void fix_java_result(const char *stdout_file, const char *stderr_file) {
int comp_res = execute_cmd("/bin/grep -q 'java.lang.OutOfMemoryError' %s", stderr_file);
if (!comp_res) {
oj_solution.result = OJ_MLE;
oj_solution.memory_usage = oj_solution.memory_limit * STD_KB;
return;
}
comp_res = execute_cmd("/bin/grep -q 'java.lang.OutOfMemoryError' %s", stdout_file);
if (!comp_res) {
oj_solution.result = OJ_MLE;
oj_solution.memory_usage = oj_solution.memory_limit * STD_KB;
return;
}
comp_res = execute_cmd("/bin/grep -q 'Exception' %s", stderr_file);
if (!comp_res) {
oj_solution.result = OJ_RE;
return;
}
comp_res = execute_cmd("/bin/grep -q 'Could not create' %s", stderr_file);
if (!comp_res) {
oj_solution.result = OJ_RE;
return;
}
}
int fix_java_mis_judge(char *work_dir, int & ACflg, int & topmemory,
int mem_lmt) {
int comp_res = OJ_AC;
if (DEBUG)
execute_cmd("cat %s/error.out", work_dir);
comp_res = execute_cmd("grep 'java.lang.OutOfMemoryError' %s/error.out",
work_dir);
if (!comp_res) {
printf("JVM need more Memory!");
ACflg = OJ_ML;
topmemory = mem_lmt * STD_MB;
}
comp_res = execute_cmd("grep 'java.lang.OutOfMemoryError' %s/user.out",
work_dir);
if (!comp_res) {
printf("JVM need more Memory or Threads!");
ACflg = OJ_ML;
topmemory = mem_lmt * STD_MB;
}
comp_res = execute_cmd("grep 'Could not create' %s/error.out", work_dir);
if (!comp_res) {
printf("jvm need more resource,tweak -Xmx Settings");
ACflg = OJ_RE;
//topmemory=0;
}
return comp_res;
}
void copy_python_runtime(char * work_dir) {
copy_shell_runtime(work_dir);
execute_cmd("mkdir %s/usr", work_dir);
execute_cmd("mkdir %s/usr/lib", work_dir);
execute_cmd("cp /usr/bin/python* %s/", work_dir);
}
/*
Build Dir to run exec
*/
void run_judge_clinet_mkdir(int solution_id){
execute_cmd("mkdir %d -m 777", solution_id);
execute_cmd("mkdir %d/%s -m 777", solution_id, problem.my_out_path.c_str());
execute_cmd("mkdir %d/%s -m 777", solution_id, problem.my_result_path.c_str());
}
void copy_ruby_runtime(char * work_dir) {
copy_shell_runtime(work_dir);
execute_cmd("mkdir %s/usr", work_dir);
execute_cmd("mkdir %s/usr/lib", work_dir);
execute_cmd("cp /usr/lib/libruby* %s/usr/lib/", work_dir);
execute_cmd("cp /usr/bin/ruby* %s/", work_dir);
}
/*
* __mount(): wrapper around the mount() system call which also
* sets the underlying block device to read-only if the mount is read-only.
* See "man 2 mount" for return values.
*/
static int __mount(const char *source, const char *target, const struct fstab_rec *rec, int encryptable)
{
unsigned long mountflags = rec->flags;
int ret;
int save_errno;
/* We need this because sometimes we have legacy symlinks
* that are lingering around and need cleaning up.
