have to determine if the streams unique elements are already specified */
/* If they are specified, add the number of the unique element to the abundance */
/* array. Else add the name of the unique element to the list VCS_elem and add */
/* the number to the abundance */
for(i=0; i<MAX_UNI_ELEM; i++)
{
if (s_uni_mat[i] == 0.0) continue;
found = FALSE;
for(j=0; j<MAXELEMENT; j++)
{
if (VCS_elem[j+1] == Nil) break;
if ( VCS_elem[j+1] == i )
{
found = TRUE;
gai[j+1] += s_uni_mat[i];
}
}
if ( !found )
{
if ( j<MAXELEMENT )
{
VCS_elem[j+1] = i;
gai[j+1] += s_uni_mat[i];
ne++; /* increase the number of elements */
}
else
{
sprintf( error, "Exceeded maximum elements for VCS in stream %s", s_name(strm) );
return error_code = VCS_ELEM_OVFLOW;
}
}
}
}
if ( (type==PIPE) || ((type==NODE) && !add) )
{
for(i=0; i<ptr->no_of_comp; i++)
{
/* first we have to find a empty space to add the compound */
k=1; /* start at one */
while ( VCS_specie[k] != MARKER && k < MAXSPECIE) k++;
if ( k >= MAXSPECIE )
{
sprintf( error, "Exceeded maximum species for VCS in stream %s", s_name(strm) );
return error_code = VCS_SPECIE_OVFLOW;
}
VCS_specie[k] = current_comp = ptr->comp[i]; /* assign the compound */
w[k] = c_get_mole( current_comp ); /* get the number of moles of the compound */
ff[k] = c_delta_G( current_comp, Temp )/1e3; /* get the chemical potential */
/* and convert to kJ/kmole */
m++; /* increase the number of species */
/* ----------- The following phase assignment (see invoke_VCS)could be a problem ---------- */
si[k] = ptr->s_phase; /* get the phase type for the compound */
/* now we have to build the formula array for this compound */
num_el = c_num_uni_elemts( current_comp ); /* get the number of unique elements for this compound */
c_uni_elemts( current_comp, &el ); /* get the unique elements */
for(j=0; j<num_el; j++)
{
ii = 1; /* start at one */
/* does the compound element name correspond to the already defined elemental abundance */
while ( VCS_elem[ii] != el.element[j] && ii < MAXELEMENT ) ii++;
if ( ii >= MAXELEMENT )
{
sprintf( error, "Could not find a place in VCS for element %s of compound %s in stream %s", Elem_txt[el.element[j]], c_name(current_comp), s_name(strm) );
return error_code = FATAL_ERR;
}
bm[k][ii] = (double)el.no_of_element[j]; /* enter the number of the element into the formula mat */
}
/* now we must enter the activity formalism */
if (ptr->s_alpha != 0.0) /* only do this for non_ideal cases */
{
VCS_act[k] = current_opcode = ptr->act_c[i]; /* assign the index into the opcode_array */
if ( current_opcode != MARKER )
{ /* this compound must have a activity formalism */
/* now we must go through our local copy of the opcodes and adjust the references */
while ( opcode[current_opcode++].mnem != RTN )
{
if ( opcode[current_opcode].mnem == GET )
opcode[current_opcode].x.entry += (INDEX)(k - i); /* now the opcode will point to the correct specie in VCS_specie */
}
}
}
}
}
return error_code;
}
int main(const carg, const char *varg[])
{
char *s;
int i;
s = NULL;
i = 0;
fprintf(stdout, "s_strcpy(NULL, \"\") == FALSE: ");
if (s_strcpy(NULL, "") == FALSE)
fprintf(stdout, "OK\n");
else
{
fprintf(stdout, "failed.\n");
i++;
}
