static json_t *
derive(const jose_hook_alg_t *alg, jose_cfg_t *cfg,
json_t *hdr, json_t *cek, const json_t *key)
{
const jose_hook_alg_t *halg = NULL;
const char *name = alg->name;
uint8_t pu[KEYMAX] = {};
uint8_t pv[KEYMAX] = {};
uint8_t dk[KEYMAX] = {};
uint8_t ky[KEYMAX] = {};
const char *enc = NULL;
json_t *out = NULL;
size_t dkl = 0;
size_t pul = 0;
size_t pvl = 0;
size_t kyl = 0;
halg = jose_hook_alg_find(JOSE_HOOK_ALG_KIND_HASH, "S256");
if (!halg)
goto egress;
if (json_unpack(hdr, "{s?s}", "enc", &enc) < 0)
goto egress;
if (!enc && json_unpack(cek, "{s:s}", "alg", &enc) < 0)
goto egress;
switch (str2enum(alg->name, NAMES, NULL)) {
case 0: dkl = encr_alg_keylen(cfg, enc); name = enc; break;
case 1: dkl = 16; break;
case 2: dkl = 24; break;
case 3: dkl = 32; break;
default:
goto egress;
}
if (dkl < 16 || dkl > sizeof(dk))
goto egress;
pul = decode(hdr, "apu", pu, sizeof(pu));
if (pul > sizeof(pu))
goto egress;
pvl = decode(hdr, "apv", pv, sizeof(pv));
if (pvl > sizeof(pv))
goto egress;
kyl = decode(key, "x", ky, sizeof(ky));
if (kyl > sizeof(ky))
goto egress;
if (!concatkdf(halg, cfg,
dk, dkl,
ky, kyl,
name, strlen(name),
pu, pul,
pv, pvl,
NULL))
goto egress;
out = json_pack("{s:s,s:s,s:o}", "kty", "oct", "alg", enc,
"k", jose_b64_enc(dk, dkl));
egress:
OPENSSL_cleanse(ky, sizeof(ky));
OPENSSL_cleanse(pu, sizeof(pu));
OPENSSL_cleanse(pv, sizeof(pv));
OPENSSL_cleanse(dk, sizeof(dk));
return out;
}
/* subscribe /root subname {query}
* Subscribes the client connection to the specified root. */
static void cmd_subscribe(struct watchman_client *clientbase, json_t *args)
{
w_root_t *root;
struct watchman_client_subscription *sub;
json_t *resp;
json_t *jfield_list;
json_t *jname;
w_query *query;
json_t *query_spec;
struct w_query_field_list field_list;
char *errmsg;
int defer = true; /* can't use bool because json_unpack requires int */
json_t *defer_list = NULL;
json_t *drop_list = NULL;
struct watchman_user_client *client =
(struct watchman_user_client *)clientbase;
if (json_array_size(args) != 4) {
send_error_response(&client->client,
"wrong number of arguments for subscribe");
return;
}
root = resolve_root_or_err(&client->client, args, 1, true);
if (!root) {
return;
}
jname = json_array_get(args, 2);
if (!json_is_string(jname)) {
send_error_response(&client->client,
"expected 2nd parameter to be subscription name");
goto done;
}
query_spec = json_array_get(args, 3);
jfield_list = json_object_get(query_spec, "fields");
if (!parse_field_list(jfield_list, &field_list, &errmsg)) {
send_error_response(&client->client, "invalid field list: %s", errmsg);
free(errmsg);
goto done;
}
query = w_query_parse(root, query_spec, &errmsg);
if (!query) {
send_error_response(&client->client, "failed to parse query: %s", errmsg);
free(errmsg);
goto done;
}
json_unpack(query_spec, "{s?:o}", "defer", &defer_list);
if (defer_list && !json_is_array(defer_list)) {
send_error_response(&client->client,
"defer field must be an array of strings");
goto done;
}
json_unpack(query_spec, "{s?:o}", "drop", &drop_list);
if (drop_list && !json_is_array(drop_list)) {
send_error_response(&client->client,
"drop field must be an array of strings");
goto done;
}
sub = calloc(1, sizeof(*sub));
if (!sub) {
send_error_response(&client->client, "no memory!");
goto done;
}
sub->name = json_to_w_string_incref(jname);
sub->query = query;
json_unpack(query_spec, "{s?:b}", "defer_vcs", &defer);
sub->vcs_defer = defer;
if (drop_list || defer_list) {
size_t i;
sub->drop_or_defer = w_ht_new(2, &w_ht_string_funcs);
if (defer_list) {
for (i = 0; i < json_array_size(defer_list); i++) {
w_ht_replace(sub->drop_or_defer,
w_ht_ptr_val(json_to_w_string_incref(
json_array_get(defer_list, i))), false);
}
}
if (drop_list) {
for (i = 0; i < json_array_size(drop_list); i++) {
w_ht_replace(sub->drop_or_defer,
w_ht_ptr_val(json_to_w_string_incref(json_array_get(drop_list, i))),
true);
}
}
}
memcpy(&sub->field_list, &field_list, sizeof(field_list));
sub->root = root;
pthread_mutex_lock(&w_client_lock);
w_ht_replace(client->subscriptions, w_ht_ptr_val(sub->name),
w_ht_ptr_val(sub));
pthread_mutex_unlock(&w_client_lock);
resp = make_response();
annotate_with_clock(root, resp);
json_incref(jname);
set_prop(resp, "subscribe", jname);
add_root_warnings_to_response(resp, root);
send_and_dispose_response(&client->client, resp);
resp = build_subscription_results(sub, root);
if (resp) {
send_and_dispose_response(&client->client, resp);
}
done:
w_root_delref(root);
}
int hackerboatStateClass::parseTimeSpec (json_t *input, timespec *t) {
return json_unpack(input, "{s:i,s:i}", "tv_sec", &(t->tv_sec), "tv_nsec", &(t->tv_nsec));
}
/* subscribe /root subname {query}
* Subscribes the client connection to the specified root. */
static void cmd_subscribe(struct watchman_client *client, json_t *args)
{
w_root_t *root;
struct watchman_client_subscription *sub;
json_t *resp;
const char *name;
json_t *jfield_list;
w_query *query;
json_t *query_spec;
struct w_query_field_list field_list;
char *errmsg;
int defer = true; /* can't use bool because json_unpack requires int */
if (json_array_size(args) != 4) {
send_error_response(client, "wrong number of arguments for subscribe");
return;
}
root = resolve_root_or_err(client, args, 1, true);
if (!root) {
return;
}
name = json_string_value(json_array_get(args, 2));
if (!name) {
send_error_response(client,
"expected 2nd parameter to be subscription name");
goto done;
}
query_spec = json_array_get(args, 3);
jfield_list = json_object_get(query_spec, "fields");
if (!parse_field_list(jfield_list, &field_list, &errmsg)) {
send_error_response(client, "invalid field list: %s", errmsg);
free(errmsg);
goto done;
}
query = w_query_parse(root, query_spec, &errmsg);
if (!query) {
send_error_response(client, "failed to parse query: %s", errmsg);
free(errmsg);
goto done;
}
sub = calloc(1, sizeof(*sub));
if (!sub) {
send_error_response(client, "no memory!");
goto done;
}
sub->name = w_string_new(name);
sub->query = query;
json_unpack(query_spec, "{s?:b}", "defer_vcs", &defer);
sub->vcs_defer = defer;
memcpy(&sub->field_list, &field_list, sizeof(field_list));
sub->root = root;
pthread_mutex_lock(&w_client_lock);
w_ht_replace(client->subscriptions, w_ht_ptr_val(sub->name),
w_ht_ptr_val(sub));
pthread_mutex_unlock(&w_client_lock);
resp = make_response();
annotate_with_clock(root, resp);
set_prop(resp, "subscribe", json_string(name));
add_root_warnings_to_response(resp, root);
send_and_dispose_response(client, resp);
resp = build_subscription_results(sub, root);
if (resp) {
send_and_dispose_response(client, resp);
}
done:
w_root_delref(root);
}
static void spawn_command(
const std::shared_ptr<w_root_t>& root,
struct watchman_trigger_command* cmd,
w_query_res* res,
struct w_clockspec* since_spec) {
char **envp = NULL;
uint32_t i = 0;
int ret;
char **argv = NULL;
uint32_t env_size;
posix_spawn_file_actions_t actions;
posix_spawnattr_t attr;
#ifndef _WIN32
sigset_t mask;
#endif
long arg_max;
size_t argspace_remaining;
bool file_overflow = false;
int result_log_level;
w_string_t *working_dir = NULL;
#ifdef _WIN32
arg_max = 32*1024;
#else
arg_max = sysconf(_SC_ARG_MAX);
#endif
if (arg_max <= 0) {
argspace_remaining = UINT_MAX;
} else {
argspace_remaining = (uint32_t)arg_max;
}
// Allow some misc working overhead
argspace_remaining -= 32;
// Record an overflow before we call prepare_stdin(), which mutates
// and resizes the results to fit the specified limit.