*/
struct stat info;
if (!lstat(target, &info))
if ((info.st_mode & S_IFMT) == S_IFLNK)
unlink(target);
mkdir(target, 0755);
NOTICE("%s: target='%s, encryptable=%d \n", __FUNCTION__, target, encryptable);
if(encryptable == FS_MGR_MNTALL_DEV_MIGHT_BE_ENCRYPTED && (!strcmp(target, PROTECT_1_MNT_POINT) || !strcmp(target, PROTECT_2_MNT_POINT)) ) {
NOTICE("encryptable is FS_MGR_MNTALL_DEV_MIGHT_BE_ENCRYPTED. Need to mount '%s' as tmpfs\n", target);
if ((ret = fs_mgr_do_tmpfs_mount((char *)target))) {
ERROR("Mount '%s' to tmpfs fail. \n", target);
}
else {
NOTICE("Try to copy modem nvram from emmc to the tmpfs of '%s'\n", target);
char tmp_mnt_point[256];
snprintf(tmp_mnt_point, sizeof(tmp_mnt_point), "/mnt%s", target);
char *mkdir_argv[] = {"/system/bin/mkdir", tmp_mnt_point};
execute_cmd(mkdir_argv, ARRAY_SIZE(mkdir_argv));
if (!access(tmp_mnt_point, F_OK) && (ret = mount(source, tmp_mnt_point, rec->fs_type, mountflags, rec->fs_options))) {
ERROR("Fail: mount '%s', errno=%d \n", tmp_mnt_point, errno);
}
else {
char *cp_argv[] = {"/system/bin/cp", "-Rp", tmp_mnt_point, "/"};
execute_cmd(cp_argv, ARRAY_SIZE(cp_argv));
char *umount_argv[] = {"/system/bin/umount", tmp_mnt_point};
if(!execute_cmd(umount_argv, ARRAY_SIZE(umount_argv))) {
char *rm_argv[] = {"/system/bin/rm", "-rf", tmp_mnt_point};
execute_cmd(rm_argv, ARRAY_SIZE(rm_argv));
}
}
}
}
else {
ret = mount(source, target, rec->fs_type, mountflags, rec->fs_options);
save_errno = errno;
INFO("%s(source=%s,target=%s,type=%s)=%d\n", __func__, source, target, rec->fs_type, ret);
if ((ret == 0) && (mountflags & MS_RDONLY) != 0) {
fs_set_blk_ro(source);
}
errno = save_errno;
}
return ret;
}
void copy_php_runtime(char * work_dir) {
copy_shell_runtime(work_dir);
execute_cmd("mkdir %s/usr", work_dir);
execute_cmd("mkdir %s/usr/lib", work_dir);
execute_cmd("cp /usr/lib/libedit* %s/usr/lib/", work_dir);
execute_cmd("cp /usr/lib/libdb* %s/usr/lib/", work_dir);
execute_cmd("cp /usr/lib/libgssapi_krb5* %s/usr/lib/", work_dir);
execute_cmd("cp /usr/lib/libkrb5* %s/usr/lib/", work_dir);
execute_cmd("cp /usr/lib/libk5crypto* %s/usr/lib/", work_dir);
execute_cmd("cp /usr/lib/libxml2* %s/usr/lib/", work_dir);
execute_cmd("cp /usr/bin/php* %s/", work_dir);
execute_cmd("chmod +rx %s/Main.php", work_dir);
}
int execute_cmd(char *cmd, int in)
{
char *p = cmd;
char *start_cmd = cmd;
int pipefd[2];
while (*p) {
switch (*p) {
case '|':
*p++ = 0;
//创建一个管道
pipe(pipefd);
//下面的语句执行后，程序分叉，第一叉在当前捕获的命令，第二
//叉在后面继续解析命令
//将写管道传给当前捕获的命令用于重定向其stdout
if (fork_and_exec(start_cmd, in, pipefd[1]) > 0) {
//将读管道传给将要被捕获的命令用于重定向其stdin
goto call_forward_pipe_chain;
}
break;
default:
p++;
}
}
fork_and_exec(start_cmd, in, -1);
fflush(stdout);
return 0;
call_forward_pipe_chain:
execute_cmd(p, pipefd[0]);
fflush(stdout);
return 0;
}
int main(int argc, char * argv[])
{
char current_path[] = "0:/";
printf(SHELL_BANNER",%s,v%d。\n", __DATE__, SHELL_VERSION);
printf("输入help获取帮助.\n");
/* Loop to get char */
while(1)
{
int ch;
/* 获取当前路径 */
/* 打印提示符 */
printf("[%s]#", current_path);
ch = read_input(line_buffer, MAX_LINE_SIZE);
printf("\n");
/* 回车键则执行命令 */
if (ch == SHELL_KEY_ENTER)
{
execute_cmd(line_buffer);
}
}
return 0;
}
/*
* SPI Start Interrupt, this should never get called when chip select is high.