fprintf(stdout, "s_strncpy(NULL, \"\", 10) == FALSE: ");
if (s_strncpy(NULL, "", 10) == FALSE)
fprintf(stdout, "OK\n");
else
{
fprintf(stdout, "failed.\n");
i++;
}
fprintf(stdout, "s_strcat(NULL, \"\") == FALSE: ");
if (s_strcat(NULL, "") == FALSE)
fprintf(stdout, "OK\n");
else
{
fprintf(stdout, "failed.\n");
i++;
}
fprintf(stdout, "s_strncat(NULL, \"\", 10) == FALSE: ");
if (s_strncat(NULL, "", 10) == FALSE)
fprintf(stdout, "OK\n");
else
{
fprintf(stdout, "failed.\n");
i++;
}
fprintf(stdout, "s_strcpy(&s, NULL) == FALSE: ");
if (s_strcpy(&s, NULL) == FALSE)
fprintf(stdout, "OK\n");
else
{
fprintf(stdout, "failed.\n");
i++;
}
fprintf(stdout, "s_strncpy(&s, NULL, 10) == FALSE: ");
if (s_strncpy(&s, NULL, 10) == FALSE)
fprintf(stdout, "OK\n");
else
{
fprintf(stdout, "failed.\n");
i++;
}
fprintf(stdout, "s_strcat(&s, NULL) == FALSE: ");
if (s_strcat(&s, NULL) == FALSE)
fprintf(stdout, "OK\n");
else
{
fprintf(stdout, "failed.\n");
i++;
}
fprintf(stdout, "s_strncat(&s, NULL, 10) == FALSE: ");
if (s_strncat(&s, NULL, 10) == FALSE)
fprintf(stdout, "OK\n");
else
{
fprintf(stdout, "failed.\n");
i++;
}
fprintf(stdout, "s_strcpy(&s, \"ab\"), strcmp(s, \"ab\") == 0: ");
s_strcpy(&s, "ab");
if (strcmp(s, "ab") == 0)
fprintf(stdout, "OK\n");
else
{
fprintf(stdout, "failed.\n");
i++;
}
fprintf(stdout, "s_strncpy(&s, \"ab\", 1), strcmp(s, \"a\") == 0: ");
s_strncpy(&s, "ab", 1);
if (strcmp(s, "a") == 0)
fprintf(stdout, "OK\n");
else
{
fprintf(stdout, "failed.\n");
i++;
}
fprintf(stdout, "s_strcat(&s, \"ab\"), strcmp(s, \"aab\") == 0: ");
s_strcat(&s, "ab");
if (strcmp(s, "aab") == 0)
fprintf(stdout, "OK\n");
else
{
fprintf(stdout, "failed.\n");
i++;
}
fprintf(stdout, "s_strncat(&s, \"ab\", 1), strcmp(s, \"aaba\") == 0: ");
s_strncat(&s, "ab", 1);
if (strcmp(s, "aaba") == 0)
fprintf(stdout, "OK\n");
else
{
fprintf(stdout, "failed.\n");
i++;
}
fprintf(stdout, "s_strcpy(&s, \"abcdefghij klmnop\"), s_strcpy(&s, s), strcmp(s, \"abcdefghij klmnop\") == 0: ");
s_strcpy(&s, "abcdefghij klmnop");
s_strcpy(&s, s);
if (strcmp(s, "abcdefghij klmnop") == 0)
fprintf(stdout, "OK\n");
else
{
fprintf(stdout, "failed.\n");
i++;
}
fprintf(stdout, "s_strncpy(&s, s, 10), strcmp(s, \"abcdefghij\") == 0: ");
s_strncpy(&s, s, 10);
if (strcmp(s, "abcdefghij") == 0)
fprintf(stdout, "OK\n");
else
{
fprintf(stdout, "failed.\n");
i++;
}
fprintf(stdout, "s_strcat(&s, s), strcmp(s, \"abcdefghijabcdefghij\") == 0: ");
s_strcat(&s, s);
if (strcmp(s, "abcdefghijabcdefghij") == 0)
fprintf(stdout, "OK\n");
else
{
fprintf(stdout, "failed.\n");
i++;
}
fprintf(stdout, "s_strncat(&s, s, 10), strcmp(s, \"abcdefghijabcdefghijabcdefghij\") == 0: ");
s_strncat(&s, s, 10);
if (strcmp(s, "abcdefghijabcdefghijabcdefghij") == 0)
fprintf(stdout, "OK\n");
else
{
fprintf(stdout, "failed.\n");
i++;
}
fprintf(stdout, "s_path(NULL, \"\", SYS_PATH_DELIM) == FALSE: ");
if (s_path(NULL, "", SYS_PATH_DELIM) == FALSE)
fprintf(stdout, "OK\n");
else
{
fprintf(stdout, "failed.\n");
i++;
}
fprintf(stdout, "s_pathname(NULL, \"\", SYS_PATH_DELIM) == FALSE: ");
if (s_pathname(NULL, "", SYS_PATH_DELIM) == FALSE)
fprintf(stdout, "OK\n");
else
{
fprintf(stdout, "failed.\n");
i++;
}
fprintf(stdout, "s_name(NULL, \"\", SYS_PATH_DELIM) == FALSE: ");