if (cmd->max_files_stdin > 0 &&
res->resultsArray.array().size() > cmd->max_files_stdin) {
file_overflow = true;
}
auto stdin_file = prepare_stdin(cmd, res);
if (!stdin_file) {
w_log(
W_LOG_ERR,
"trigger %s:%s %s\n",
root->root_path.c_str(),
cmd->triggername.c_str(),
strerror(errno));
return;
}
// Assumption: that only one thread will be executing on a given
// cmd instance so that mutation of cmd->envht is safe.
// This is guaranteed in the current architecture.
// It is way too much of a hassle to try to recreate the clock value if it's
// not a relative clock spec, and it's only going to happen on the first run
// anyway, so just skip doing that entirely.
if (since_spec && since_spec->tag == w_cs_clock) {
w_envp_set_cstring(
cmd->envht,
"WATCHMAN_SINCE",
since_spec->clock.position.toClockString().c_str());
} else {
w_envp_unset(cmd->envht, "WATCHMAN_SINCE");
}
w_envp_set_cstring(
cmd->envht,
"WATCHMAN_CLOCK",
res->clockAtStartOfQuery.toClockString().c_str());
if (cmd->query->relative_root) {
w_envp_set(cmd->envht, "WATCHMAN_RELATIVE_ROOT", cmd->query->relative_root);
} else {
w_envp_unset(cmd->envht, "WATCHMAN_RELATIVE_ROOT");
}
// Compute args
auto args = json_deep_copy(cmd->command);
if (cmd->append_files) {
// Measure how much space the base args take up
for (i = 0; i < json_array_size(args); i++) {
const char *ele = json_string_value(json_array_get(args, i));
argspace_remaining -= strlen(ele) + 1 + sizeof(char*);
}
// Dry run with env to compute space
envp = w_envp_make_from_ht(cmd->envht, &env_size);
free(envp);
envp = NULL;
argspace_remaining -= env_size;
for (const auto& item : res->dedupedFileNames) {
// also: NUL terminator and entry in argv
uint32_t size = item.size() + 1 + sizeof(char*);
if (argspace_remaining < size) {
file_overflow = true;
break;
}
argspace_remaining -= size;
json_array_append_new(args, w_string_to_json(item));
}
}
argv = w_argv_copy_from_json(args, 0);
args = nullptr;
w_envp_set_bool(cmd->envht, "WATCHMAN_FILES_OVERFLOW", file_overflow);
envp = w_envp_make_from_ht(cmd->envht, &env_size);
posix_spawnattr_init(&attr);
#ifndef _WIN32
sigemptyset(&mask);
posix_spawnattr_setsigmask(&attr, &mask);
#endif
posix_spawnattr_setflags(&attr,
POSIX_SPAWN_SETSIGMASK|
#ifdef POSIX_SPAWN_CLOEXEC_DEFAULT
// Darwin: close everything except what we put in file actions
POSIX_SPAWN_CLOEXEC_DEFAULT|
#endif
POSIX_SPAWN_SETPGROUP);
posix_spawn_file_actions_init(&actions);
#ifndef _WIN32
posix_spawn_file_actions_adddup2(
&actions, stdin_file->getFileDescriptor(), STDIN_FILENO);
#else
posix_spawn_file_actions_adddup2_handle_np(
&actions, stdin_file->getWindowsHandle(), STDIN_FILENO);
#endif
if (cmd->stdout_name) {
posix_spawn_file_actions_addopen(&actions, STDOUT_FILENO,
cmd->stdout_name, cmd->stdout_flags, 0666);
} else {
posix_spawn_file_actions_adddup2(&actions, STDOUT_FILENO, STDOUT_FILENO);
}
if (cmd->stderr_name) {
posix_spawn_file_actions_addopen(&actions, STDERR_FILENO,
cmd->stderr_name, cmd->stderr_flags, 0666);
} else {
posix_spawn_file_actions_adddup2(&actions, STDERR_FILENO, STDERR_FILENO);
}
// Figure out the appropriate cwd
{
const char *cwd = NULL;
working_dir = NULL;
if (cmd->query->relative_root) {
working_dir = cmd->query->relative_root;
} else {
working_dir = root->root_path;
}
w_string_addref(working_dir);
json_unpack(cmd->definition, "{s:s}", "chdir", &cwd);
if (cwd) {
w_string_t *cwd_str = w_string_new_typed(cwd, W_STRING_BYTE);
if (w_is_path_absolute_cstr(cwd)) {
w_string_delref(working_dir);
working_dir = cwd_str;
} else {
w_string_t *joined;
joined = w_string_path_cat(working_dir, cwd_str);
w_string_delref(cwd_str);
w_string_delref(working_dir);
working_dir = joined;
}
}
w_log(W_LOG_DBG, "using %.*s for working dir\n", working_dir->len,
working_dir->buf);
}
#ifndef _WIN32
// This mutex is present to avoid fighting over the cwd when multiple
// triggers run at the same time. It doesn't coordinate with all
// possible chdir() calls, but this is the only place that we do this
// in the watchman server process.