*
* NOTE: This is intentionally not done with an overflow interrupt,
* as the software chip select interrupt will be triggered almost at
* the same time as an SPI overflow, causing the SPI interrupt to not be
* handled.
*/
ISR(USI_STR_vect, ISR_BLOCK) {
// wait for overflow flag to become 1
while (!(USISR & _BV(USIOIF)))
;
// get data from USIDR
uint8_t recv_data = USIDR;
// clear the SPI start flag
USISR |= _BV(USISIF);
// clear the overflow flag
USISR |= _BV(USIOIF);
// increment our received byte count and take appropiate action
byte_cnt++;
if (byte_cnt == 1) {
// we don't have a command already, set the response
// buffer to the command we received to let the
// master confirm the given command if desired, top
// bit is set if currently charging
cur_command_ = recv_data;
USIDR = cur_command_;
} else if (byte_cnt == 2) {
// execute the currently set command with
// the newly given argument, set the response
// buffer to our return value
USIDR = execute_cmd(cur_command_, recv_data);
} else {
USIDR = 0x11;
}
}
uint8 FSDrive::Open(int channel, const uint8 *name, int name_len)
{
set_error(ERR_OK);
// Channel 15: Execute file name as command
if (channel == 15) {
execute_cmd(name, name_len);
return ST_OK;
}
// Close previous file if still open
if (file[channel]) {
fclose(file[channel]);
file[channel] = NULL;
}
if (name[0] == '#') {
set_error(ERR_NOCHANNEL);
return ST_OK;
}
if (name[0] == '$')
return open_directory(channel, name + 1, name_len - 1);
return open_file(channel, name, name_len);
}
/**
* Drops the SAs for the given contact.
* @param c - the contact to drop the SAs for
* \note Should be called some time after the deregistration, to allow the 200 OK for
* De-REGISTER and other messages to still reach the client and responses to be relayed
* to the network.
*/
void P_security_drop(r_contact *c,r_security *s)
{
char drop[256];
r_ipsec *i;
if (!s||!c) return;
switch (s->type){
case SEC_NONE:
break;
case SEC_TLS:
//TODO!!!