if (s_name(NULL, "", SYS_PATH_DELIM) == FALSE)
fprintf(stdout, "OK\n");
else
{
fprintf(stdout, "failed.\n");
i++;
}
fprintf(stdout, "s_nameext(NULL, \"\", SYS_PATH_DELIM) == FALSE: ");
if (s_nameext(NULL, "", SYS_PATH_DELIM) == FALSE)
fprintf(stdout, "OK\n");
else
{
fprintf(stdout, "failed.\n");
i++;
}
fprintf(stdout, "s_ext(NULL, \"\", SYS_PATH_DELIM) == FALSE: ");
if (s_ext(NULL, "", SYS_PATH_DELIM) == FALSE)
fprintf(stdout, "OK\n");
else
{
fprintf(stdout, "failed.\n");
i++;
}
fprintf(stdout, "s_path(&s, NULL, SYS_PATH_DELIM) == FALSE: ");
if (s_path(&s, NULL, SYS_PATH_DELIM) == FALSE)
fprintf(stdout, "OK\n");
else
{
fprintf(stdout, "failed.\n");
i++;
}
fprintf(stdout, "s_pathname(&s, NULL, SYS_PATH_DELIM) == FALSE: ");
if (s_pathname(&s, NULL, SYS_PATH_DELIM) == FALSE)
fprintf(stdout, "OK\n");
else
{
fprintf(stdout, "failed.\n");
i++;
}
fprintf(stdout, "s_name(&s, NULL, SYS_PATH_DELIM) == FALSE: ");
if (s_name(&s, NULL, SYS_PATH_DELIM) == FALSE)
fprintf(stdout, "OK\n");
else
{
fprintf(stdout, "failed.\n");
i++;
}
fprintf(stdout, "s_nameext(&s, NULL, SYS_PATH_DELIM) == FALSE: ");
if (s_nameext(&s, NULL, SYS_PATH_DELIM) == FALSE)
fprintf(stdout, "OK\n");
else
{
fprintf(stdout, "failed.\n");
i++;
}
fprintf(stdout, "s_ext(&s, NULL, SYS_PATH_DELIM) == FALSE: ");
if (s_ext(&s, NULL, SYS_PATH_DELIM) == FALSE)
fprintf(stdout, "OK\n");
else
{
fprintf(stdout, "failed.\n");
i++;
}
s_strcpy(&s, "/path/name.ext");
s_path(&s, s, SYS_PATH_DELIM);
fprintf(stdout, "s_strcpy(&s, \"/path/name.ext\"), s_path(&s, s, SYS_PATH_DELIM), strcmp(s, \"/path/\") == 0: ");
if (strcmp(s, "/path/") == 0)
fprintf(stdout, "OK\n");
else
{
fprintf(stdout, "failed.\n");
i++;
}
s_strcpy(&s, "/path/name.ext");
s_pathname(&s, s, SYS_PATH_DELIM);
fprintf(stdout, "s_strcpy(&s, \"/path/name.ext\"), s_pathname(&s, s, SYS_PATH_DELIM), strcmp(s, \"/path/name\") == 0: ");
if (strcmp(s, "/path/name") == 0)
fprintf(stdout, "OK\n");
else
{
fprintf(stdout, "failed.\n");
i++;
}
s_strcpy(&s, "/path/name.ext");
s_name(&s, s, SYS_PATH_DELIM);
fprintf(stdout, "s_strcpy(&s, \"/path/name.ext\"), s_name(&s, s, SYS_PATH_DELIM), strcmp(s, \"name\") == 0: ");
if (strcmp(s, "name") == 0)
fprintf(stdout, "OK\n");
else
{
fprintf(stdout, "failed.\n");
i++;
}
s_strcpy(&s, "/path/name.ext");
s_nameext(&s, s, SYS_PATH_DELIM);
fprintf(stdout, "s_strcpy(&s, \"/path/name.ext\"), s_nameext(&s, s, SYS_PATH_DELIM), strcmp(s, \"name.ext\") == 0: ");
if (strcmp(s, "name.ext") == 0)
fprintf(stdout, "OK\n");
else
{
fprintf(stdout, "failed.\n");
i++;
}
s_strcpy(&s, "/path/name.ext");
s_ext(&s, s, SYS_PATH_DELIM);
fprintf(stdout, "s_strcpy(&s, \"/path/name.ext\"), s_ext(&s, s, SYS_PATH_DELIM), strcmp(s, \".ext\") == 0: ");
if (strcmp(s, ".ext") == 0)
fprintf(stdout, "OK\n");
else
{
fprintf(stdout, "failed.\n");
i++;
}
i += check_pathnameext("", "", "", "", "", "");
i += check_pathnameext("/", "/", "/", "", "", "");
i += check_pathnameext("path/", "path/", "path/", "", "", "");
i += check_pathnameext("name", "", "name", "name", "name", "");
i += check_pathnameext(".ext", "", "", "", ".ext", ".ext");
i += check_pathnameext("path/name", "path/", "path/name", "name", "name", "");
i += check_pathnameext("path/.ext", "path/", "path/", "", ".ext", ".ext");