static std::mutex cwdMutex;
{
std::unique_lock<std::mutex> lock(cwdMutex);
ignore_result(chdir(working_dir->buf));
#else
posix_spawnattr_setcwd_np(&attr, working_dir->buf);
#endif
w_string_delref(working_dir);
working_dir = nullptr;
ret =
posix_spawnp(&cmd->current_proc, argv[0], &actions, &attr, argv, envp);
if (ret != 0) {
// On Darwin (at least), posix_spawn can fail but will still populate the
// pid. Since we use the pid to gate future spawns, we need to ensure
// that we clear out the pid on failure, otherwise the trigger would be
// effectively disabled for the rest of the watch lifetime
cmd->current_proc = 0;
}
#ifndef _WIN32
ignore_result(chdir("/"));
}
#endif
// If failed, we want to make sure we log enough info to figure out why
result_log_level = res == 0 ? W_LOG_DBG : W_LOG_ERR;
w_log(result_log_level, "posix_spawnp: %s\n", cmd->triggername.c_str());
for (i = 0; argv[i]; i++) {
w_log(result_log_level, "argv[%d] %s\n", i, argv[i]);
}
for (i = 0; envp[i]; i++) {
w_log(result_log_level, "envp[%d] %s\n", i, envp[i]);
}
w_log(
result_log_level,
"trigger %s:%s pid=%d ret=%d %s\n",
root->root_path.c_str(),
cmd->triggername.c_str(),
(int)cmd->current_proc,
ret,
strerror(ret));
free(argv);
free(envp);
posix_spawnattr_destroy(&attr);
posix_spawn_file_actions_destroy(&actions);
}
/*
* main()
*
* @function DronePi Application main
*
*/
int main(int argc, char* argv[])
{
//yaw pid
int count;
char ff;
int cnt=0;
int ycnt=0;
//network about
int tcp,udp;
int flag,str_len,t=0;
double x = 0,y=0,z=0;
double pp,pi,pd;
char pidbuf[100],tcp_flag,recv_flag;
json_t *data;
json_error_t error;
// Yaw PID 상수
double yp,yi,yd;
// Roll, Pitch PID 상수
double kp, ki, kd;
// 모터 출력량
int throttle = 0;
// 상대좌표 Yaw를 사용하기위한 보정 값
float adjustYaw=0.f;
// Quardcopter 로 모터 4개 선언
Motor motor[4];
// imu 장치 MPU6050 선언
IMU imu;
for(int i = 0 ; i < 4 ; i++)
{
motor[i].init();
}
// Setting Pin to Raspberry pi gpio
motor[0].setPin(22);
motor[1].setPin(23);
motor[2].setPin(24);
motor[3].setPin(25);
// ESC Calibration
motor[0].calibration();
motor[1].calibration();
motor[2].calibration();
motor[3].calibration();
if(imu.init())
{
printf("Plese check the MPU6050 device connection!!\n");
return 0; //센서 연결 실패
}
// PID 연산을 위한 각 축의 PID 연산자 객체 선언
PID rollPid, pitchPid, yawPid;
rollPid.init();
pitchPid.init();
yawPid.init();
kp = 2.0; // 1.2
ki = 0.1; // 0.00084
kd = 0.85; // 0.6134
rollPid.setTuning(2.0, 0.1, 0.78);
pitchPid.setTuning(2.0, 0.1, 0.78);
yawPid.setTuning(10.0, 0.f, 10.0);
float roll, pitch, yaw, preYaw, rYaw;
int pidRoll, pidPitch, pidYaw;
// 자이로센서 init 및 calibration
imu.calibration();
int Motor1_speed, Motor2_speed, Motor3_speed, Motor4_speed;
printf("Connect Application!!\n");
// Network init
if(network_init(&tcp,&udp)==-1)
{
printf("socket create error\n");
return 0;
}
printf("network init complete\n");
// 급격한 각도변화 발생시 비상제어. 착륙 실행 flag
int Emergency = 0;
// 상대 Yaw 좌표
preYaw = 0;
/*
* Drone Control routine
*
* 1. 조작 데이터 수신
* 2. 현재 각도 측정
* 3. PID 연산
* 4. 모터 속도 업데이트
*
*/
while(1)
{
// Get json data from android app
flag=json_read(udp,&x,&y,&z,&t);
if(flag==1)
{
throttle = t;
}
// 2. 현재 각도 측정
imu.getIMUData(&roll, &pitch, &yaw);
// 센서 오류 및 오동작으로 인한 동작 방지
// 특정 각도 이상으로 기울어지면 종료할 수 있도록 함
if( pitch < -50 || pitch > 50 || roll < -50 || roll > 50)
{
Emergency = 1;
}
// 상대 Yaw 연산
if(preYaw>100&&yaw<-100)
rYaw=360+yaw-preYaw;
else if(preYaw<-100&&yaw>100)
rYaw=360-yaw+preYaw;
else
rYaw= yaw - preYaw;
if(ycnt==33)
{
printf("rYaw: %.2lf preYaw: %.2lf yaw: %.2lf\n",rYaw,preYaw,yaw);
ycnt=0;
}
ycnt++;
preYaw = yaw;
// 각 축의 PID 연산
pidRoll = rollPid.calcPID(x, roll);
pidPitch = pitchPid.calcPID(-y, pitch);
pidYaw = yawPid.calcPID(0, rYaw-z);
// Quardcopter type X 의 모터 속도 연산
Motor1_speed = throttle + pidRoll + pidPitch + pidYaw;
Motor2_speed = throttle - pidRoll + pidPitch - pidYaw;
Motor3_speed = throttle - pidRoll - pidPitch + pidYaw;
Motor4_speed = throttle + pidRoll - pidPitch - pidYaw;
if(cnt==33)
{
printf("X: %.2lf Y: %.2lf Z: %.2lf T:%d \n",x,y,z,t);
printf("ROLL : %3.6f, PITCH %3.7f, YAW %3.7f\n", roll, pitch, yaw);
printf("pidRoll : %d, pidPitch : %d pidYaw: %d\n", pidRoll,pidPitch,pidYaw);
printf("motor speed [1]:%d [2]:%d [3]:%d [4]:%d\n\n\n", Motor1_speed, Motor2_speed, Motor3_speed, Motor4_speed);
cnt=0;
}
cnt++;
if(Emergency)
{
// 긴급상황. 모터속도 최소화
Motor1_speed = 700;
Motor2_speed = 700;
Motor3_speed = 700;
Motor4_speed = 700;
}
if(Motor1_speed < 700) Motor1_speed = 700;
if(Motor2_speed < 700) Motor2_speed = 700;
if(Motor3_speed < 700) Motor3_speed = 700;
if(Motor4_speed < 700) Motor4_speed = 700;
// 모터 속도 업데이트
motor[0].setSpeed(Motor1_speed);
motor[1].setSpeed(Motor2_speed);
motor[2].setSpeed(Motor3_speed);
motor[3].setSpeed(Motor4_speed);
tcp_flag=tcp_read(tcp);
if(tcp_flag==3)
{
motor[0].setSpeed(700);
motor[1].setSpeed(700);
motor[2].setSpeed(700);
motor[3].setSpeed(700);
memset(pidbuf,0,sizeof(pidbuf));
printf("pid reset flag\n");
str_len=recv(tcp,pidbuf,sizeof(pidbuf),MSG_DONTROUTE);
pidbuf[str_len]=0;
printf("pid reset data :%s\n",pidbuf);
data=json_loads(pidbuf,JSON_DECODE_ANY,&error);
if((json_unpack(data,"{s:f,s:f,s:f,s:f,s:f,s:f}","P_P",&pp,"P_I",&pi,"P_D",&pd,"Y_P",&yp,"Y_I",&yi,"Y_D",&yd))!=0)
{
printf("pid reset error\n");
recv_flag=0;
send(tcp,&recv_flag,1,MSG_DONTROUTE);
return 0;
}
recv_flag=1;
send(tcp,&recv_flag,1,MSG_DONTROUTE);
rollPid.initKpid(pp, pi, pd);
pitchPid.initKpid(pp, pi, pd);
yawPid.initKpid(yp, yi, yd);
Emergency=0;
printf("pid reset complete\n");
}
else if(tcp_flag==5)
{
motor[0].setSpeed(700);
motor[1].setSpeed(700);
motor[2].setSpeed(700);
motor[3].setSpeed(700);
printf("drone exit\n");
break;
}
else if(tcp_flag==0)
{
motor[0].setSpeed(700);
motor[1].setSpeed(700);
motor[2].setSpeed(700);
motor[3].setSpeed(700);
printf("Controller connection less\n");