break;
case SEC_IPSEC:
i = s->data.ipsec;
if (!i) return;
sprintf(drop,"%s %.*s %d %d %s %d %d %d %d %d %d",
pcscf_ipsec_P_Drop,
c->host.len,c->host.s,
i->port_uc,
i->port_us,
pcscf_ipsec_host,
pcscf_ipsec_port_c,
pcscf_ipsec_port_s,
i->spi_uc,
i->spi_us,
i->spi_pc,
i->spi_ps);
execute_cmd(drop);
break;
}
}
void shell_loop (FILE *file)
{
struct shelldata sd;
int c;
/* setvbuf(file,NULL,_IONBF,0);
fflush(file);
*/
char str[2048];
sd.update_cfg = cw_ktv_create();
sd.out = file;
sprintf(sd.prompt,"%s","*");
do {
fprintf (file, "actube[%s]:>", sd.prompt);
fflush (file);
str[0]=0;
fgets (str, sizeof (str), file);
execute_cmd (&sd, str);
} while (c != EOF);
}
int fix_gcc_result(const char *stderr_compiler) {
if (oj_solution.lang != LANG_C99 &&
oj_solution.lang != LANG_C11 &&
oj_solution.lang != LANG_CPP98 &&
oj_solution.lang != LANG_CPP11 &&
oj_solution.lang != LANG_CPP14 &&
oj_solution.lang != LANG_CPP17) {
return 0;
}
int comp_res = execute_cmd("/bin/grep -q 'compiler error' %s", stderr_compiler);
if (!comp_res) {
execute_cmd("/bin/sed -n -i '1p' stderr_compiler.txt");
return 1;
}
return 0;
}
void copy_shell_runtime(char * work_dir) {
execute_cmd("mkdir %s/lib", work_dir);
execute_cmd("mkdir %s/lib64", work_dir);
execute_cmd("mkdir %s/bin", work_dir);
execute_cmd("cp /lib/* %s/lib/", work_dir);
execute_cmd("cp /lib64/* %s/lib64/", work_dir);
execute_cmd("cp -a /lib32 %s/", work_dir);
execute_cmd("cp /bin/busybox %s/bin/", work_dir);
execute_cmd("ln -s /bin/busybox %s/bin/sh", work_dir);
execute_cmd("cp /bin/bash %s/bin/bash", work_dir);
}
/*
Get Problem's Input/Output/TimeLimit/MemoryLimit
*/
bool run_judge_client_problem(int solution_id, int problem_id, int &time_limit, int &memory_limit){
MYSQL_RES* mysql_result = mysql_con.run_sql_world("SELECT * FROM %s WHERE problem_id = %d",
MYSQL_MESSAGE::problem_name,
problem_id);
MYSQL_ROW mysql_row = mysql_fetch_row(mysql_result);
if(mysql_row != NULL){
/*
Get I/O File from database.
//Inpit
char path[BUFFER_SIZE];
sprintf(path, "%d", solution_id);
string file = string(path) + "/" + problem.in_file;
FILE *fp = fopen(file.c_str(), "w");
fprintf(fp, "%s", mysql_row[PROBLEM_TABLE::input]);
fclose(fp);
//Output
file = string(path) + "/" + problem.out_file;
fp = fopen(file.c_str(), "w");
fprintf(fp, "%s", mysql_row[PROBLEM_TABLE::output]);
fclose(fp);
*/
//IO FILE
char cp_from[BUFFER_SIZE], cp_to[BUFFER_SIZE];
sprintf(cp_from, "%s/%d", io_file_path.c_str(), problem_id);
sprintf(cp_to, "%d/%s", solution_id, problem.io_path.c_str());
execute_cmd("cp -a %s %s", cp_from, cp_to);
//TimeLimit
time_limit = atoi(mysql_row[PROBLEM_TABLE::time_limit]);
//MemoryLimit
memory_limit = atoi(mysql_row[PROBLEM_TABLE::memory_limit]);
}
else
return false;
}
int main(void)
{
int i, background;
char input[MAX];
char path[MAX] = ".";
char entry_dir[MAX] = {0};
char working_dir[MAX] = {0};
char *arguments[512] = {0}; /* enter up to 511 arguments, one is reserved for the execution cmd */
getcwd(entry_dir, sizeof(entry_dir)); /* get the entry directory */
/* infinite loop until the user enters exit */
while (1) {
signal(SIGINT, ctrlc_handler); /* signalhandler to avoid CTRL+C killing the shell */
prompt(path);
fgets(input, MAX, stdin); /* read from standardinput */
i = 0;
while (input[i] != '\n')
i++;
input[i] = '\0'; /* remove newline from read string and replace it with \0 */
background = parse_input(input, arguments); /* parse string and set background/pipe option */
if (*arguments != 0){ /* press Enter without SEGfault :P */