i += check_pathnameext("name.ext", "", "name", "name", "name.ext", ".ext");
i += check_pathnameext("path/name.ext", "path/", "path/name", "name", "name.ext", ".ext");
i += check_pathnameext("path.e/", "path.e/", "path.e/", "", "", "");
i += check_pathnameext("path.e/name", "path.e/", "path.e/name", "name", "name", "");
i += check_pathnameext("path.e/.ext", "path.e/", "path.e/", "", ".ext", ".ext");
i += check_pathnameext("path.e/name.ext", "path.e/", "path.e/name", "name", "name.ext", ".ext");
fprintf(stdout, "s_sprintf(NULL, \"%%d abc %%s\", -2147483648, \"def\") == FALSE: ");
if (s_sprintf(NULL, "%d abc %s", -2147483648, "def") == FALSE)
fprintf(stdout, "OK\n");
else
{
fprintf(stdout, "failed.\n");
i++;
}
fprintf(stdout, "s_sprintf(&s, NULL, -2147483648, \"def\") == FALSE: ");
if (s_sprintf(&s, NULL, -2147483648, "def") == FALSE)
fprintf(stdout, "OK\n");
else
{
fprintf(stdout, "failed.\n");
i++;
}
s_sprintf(&s, "%d abc %s", -2147483648, "def");
fprintf(stdout, "s_sprintf(&s, \"%%d abc %%s\", -2147483648, \"def\"), strcmp(s, \"-2147483648 abc def\") == 0: ");
if (strcmp(s, "-2147483648 abc def") == 0)
fprintf(stdout, "OK\n");
else
{
fprintf(stdout, "failed.\n");
i++;
}
fprintf(stdout, "is_equal_files(\"%s\", \"%s\") == TRUE: ", varg[0], varg[0]);
if (is_equal_files(varg[0], varg[0]) == TRUE)
fprintf(stdout, "OK\n");
else
{
fprintf(stdout, "failed.\n");
i++;
}
s_free(&s);
fprintf(stderr, "Found %d errors.\n", i);
return i;
}
int check_pathnameext(const char *pathnameext,
const char *must_path, const char *must_pathname,
const char *must_name, const char *must_nameext,
const char *must_ext)
{
char *path;
char *pathname;
char *name;
char *nameext;
char *ext;
int i;
path = NULL;
pathname = NULL;
name = NULL;
nameext = NULL;
ext = NULL;
i = 0;
fprintf(stdout, "s_path(&path, \"%s\", SYS_PATH_DELIM), strcmp(path, \"%s\") == 0: ", pathnameext, must_path);
s_path(&path, pathnameext, SYS_PATH_DELIM);
if (strcmp(path, must_path) == 0)
fprintf(stdout, "OK\n");
else
{
fprintf(stdout, "failed\n");
i++;
}
fprintf(stdout, "s_pathname(&pathname, \"%s\", SYS_PATH_DELIM), strcmp(pathname, \"%s\") == 0: ", pathnameext, must_pathname);
s_pathname(&pathname, pathnameext, SYS_PATH_DELIM);
if (strcmp(pathname, must_pathname) == 0)
fprintf(stdout, "OK\n");
else
{
fprintf(stdout, "failed\n");
i++;
}
fprintf(stdout, "s_name(&name, \"%s\", SYS_PATH_DELIM), strcmp(name, \"%s\") == 0: ", pathnameext, must_name);
s_name(&name, pathnameext, SYS_PATH_DELIM);
if (strcmp(name, must_name) == 0)
fprintf(stdout, "OK\n");
else
{
fprintf(stdout, "failed\n");
i++;
}
fprintf(stdout, "s_nameext(&name, \"%s\", SYS_PATH_DELIM), strcmp(nameext, \"%s\") == 0: ", pathnameext, must_nameext);
s_nameext(&nameext, pathnameext, SYS_PATH_DELIM);
if (strcmp(nameext, must_nameext) == 0)
fprintf(stdout, "OK\n");
else
{
fprintf(stdout, "failed\n");
i++;
}
fprintf(stdout, "s_ext(&ext, \"%s\", SYS_PATH_DELIM), strcmp(ext, \"%s\") == 0: ", pathnameext, must_ext);
s_ext(&ext, pathnameext, SYS_PATH_DELIM);
if (strcmp(ext, must_ext) == 0)
fprintf(stdout, "OK\n");
else
{
fprintf(stdout, "failed\n");
i++;
}
s_free(&path);
s_free(&pathname);
s_free(&name);
s_free(&nameext);
s_free(&ext);
return i;
}