break;
}
}//end while(1)
sleep(3);
}//end int main()
static int do_connect(const char *host, int port, const char *user, const char *pass,
const char *email, int reg_user, int connid)
{
int fd = -1, authresult, copylen;
char ipv6_error[120], ipv4_error[120], errmsg[256];
json_t *jmsg, *jarr;
#ifdef UNIX
/* try to connect to a local unix socket */
struct sockaddr_un sun;
sun.sun_family = AF_UNIX;
copylen = strlen(host) + 1;
if (copylen > sizeof(sun.sun_path) - 1)
copylen = sizeof(sun.sun_path) - 1;
memcpy(sun.sun_path, host, copylen);
sun.sun_path[sizeof(sun.sun_path) - 1] = '\0';
fd = socket(AF_UNIX, SOCK_STREAM, 0);
if (fd >= 0) {
if (connect(fd, (struct sockaddr*)&sun, sizeof(sun)) == -1) {
close(fd);
fd = -1;
}
}
#endif
/* try ipv6 */
if (fd == -1)
fd = connect_server(host, port, FALSE, ipv6_error, 120);
if (fd == -1)
/* no ipv6 connection, try ipv4 */
fd = connect_server(host, port, TRUE, ipv4_error, 120);
if (fd == -1) {
/* both connection attempts failed: error message */
if (!ipv6_error[0] && !ipv4_error[0]) {
snprintf(errmsg, 256, "No address for \"%s\" found!", host);
print_error(errmsg);
}
if (ipv6_error[0]) {
snprintf(errmsg, 256, "IPv6: %s", ipv6_error);
print_error(errmsg);
}
if (ipv4_error[0]) {
snprintf(errmsg, 256, "IPv4: %s", ipv4_error);
print_error(errmsg);
}
return NO_CONNECTION;
}
in_connect_disconnect = TRUE;
sockfd = fd;
jmsg = json_pack("{ss,ss}", "username", user, "password", pass);
if (reg_user) {
if (email)
json_object_set_new(jmsg, "email", json_string(email));
jmsg = send_receive_msg("register", jmsg);
} else {
if (connid)
json_object_set_new(jmsg, "reconnect", json_integer(connid));
jmsg = send_receive_msg("auth", jmsg);
}
in_connect_disconnect = FALSE;
if (!jmsg || json_unpack(jmsg, "{si,si*}", "return", &authresult,
"connection", &connection_id) == -1) {
if (jmsg)
json_decref(jmsg);
close(fd);
return NO_CONNECTION;
}
/* the "version" field in the response is optional */
if (json_unpack(jmsg, "{so*}", "version", &jarr) != -1 &&
json_is_array(jarr) && json_array_size(jarr) >= 3) {
nhnet_server_ver.major = json_integer_value(json_array_get(jarr, 0));
nhnet_server_ver.minor = json_integer_value(json_array_get(jarr, 1));
nhnet_server_ver.patchlevel = json_integer_value(json_array_get(jarr, 2));
}
json_decref(jmsg);
if (host != saved_hostname)
strncpy(saved_hostname, host, sizeof(saved_hostname));
if (user != saved_username)
strncpy(saved_username, user, sizeof(saved_username));
if (pass != saved_password)
strncpy(saved_password, pass, sizeof(saved_password));
saved_port = port;
conn_err = FALSE;
net_active = TRUE;
return authresult;
}
struct nh_drawing_info *nhnet_get_drawing_info(void)
{
json_t *jmsg, *jbg, *jtraps, *jobjs, *jmons, *jwarn, *jexpt, *jzapt, *jzaps,
*jeff, *jexps, *jswal, *jinvis;
struct nh_drawing_info *di;
if (!nhnet_active())
return nh_get_drawing_info();
if (!api_entry())
return 0;
jmsg = send_receive_msg("get_drawing_info", json_object());
di = xmalloc(sizeof(struct nh_drawing_info));
if (json_unpack(jmsg, "{si,si,si,si,si,si,si,si,si,so,so,so,so,so,so,so,so,so,so,so,so!}",
"num_bgelements", &di->num_bgelements,
"num_traps", &di->num_traps,
"num_objects", &di->num_objects,
"num_monsters", &di->num_monsters,
"num_warnings", &di->num_warnings,
"num_expltypes", &di->num_expltypes,
"num_zaptypes", &di->num_zaptypes,
"num_effects", &di->num_effects,
"feature_offset", &di->bg_feature_offset,
"bgelements", &jbg,
"traps", &jtraps,
"objects", &jobjs,
"monsters", &jmons,
"warnings", &jwarn,
"expltypes", &jexpt,
"zaptypes", &jzapt,
"effects", &jeff,
"explsyms", &jexps,
"zapsyms", &jzaps,
"swallowsyms", &jswal,
"invis", &jinvis) == -1 ||
!json_is_array(jbg) || !json_is_array(jobjs) ||
!json_is_array(jmons) || !json_is_array(jwarn) ||
!json_is_array(jexpt) || !json_is_array(jzapt) ||
!json_is_array(jeff) || !json_is_array(jexps) ||
!json_is_array(jswal) || !json_is_array(jinvis)) {
print_error("Incorrect return object in nhnet_get_drawing_info");
di = NULL;
} else {
di->bgelements = read_symdef_array(jbg);
di->traps = read_symdef_array(jtraps);
di->objects = read_symdef_array(jobjs);
di->monsters = read_symdef_array(jmons);
di->warnings = read_symdef_array(jwarn);
di->expltypes = read_symdef_array(jexpt);
di->zaptypes = read_symdef_array(jzapt);
di->effects = read_symdef_array(jeff);
di->explsyms = read_symdef_array(jexps);
di->zapsyms = read_symdef_array(jzaps);
di->swallowsyms = read_symdef_array(jswal);
di->invis = read_symdef_array(jinvis);
}
json_decref(jmsg);
api_exit();
return di;
}
static void read_json_option(json_t *jobj, struct nh_option_desc *opt)
{
json_t *joptval, *joptdesc, *jelem;
const char *name, *helptxt, *strval;
int size, i;
struct nh_autopickup_rule *r;
memset(opt, 0, sizeof(struct nh_option_desc));
if (!json_unpack(jobj, "{ss,ss,si,so,so!}", "name", &name, "helptxt",
&helptxt, "type", &opt->type, "value", &joptval,
"desc", &joptdesc) == -1) {
memset(opt, 0, sizeof(struct nh_option_desc));
print_error("Broken option specification.");
return;
}
opt->name = strdup(name);
opt->helptxt = strdup(helptxt);
switch (opt->type) {
case OPTTYPE_BOOL:
opt->value.b = json_integer_value(joptval);
break;
case OPTTYPE_INT:
opt->value.i = json_integer_value(joptval);
json_unpack(joptdesc, "{si,si!}", "max", &opt->i.max, "min", &opt->i.min);
break;
case OPTTYPE_ENUM:
opt->value.e = json_integer_value(joptval);
size = json_array_size(joptdesc);
opt->e.numchoices = size;
opt->e.choices = read_json_list(joptdesc);
break;
case OPTTYPE_STRING:
opt->value.s = strdup(json_string_value(joptval));
opt->s.maxlen = json_integer_value(joptdesc);
break;
case OPTTYPE_AUTOPICKUP_RULES:
size = json_array_size(joptdesc);
opt->a.numclasses = size;
opt->a.classes = read_json_list(joptdesc);
size = json_array_size(joptval);