/* all ifs are built-ins for the shell, except for the else */
if (strcmp(arguments[0], "exit") == 0)
return 0;
else if (background == 2) {
execute_pipe(arguments);
} else if (strcmp(arguments[0], "cd") == 0) {
if (arguments[1] == NULL) { /* change to user's HOME if only cd is entered */
chdir(getenv("HOME"));
getcwd(working_dir, sizeof(working_dir));
print_current_dir(entry_dir, working_dir, path);
} else {
chdir(arguments[1]);
getcwd(working_dir, sizeof(working_dir));
print_current_dir(entry_dir, working_dir, path);
}
} else if (strcmp(arguments[0], "wait") == 0) {
if (arguments[1] == NULL) /* maybe there is no pid given by the user */
puts("No PID!");
else {
keepWaiting = 1;
waiting(arguments);
}
} else {
execute_cmd(arguments, background);
}
}
}
}
void execute_shell(SystemMem *SysMem_s)
{
char inputBuffer[MAX_INPUT_LENGTH]; // Taille max d'une commande saisie par l'utilisateur
InputCmd InputCmd_s; // Struct de la commande saisie
fflush(stdin);
// DEBUG
#ifdef DEBUG
char count_str[MAX_INPUT_LENGTH];
char time_str[1000];
int count = 1;
time_t starttime;
starttime = time(NULL);
#endif
// Demande une commande à l'utilisateur
while (fgets(inputBuffer, MAX_INPUT_LENGTH, stdin)) {
// Récupération de la commande et du path dans la chaîne saisie par l'utilisateur
if (parse_input_data(inputBuffer, &InputCmd_s) == 0) {
// Traite la commande de fin
if (is_exit_cmd(InputCmd_s.cmdStr))
break; // Quit
// Traite les commandes
if (strcmp(InputCmd_s.cmdStr, "") != 0 && is_valid_cmd(InputCmd_s)) // strcmp permet une saisie vide
execute_cmd(SysMem_s, &InputCmd_s);
}
#ifdef DEBUG
sprintf(count_str, "%d", count);
sprintf(time_str, "%ld", (time(NULL) - starttime));
fprintf(stderr, "DEBUG-> (");
fprintf(stderr, count_str);
fprintf(stderr, ") CMD: [");
fprintf(stderr, InputCmd_s.cmdStr);
fprintf(stderr, "] PATH: [");
fprintf(stderr, InputCmd_s.pathStr);
fprintf(stderr, "] WRITESTR: [");
fprintf(stderr, InputCmd_s.dataStr);
fprintf(stderr, "] @");
fprintf(stderr, time_str);
fprintf(stderr, "secs\n");
count++;
#endif
strcpy(InputCmd_s.cmdStr, ""); // Reset
strcpy(InputCmd_s.pathStr, ""); // Reset
strcpy(InputCmd_s.dataStr, ""); // Reset
}
}
void prepare_files(char * filename, int namelen, char * infile, int & p_id,
char * work_dir, char * outfile, char * userfile, int runner_id) {
// printf("ACflg=%d %d check a file!\n",ACflg,solution_id);
char fname[BUFFER_SIZE];
strncpy(fname, filename, namelen);
fname[namelen] = 0;
sprintf(infile, "%s/data/%d/%s.in", oj_home, p_id, fname);
execute_cmd("cp %s %sdata.in", infile, work_dir);
sprintf(outfile, "%s/data/%d/%s.out", oj_home, p_id, fname);
sprintf(userfile, "%s/run%d/user.out", oj_home, runner_id);
}
SETUP()
{
static const cmd_add_t move = {
.name = "move", .abbr = "m", .id = -1, .descr = "descr",
.flags = HAS_EMARK | HAS_RANGE | HAS_BG_FLAG | HAS_QUOTED_ARGS
| HAS_QMARK_NO_ARGS | HAS_SELECTION_SCOPE,
.handler = &move_cmd, .min_args = 0, .max_args = NOT_DEF,
};
add_builtin_commands(&move, 1);
assert_success(execute_cmd("command udf a"));
assert_success(execute_cmd("command mkcd! a"));
assert_success(execute_cmd("command mkcd? a"));
}
static int
move_cmd(const cmd_info_t *cmd_info)
{
move_cmd_called = 1;
return 0;
}
int handle_cmd() {
wprintf(L"\n");
wprintf(L"CMD: ");
move_begin_list(buffer);
print_buffer(false);
wprintf(L"\n");
free_buffer_content();
execute_cmd();
return RET_OK;
}
/*实际应用中,处理服务器指令是异步方式,需要厂家处理完毕后主动上报一次设备状态*/
int ICACHE_FLASH_ATTR rawdata_set_callback(char *rawdata, int len)
{
// TODO:
//get cmd from server, do your job here!