if (!size)
break;
opt->value.ar = malloc(sizeof(struct nh_autopickup_rules));
opt->value.ar->num_rules = size;
opt->value.ar->rules = malloc(size * sizeof(struct nh_autopickup_rule));
for (i = 0; i < size; i++) {
r = &opt->value.ar->rules[i];
jelem = json_array_get(joptval, i);
json_unpack(jelem, "{ss,si,si,si!}", "pattern", &strval, "oclass",
&r->oclass, "buc", &r->buc, "action", &r->action);
strncpy(r->pattern, strval, sizeof(r->pattern) - 1);
}
break;
}
}
if (!actual_json)
return -ENOMEM;
/*
* Create json objects for all present ports
*/
teamd_for_each_tdport(tdport, ctx) {
err = get_port_obj(NULL, actual_json, tdport->ifname);
if (err)
goto errout;
}
/*
* Get rid of json object of ports which are not present
*/
err = json_unpack(actual_json, "{s:o}", "ports", &ports_obj);
if (!err) {
iter = json_object_iter(ports_obj);
while (iter) {
const char *port_name = json_object_iter_key(iter);
iter = json_object_iter_next(ports_obj, iter);
if (!teamd_get_port_by_ifname(ctx, (char *) port_name))
json_object_del(ports_obj, port_name);
}
}
dump = json_dumps(actual_json, TEAMD_JSON_DUMPS_FLAGS);
json_decref(actual_json);
if (!dump)
return -ENOMEM;
static json_t *
cmd_update_screen(json_t * params, int display_only)
{
static struct nh_dbuf_entry dbuf[ROWNO][COLNO];
int ux, uy;
int x, y, effect, bg, trap, obj, obj_mn, mon, monflags, branding, invis,
visible;
json_t *jdbuf, *col, *elem;
if (json_unpack(params, "{si,si,so!}", "ux", &ux, "uy", &uy, "dbuf", &jdbuf)
== -1) {
print_error("Incorrect parameters in cmd_update_screen");
return NULL;
}
if (json_is_integer(jdbuf)) {
if (json_integer_value(jdbuf) == 0) {
memset(dbuf, 0, sizeof (struct nh_dbuf_entry) * ROWNO * COLNO);
cur_wndprocs.win_update_screen(dbuf, ux, uy);
} else
print_error("Incorrect parameter in cmd_update_screen");
return NULL;
}
if (!json_is_array(jdbuf)) {
print_error("Incorrect parameter in cmd_update_screen");
return NULL;
}
if (json_array_size(jdbuf) != COLNO)
print_error("Wrong number of columns in cmd_update_screen");
for (x = 0; x < COLNO; x++) {
col = json_array_get(jdbuf, x);
if (json_is_integer(col)) {
if (json_integer_value(col) == 0) {
for (y = 0; y < ROWNO; y++)
memset(&dbuf[y][x], 0, sizeof (struct nh_dbuf_entry));
} else if (json_integer_value(col) != 1)
print_error("Strange column value in cmd_update_screen");
continue;
}
if (!json_is_array(col) || json_array_size(col) != ROWNO) {
print_error("Wrong column data type in cmd_update_screen");
continue;
}
for (y = 0; y < ROWNO; y++) {
elem = json_array_get(col, y);
if (json_is_integer(elem)) {
if (json_integer_value(elem) == 0)
memset(&dbuf[y][x], 0, sizeof (struct nh_dbuf_entry));
else if (json_integer_value(elem) != 1)
print_error("Strange element value in cmd_update_screen");
continue;
}
if (json_unpack
(elem, "[i,i,i,i,i,i,i,i,i,i!]", &effect, &bg, &trap, &obj,
&obj_mn, &mon, &monflags, &branding, &invis, &visible) == -1)
print_error("Strange element data in cmd_update_screen");
dbuf[y][x].effect = effect;
dbuf[y][x].bg = bg;
dbuf[y][x].trap = trap;
dbuf[y][x].obj = obj;
dbuf[y][x].obj_mn = obj_mn;
dbuf[y][x].mon = mon;
dbuf[y][x].monflags = monflags;
dbuf[y][x].branding = branding;
dbuf[y][x].invis = invis;
dbuf[y][x].visible = visible;
}
}
cur_wndprocs.win_update_screen(dbuf, ux, uy);
return NULL;
}
vmlist *qvd_list_of_vm(qvdclient *qvd) {
char url[MAX_BASEURL];
int i;
long http_code = 0;
json_error_t error;
char *command = "/qvd/list_of_vm";
if (!_qvd_set_certdir(qvd)) {
qvd_printf("Please set the cert dir");
return NULL;
}
if (qvd->home && (*(qvd->home)) != '\0') {
qvd_printf("Setting NX_HOME to %s\n", qvd->home);
if (setenv("NX_HOME", qvd->home, 1)) {
qvd_error(qvd, "Error setting NX_HOME to %s. errno: %d (%s)", qvd->home, errno, strerror(errno));
}
}
if (snprintf(url, MAX_BASEURL, "%s%s", qvd->baseurl, command) >= MAX_BASEURL) {
qvd_error(qvd, "Error initializing url in list_of_vm, length is longer than %d\n", MAX_BASEURL);
return NULL;
}
_qvd_use_client_cert(qvd);
curl_easy_setopt(qvd->curl, CURLOPT_URL, url);
/* curl_easy_setopt(curl, CURLOPT_WRITEDATA, &jsonBuffer); */
qvd->res = curl_easy_perform(qvd->curl);
qvd_printf("After easy_perform: %ul\n", qvd->res);
if (qvd->res)
{
qvd_printf("Error accessing url: <%s>, error code: %ul\n", url, qvd->res);
qvd_error(qvd, "Error accessing list of VMs: %s\n", curl_easy_strerror(qvd->res));
return NULL;
}
curl_easy_getinfo (qvd->curl, CURLINFO_RESPONSE_CODE, &http_code);
if (http_code == 401)
{
qvd_error(qvd, "Error authenticating user\n");
return NULL;
}
qvd_printf("No error and no auth error after curl_easy_perform\n");
/* QvdBufferInit(&(qvd->buffer)); */
json_t *vmList = json_loads(qvd->buffer.data, 0, &error);
int arrayLength = json_array_size(vmList);
qvd->numvms = arrayLength;
qvd_printf("VMs available: %d\n", qvd->numvms);
QvdVmListFree(qvd->vmlist);
if (!(qvd->vmlist = malloc(sizeof(vmlist)))) {
qvd_error(qvd, "Error allocating memory for vmlist");
return NULL;
}
QvdVmListInit(qvd->vmlist);
for (i = 0; i < arrayLength; i++) {
json_t *obj = json_array_get(vmList, i);
int id, blocked;
char *name, *state;
json_unpack(obj, "{s:i,s:s,s:i,s:s}",
"id", &id,
"state", &state,
"blocked", &blocked,
"name", &name);
qvd_printf("VM ID:%d NAME:%s STATE:%s BLOCKED:%d\n",
id, name, state, blocked);
QvdVmListAppendVm(qvd, qvd->vmlist, QvdVmNew(id, name, state, blocked));
}
/* QvdBufferReset(&(qvd->buffer));*/
if (qvd->numvms <= 0) {
qvd_error(qvd, "No virtual machines available for user %s\n", qvd->username);
} else {
qvd_progress(qvd, "Returning list of vms");
}
return qvd->vmlist;
}
struct nhnet_game *
nhnet_list_games(int done, int show_all, int *count)
{
int i, has_amulet;
json_t *jmsg, *jarr, *jobj;
struct nhnet_game *gb;
struct nhnet_game *gamebuf = NULL;