int ret = 0;
wsf_deb("%s %d \n", __FUNCTION__, __LINE__);
ret = execute_cmd(rawdata, len);
//ret=alink_device_post_raw_data();
// do your job end!
delta_time = system_get_time();
device_status_change = 1;
return ret;
}
void cmd_thread_func() {
while(1) {
svcWaitSynchronization(new_cmd_event, U64_MAX);
svcClearEvent(new_cmd_event);
if(thread_exit) svcExitThread();
last_cmd = cmd.type;
last_cmd_result = execute_cmd(sock, &cmd);
svcSignalEvent(cmd_done_event);
}
}
/*
* Function: create_default_fdisk_partition
*
* Parameters: op - CCIMObjectPath pointer that points to the object path
* of the device to fdisk.
*
* Returns: Returns a CCIMProperty pointer. The CCIMProperty referenced
* by the pointer will contain an mValue of cim_true for
* success or cim_false on failure.
*
* Description: Executes the fdisk command on the device pointed to my 'op'
* with the -B parameter.
*
* Notes: The calling program is responsible for releasing the memory
* used by the returned CCIMProperty.
*/
CCIMProperty *
create_default_fdisk_partition(CCIMObjectPath *op)
{
char devpath[MAXPATHLEN];
char err_file[L_tmpnam];
char command_line[CMDLEN];
int len;
int error;
/* This function is called from Solaris_DiskDrive, not Solaris_Disk. */
if (!check_rights("Solaris_DiskDrive") || op == NULL) {
return (create_result(PROPFALSE));
}
if (get_devpath(op, devpath, sizeof (devpath)) == cim_false) {
util_handleError(INVOKE_METHOD, CIM_ERR_INVALID_PARAMETER,
CIM_ERR_FAILED, NULL, &error);
return (create_result(PROPFALSE));
}
make_fdisk_path(devpath);
(void) tmpnam(err_file);
/*
* Build the fdisk command line. Some combinations of
* parameters can cause fdisk to output a message and wait
* for a y/n response, echo'ing an 'n' and piping it to
* fdisk solves this problem.
*
* Using the form of fdisk (-F) that takes partition information
* from a disk file so that multiple partitions can be created
* by one request.
*/
len = snprintf(command_line, sizeof (command_line),
"echo n | /usr/sbin/fdisk -B %s 2> %s",
devpath, err_file);
if (len < 0 || (len + 1) > sizeof (command_line)) {
util_handleError(INVOKE_METHOD, CIM_ERR_FAILED,
NULL, NULL, &error);
return (create_result(PROPFALSE));
}
/* Execute the command. */
if (!execute_cmd(command_line, err_file)) {
return (create_result(PROPFALSE));
}
return (create_result(PROPTRUE));
}
int double_close_chevron_operation(t_core *core, t_mod_pack *packet,
t_module *mods)
{
if (packet->rd_write == ERROR && packet->av != NULL)
{
core->err_open = open_file(get_fd(packet, TOK_DCCHV),
packet->av[0], get_flags(TOK_DCCHV),
get_mode(TOK_DCCHV));
}
else if (packet->rd_write != ERROR)
return (execute_cmd(core, packet, mods));
else
return (ERROR);
return (NO_ERR);
}
/**
* We have data from the client, we must route it to the backend.