const char *plname, *plrole, *plrace, *plgend, *plalign, *level_desc,
*death;
if (!api_entry())
return NULL;
jmsg =
json_pack("{si,si,si}", "limit", 0, "completed", done, "show_all",
show_all);
jmsg = send_receive_msg("list_games", jmsg);
if (json_unpack(jmsg, "{so!}", "games", &jarr) == -1 ||
!json_is_array(jarr)) {
print_error("Incorrect return object in nhnet_list_games");
*count = 0;
} else {
*count = json_array_size(jarr);
gamebuf = xmalloc(*count * sizeof (struct nhnet_game));
for (i = 0; i < *count; i++) {
gb = &gamebuf[i];
memset(gb, 0, sizeof (struct nhnet_game));
jobj = json_array_get(jarr, i);
if (json_unpack
(jobj, "{si,si,si,ss,ss,ss,ss,ss*}", "gameid", &gb->gameid,
"status", &gb->status, "playmode", &gb->i.playmode, "plname",
&plname, "plrole", &plrole, "plrace", &plrace, "plgend",
&plgend, "plalign", &plalign) == -1) {
print_error("Invalid game info object.");
continue;
}
strncpy(gb->i.name, plname, PL_NSIZ - 1);
strncpy(gb->i.plrole, plrole, PLRBUFSZ - 1);
strncpy(gb->i.plrace, plrace, PLRBUFSZ - 1);
strncpy(gb->i.plgend, plgend, PLRBUFSZ - 1);
strncpy(gb->i.plalign, plalign, PLRBUFSZ - 1);
if (gb->status == LS_SAVED) {
json_unpack(jobj, "{ss,si,si,si*}", "level_desc", &level_desc,
"moves", &gb->i.moves, "depth", &gb->i.depth,
"has_amulet", &has_amulet);
gb->i.has_amulet = has_amulet;
strncpy(gb->i.level_desc, level_desc,
sizeof (gb->i.level_desc) - 1);
} else if (gb->status == LS_DONE) {
json_unpack(jobj, "{ss,si,si*}", "death", &death, "moves",
&gb->i.moves, "depth", &gb->i.depth);
strncpy(gb->i.death, death, sizeof (gb->i.death) - 1);
}
}
}
json_decref(jmsg);
api_exit();
return gamebuf;
}
bool locationClass::parse(json_t* input) {
if (json_unpack(input, "{s:F,s:F}", "latitude", &_lat, "longitude", &_lon)) {
return false;
}
return this->isValid();
}
static void spawn_command(w_root_t *root,
struct watchman_trigger_command *cmd,
w_query_res *res,
struct w_clockspec *since_spec)
{
char **envp = NULL;
uint32_t i = 0;
int ret;
w_stm_t stdin_file = NULL;
json_t *args;
char **argv = NULL;
uint32_t env_size;
posix_spawn_file_actions_t actions;
posix_spawnattr_t attr;
#ifndef _WIN32
sigset_t mask;
#endif
long arg_max;
size_t argspace_remaining;
bool file_overflow = false;
int result_log_level;
char clockbuf[128];
w_string_t *working_dir = NULL;
#ifdef _WIN32
arg_max = 32*1024;
#else
arg_max = sysconf(_SC_ARG_MAX);
#endif
if (arg_max <= 0) {
argspace_remaining = UINT_MAX;
} else {
argspace_remaining = (uint32_t)arg_max;
}
// Allow some misc working overhead
argspace_remaining -= 32;
stdin_file = prepare_stdin(cmd, res);
if (!stdin_file) {
w_log(W_LOG_ERR, "trigger %.*s:%s %s\n",
(int)root->root_path->len,
root->root_path->buf,
cmd->triggername->buf, strerror(errno));
return;
}
// Assumption: that only one thread will be executing on a given
// cmd instance so that mutation of cmd->envht is safe.
// This is guaranteed in the current architecture.
if (cmd->max_files_stdin > 0 && res->num_results > cmd->max_files_stdin) {
file_overflow = true;
}
// It is way too much of a hassle to try to recreate the clock value if it's
// not a relative clock spec, and it's only going to happen on the first run
// anyway, so just skip doing that entirely.
if (since_spec && since_spec->tag == w_cs_clock &&
clock_id_string(since_spec->clock.root_number, since_spec->clock.ticks,
clockbuf, sizeof(clockbuf))) {
w_envp_set_cstring(cmd->envht, "WATCHMAN_SINCE", clockbuf);
} else {
w_envp_unset(cmd->envht, "WATCHMAN_SINCE");
}
if (clock_id_string(res->root_number, res->ticks,
clockbuf, sizeof(clockbuf))) {
w_envp_set_cstring(cmd->envht, "WATCHMAN_CLOCK", clockbuf);
} else {
w_envp_unset(cmd->envht, "WATCHMAN_CLOCK");
}
if (cmd->query->relative_root) {
w_envp_set(cmd->envht, "WATCHMAN_RELATIVE_ROOT", cmd->query->relative_root);
} else {
w_envp_unset(cmd->envht, "WATCHMAN_RELATIVE_ROOT");
}
// Compute args
args = json_deep_copy(cmd->command);
if (cmd->append_files) {
// Measure how much space the base args take up
for (i = 0; i < json_array_size(args); i++) {
const char *ele = json_string_value(json_array_get(args, i));
argspace_remaining -= strlen(ele) + 1 + sizeof(char*);
}
// Dry run with env to compute space
envp = w_envp_make_from_ht(cmd->envht, &env_size);
free(envp);
envp = NULL;
argspace_remaining -= env_size;
for (i = 0; i < res->num_results; i++) {
// also: NUL terminator and entry in argv
uint32_t size = res->results[i].relname->len + 1 + sizeof(char*);
if (argspace_remaining < size) {
file_overflow = true;
break;
}
argspace_remaining -= size;
json_array_append_new(
args,
json_string_nocheck(res->results[i].relname->buf)
);
}
}
argv = w_argv_copy_from_json(args, 0);
json_decref(args);
args = NULL;
w_envp_set_bool(cmd->envht, "WATCHMAN_FILES_OVERFLOW", file_overflow);
envp = w_envp_make_from_ht(cmd->envht, &env_size);
posix_spawnattr_init(&attr);
#ifndef _WIN32
sigemptyset(&mask);
posix_spawnattr_setsigmask(&attr, &mask);
#endif
posix_spawnattr_setflags(&attr,
POSIX_SPAWN_SETSIGMASK|
#ifdef POSIX_SPAWN_CLOEXEC_DEFAULT
// Darwin: close everything except what we put in file actions
POSIX_SPAWN_CLOEXEC_DEFAULT|
#endif
POSIX_SPAWN_SETPGROUP);
posix_spawn_file_actions_init(&actions);
#ifndef _WIN32
posix_spawn_file_actions_adddup2(&actions, w_stm_fileno(stdin_file),
STDIN_FILENO);
#else
posix_spawn_file_actions_adddup2_handle_np(&actions,
w_stm_handle(stdin_file), STDIN_FILENO);
#endif
if (cmd->stdout_name) {
posix_spawn_file_actions_addopen(&actions, STDOUT_FILENO,
cmd->stdout_name, cmd->stdout_flags, 0666);
} else {
posix_spawn_file_actions_adddup2(&actions, STDOUT_FILENO, STDOUT_FILENO);
}
if (cmd->stderr_name) {
posix_spawn_file_actions_addopen(&actions, STDERR_FILENO,
cmd->stderr_name, cmd->stderr_flags, 0666);
} else {
posix_spawn_file_actions_adddup2(&actions, STDERR_FILENO, STDERR_FILENO);
}
// Figure out the appropriate cwd
{
const char *cwd = NULL;
working_dir = NULL;
if (cmd->query->relative_root) {
working_dir = cmd->query->relative_root;
} else {
working_dir = root->root_path;
}
w_string_addref(working_dir);
json_unpack(cmd->definition, "{s:s}", "chdir", &cwd);
if (cwd) {
w_string_t *cwd_str = w_string_new(cwd);
if (w_is_path_absolute(cwd)) {
w_string_delref(working_dir);
working_dir = cwd_str;
} else {
w_string_t *joined;
joined = w_string_path_cat(working_dir, cwd_str);
w_string_delref(cwd_str);
w_string_delref(working_dir);
working_dir = joined;
}
}
w_log(W_LOG_DBG, "using %.*s for working dir\n", working_dir->len, working_dir->buf);
}
pthread_mutex_lock(&spawn_lock);
#ifndef _WIN32
ignore_result(chdir(working_dir->buf));
#else
posix_spawnattr_setcwd_np(&attr, working_dir->buf);
#endif
w_string_delref(working_dir);
working_dir = NULL;
ret = posix_spawnp(&cmd->current_proc, argv[0], &actions, &attr, argv, envp);
if (ret == 0) {
w_root_addref(root);
insert_running_pid(cmd->current_proc, root);
} else {
// On Darwin (at least), posix_spawn can fail but will still populate the
// pid. Since we use the pid to gate future spawns, we need to ensure
// that we clear out the pid on failure, otherwise the trigger would be
// effectively disabled for the rest of the watch lifetime
cmd->current_proc = 0;
}
#ifndef _WIN32
ignore_result(chdir("/"));
#endif
pthread_mutex_unlock(&spawn_lock);
// If failed, we want to make sure we log enough info to figure out why
result_log_level = res == 0 ? W_LOG_DBG : W_LOG_ERR;
w_log(result_log_level, "posix_spawnp:\n");
for (i = 0; argv[i]; i++) {
w_log(result_log_level, "argv[%d] %s\n", i, argv[i]);
}
for (i = 0; envp[i]; i++) {
w_log(result_log_level, "envp[%d] %s\n", i, envp[i]);
}
w_log(result_log_level, "trigger %.*s:%s pid=%d ret=%d %s\n",
(int)root->root_path->len,
root->root_path->buf,
cmd->triggername->buf, (int)cmd->current_proc, ret, strerror(ret));
free(argv);
free(envp);
posix_spawnattr_destroy(&attr);
posix_spawn_file_actions_destroy(&actions);
if (stdin_file) {
w_stm_close(stdin_file);
}
}
struct nh_topten_entry *nhnet_get_topten(int *out_len, char *statusbuf,
const char *player, int top, int around, nh_bool own)
{
struct nh_topten_entry *ttlist;
json_t *jmsg, *jarr, *jobj;
const char *msg, *plrole, *plrace, *plgend, *plalign, *name, *death, *entrytxt;
int len, i, highlight;
if (!nhnet_active())
return nh_get_topten(out_len, statusbuf, player, top, around, own);
*out_len = 0;
if (!api_entry())
return NULL;
jmsg = json_pack("{ss,si,si,si}", "player", player ? player : "", "top", top,
"around", around, "own", own);
jmsg = send_receive_msg("get_topten", jmsg);
if (json_unpack(jmsg, "{so,ss!}", "toplist", &jarr, "msg", &msg) == -1 ||
!json_is_array(jarr)) {
print_error("Incorrect return object in nhnet_get_topten");
ttlist = NULL;
} else {
len = json_array_size(jarr);
strncpy(statusbuf, msg, BUFSZ-1);
*out_len = len;
ttlist = xmalloc((len+1) * sizeof(struct nh_topten_entry));
memset(ttlist, 0, (len+1) * sizeof(struct nh_topten_entry));
for (i = 0; i < len; i++) {
jobj = json_array_get(jarr, i);
json_unpack(jobj, "{si,si,si,si,si,si,si,si,si,si,si,si,si,ss,ss,ss,ss,ss,ss,ss,si!}",
"rank", &ttlist[i].rank,
"points", &ttlist[i].points,
"maxlvl", &ttlist[i].maxlvl,
"hp", &ttlist[i].hp,
"maxhp", &ttlist[i].maxhp,
"deaths", &ttlist[i].deaths,
"ver_major", &ttlist[i].ver_major,
"ver_minor", &ttlist[i].ver_minor,
"patchlevel", &ttlist[i].patchlevel,
"deathdate", &ttlist[i].deathdate,
"birthdate", &ttlist[i].birthdate,
"moves", &ttlist[i].moves,
"end_how", &ttlist[i].end_how,
"plrole", &plrole,
"plrace", &plrace,
"plgend", &plgend,
"plalign", &plalign,
"name", &name,
"death", &death,
"entrytxt", &entrytxt,
"highlight", &highlight);
strncpy(ttlist[i].plrole, plrole, PLRBUFSZ - 1);
strncpy(ttlist[i].plrace, plrace, PLRBUFSZ - 1);
strncpy(ttlist[i].plgend, plgend, PLRBUFSZ - 1);
strncpy(ttlist[i].plalign, plalign, PLRBUFSZ - 1);
strncpy(ttlist[i].name, name, PL_NSIZ - 1);
strncpy(ttlist[i].death, death, BUFSZ - 1);
strncpy(ttlist[i].entrytxt, entrytxt, BUFSZ - 1);
ttlist[i].highlight = highlight;
}
}
json_decref(jmsg);
api_exit();
return ttlist;
}
static bool load_cached_shader_binary(opengl::ShaderProgram* program, SCP_string hash) {
if (!do_shader_caching()) {
return false;
}
auto base_filename = SCP_string("ogl_shader-") + hash;
auto metadata = base_filename + ".json";
auto binary = base_filename + ".bin";
auto metadata_fp = cfopen(metadata.c_str(), "rb", CFILE_NORMAL, CF_TYPE_CACHE);
if (!metadata_fp) {
nprintf(("ShaderCache", "Metadata file does not exist.\n"));
return false;
}
auto size = cfilelength(metadata_fp);
SCP_string metadata_content;
metadata_content.resize((size_t) size);
cfread(&metadata_content[0], 1, size, metadata_fp);
cfclose(metadata_fp);
auto metadata_root = json_loads(metadata_content.c_str(), 0, nullptr);
if (!metadata_root) {
mprintf(("Loading of cache metadata failed! Falling back to GLSL shader...\n"));
return false;
}
json_int_t format;
if (json_unpack(metadata_root, "{sI}", "format", &format) != 0) {
mprintf(("Failed to unpack values from metadata JSON! Falling back to GLSL shader...\n"));
return false;
}
auto binary_format = (GLenum) format;
json_decref(metadata_root);
auto binary_fp = cfopen(binary.c_str(), "rb", CFILE_NORMAL, CF_TYPE_CACHE);
if (!binary_fp) {
nprintf(("ShaderCache", "Binary file does not exist.\n"));
return false;
}
GR_DEBUG_SCOPE("Loading cached shader");
SCP_vector<uint8_t> buffer;
int length = cfilelength(binary_fp);
buffer.resize((size_t) length);
cfread(&buffer[0], 1, length, binary_fp);
cfclose(binary_fp);
// Load the data!
glProgramBinary(program->getShaderHandle(), binary_format, buffer.data(), (GLsizei) buffer.size());
// Check the status...