* This is simply a case of sending it to the connection that was
* chosen when we started the client session.
*
* @param instance The router instance
* @param router_session The router session returned from the newSession call
* @param queue The queue of data buffers to route
* @return The number of bytes sent
*/
static int
execute(ROUTER *instance, void *router_session, GWBUF *queue)
{
CLI_SESSION *session = (CLI_SESSION *)router_session;
/* Extract the characters */
while (queue)
{
strncat(session->cmdbuf, GWBUF_DATA(queue), MIN(GWBUF_LENGTH(queue),cmdbuflen-1));
queue = gwbuf_consume(queue, GWBUF_LENGTH(queue));
}
execute_cmd(session);
return 1;
}
int NOOP_test(static_config *jtpz,dynamic_config *dtpz)
{
char cmd[100] = "/root/njkk/testftp ";
char result[100] = {0};
execute_cmd(cmd, result,jtpz,dtpz);
if (strstr(result,"200") != NULL)
{
OpenPort_state = 1;
return 0;
}
else
{
return -1;
}
}
int read_loop(int sockfd, struct in_addr *client_addr)
{
t_serv_fs serv_fs;
int ret;
serv_fs.client_addr = client_addr;
if (!(init_serv_fs(&serv_fs)))
return (0);
while (1)
{
ret = execute_cmd(sockfd, &serv_fs);
if (ret < 0)
return (1);
}
return (1);
}
static void
test_delc_completion(void)
{
char *completion;
assert_int_equal(0, execute_cmd("command udf a"));
reset_completion();
assert_int_equal(5, complete_cmd("delc u"));
assert_int_equal(2, get_completion_count());
if(get_completion_count() == 0)
return;
completion = next_completion();
assert_string_equal("udf", completion);
free(completion);
}
/*
* Function: writeVolumeName
*
* Parameters: params - CCIMPropertyList pointer. Property list
* containing the new disk label name.
* op - CCIMObjectPath pointer. Object path containing
* the deviceId of the disk to label.
*
* Returns: Returns a CCIMProperty pointer. The CCIMProperty referenced
* by the pointer will contain an mValue of cim_true for
* success or cim_false on failure.
*
* Description: Executes the fmthard -n volume_name command on the device
* pointed to by 'op'.
*/
CCIMProperty *
label_disk(CCIMPropertyList *params, CCIMObjectPath *op)
{
char devpath[MAXPATHLEN];
char command_line[CMDLEN];
int len;
cimchar *label;
int error;
if (!check_rights("Solaris_Disk") ||
op == NULL || params == NULL) {
return (create_result(PROPFALSE));
}
if (get_devpath(op, devpath, sizeof (devpath)) == cim_false) {
util_handleError(INVOKE_METHOD, CIM_ERR_INVALID_PARAMETER,
NULL, NULL, &error);
return (create_result(PROPFALSE));
}
/* Extract the label from the input parameters */
if ((label = get_prop_val(params->mDataObject)) == NULL) {
return (create_result(PROPFALSE));
}
if (strlen(label) > 8) {
util_handleError(INVOKE_METHOD, CIM_ERR_INVALID_PARAMETER,
NULL, NULL, &error);
return (create_result(PROPFALSE));
}
/* Build the command line to execute */
len = snprintf(command_line, sizeof (command_line),
"/usr/sbin/fmthard -n '%s' %s 2> /dev/null", label, devpath);
if (len < 0 || (len + 1) > sizeof (command_line)) {
util_handleError(INVOKE_METHOD, CIM_ERR_INVALID_PARAMETER,
NULL, NULL, &error);
return (create_result(PROPFALSE));
}
/* Execute the command. */
if (!execute_cmd(command_line, "/dev/null")) {
return (create_result(PROPFALSE));
}
return (create_result(PROPTRUE));
}