GLint status;
glGetProgramiv(program->getShaderHandle(), GL_LINK_STATUS, &status);
return status == GL_TRUE;
}
int beginSlavery(int fd)
{
uint16_t randContext[3];
for(int i = 0; i < 3; i++)
{
randContext[i] = time(NULL) ^ getpid();
}
int returnCode = -1;
json_t* params = NULL;
json_t* nextCommand = NULL;
char** values = NULL;
struct workerTask* tasks = NULL;
uint32_t connPoolSize = 128;
uint32_t connPoolCount = 0;
void** connPool = __xmalloc(sizeof(void*) * connPoolSize);
memset(connPool, 0, sizeof(void*) * connPoolSize);
//recieve initial parameters
params = readCommand(fd, 5000);
if(!params)
{
fprintf(stderr, "No initialization packet\n");
goto exit;
}
//make sure the initial packet has all of the required info
uint64_t slaveID;
const char* command;
const char* address;
const char* username;
const char* password;
const char* tableName;
int port;
int errorChecking;
int valueLength;
int result = json_unpack(params, "{s:s, s:s, s:i, s:I, s:s, s:s, s:s, s:b, s:i}",
"command", &command,
"address", &address,
"port", &port,
"slave-id", &slaveID,
"username", &username,
"password", &password,
"table", &tableName,
"error-checking", &errorChecking,
"value-length", &valueLength);
if(result != 0 || strcmp(command, "init") || port <= 0 || port > 65535)
{
fprintf(stderr, "Invalid initialization packet recieved\n");
goto exit;
}
uint64_t numKeys = 0;
//loop and execute commands from the master
while(1)
{
nextCommand = readCommand(fd, 15000);
if(!nextCommand)
{
fprintf(stderr, "Invalid next command\n");
goto exit;
}
const char* command;
int result = json_unpack(nextCommand, "{s:s}", "command", &command);
if(result == -1)
{
fprintf(stderr, "Packet missing command field\n");
goto exit;
}
//parse commands and modify keyRange array if needed
struct workerTask task;
if(!strcmp(command, "add"))
{
uint64_t numKeysToAdd;
int result = json_unpack(nextCommand, "{s:I}", "amount", &numKeysToAdd);
if(result == -1)
{
goto exit;
}
if(errorChecking)
{
values = __xrealloc(values, sizeof(char*) * (numKeys + numKeysToAdd));
for(uint64_t i = 0; i < numKeysToAdd; i++)
{
values[numKeys + i] = __xmalloc(valueLength + 1);
for(int j = 0; j < valueLength; j++)
{
values[numKeys + i][j] = (erand48(randContext) * 26) + 'A';
}
values[numKeys + i][valueLength] = '\0';
}
}
task.startingKey = slaveID + numKeys;
task.numKeys = numKeysToAdd;
task.type = kClientAddKeys;
task.values = values;
numKeys += task.numKeys;
}
else if(!strcmp(command, "remove"))
{
uint64_t numKeysToRemove;
int result = json_unpack(nextCommand, "{s:I}", "amount", &numKeysToRemove);
if(result == -1)
{
goto exit;
}
if(errorChecking)
{
uint64_t position = numKeys - numKeysToRemove;
for(uint64_t i = 0; i < numKeysToRemove; i++)
{
free(values[position + i]);
}
values = __xrealloc(&values, sizeof(char*) * (numKeys - numKeysToRemove));
}
if(numKeysToRemove > numKeys)
{
goto exit;
}
task.startingKey = slaveID + numKeys - numKeysToRemove;
task.numKeys = numKeysToRemove;
task.type = kClientRemoveKeys;
task.values = NULL;
numKeys -= numKeysToRemove;
}
else if(!strcmp(command, "test"))
{
json_t* array = json_object_get(nextCommand, "workload");
//right now we only need 1 workload type
if(!(json_is_array(array) && json_array_size(array) == kWorkloadTypes))
{
goto exit;
}
for(int i = 0; i < kWorkloadTypes; i++)
{
task.workloadComposition[i] = json_number_value(json_array_get(array, i));
}
int result = json_unpack(nextCommand, "{s:I}", "amount", &task.count);
if(result == -1)
{
goto exit;
}
task.startingKey = slaveID;
task.numKeys = numKeys;
task.values = values;
task.type = kClientRunWorkload;
}
else if(!strcmp(command, "quit"))
{
returnCode = 0;
goto exit;
}
else
{
fprintf(stderr, "unknown command from client: %s\n", command);
goto exit;
}
int numClients;
result = json_unpack(nextCommand, "{s:i, s:F}", "num-clients", &numClients, "throughput", &task.throughput);
if(result == -1)
{
fprintf(stderr, "Packet missing number of clients or throughput value\n");
goto exit;
}
task.connOpenDelay = 0;
//fill out the generic task information
task.table = tableName;
task.valueSize = valueLength;
task.workerID = slaveID;
task.hostname = address;
task.username = username;
task.password = password;
task.port = port;
//split the request between the clients
while(numClients >= connPoolSize)
{
size_t oldSize = connPoolSize;
connPoolSize *= 8;
connPool = __xrealloc(connPool, connPoolSize * sizeof(void*));
memset(&connPool[oldSize], 0, sizeof(void*) * oldSize * 7);
}
if(numClients < connPoolCount)
{
for(int i = connPoolCount - 1; i >= numClients; i--)
{
storage_disconnect(connPool[i]);
connPool[i] = NULL;
}
}
tasks = __xmalloc(sizeof(struct workerTask) * numClients);
splitTasks(&task, tasks, numClients, connPool);
//perform the request
json_t* requestResponse;
performRequest(tasks, numClients, &requestResponse);
//save the connections for next time
for(int i = 0; i < numClients; i++)
{
connPool[i] = tasks[i].conn;
}
connPoolCount = numClients;
//send the result back to the master
char* serialResponse = json_dumps(requestResponse, JSON_COMPACT);
json_decref(requestResponse);
size_t len = strlen(serialResponse);
if(len > 1048576)
{
fprintf(stderr, "Response too large (%zd)\n", len);
free(serialResponse);
goto exit;
}
char sizeBuf[9];
sprintf(sizeBuf, "%08d", (int)len);
sendAll(fd, sizeBuf, 8);
if(sendAll(fd, serialResponse, strlen(serialResponse)) == -1)
{
free(serialResponse);
goto exit;
}
free(serialResponse);
free(tasks);
tasks = NULL;
//free the parsed command
json_decref(nextCommand);
nextCommand = NULL;
}
exit:
for(uint32_t i = 0; i < connPoolCount; i++)
{
storage_disconnect(connPool[i]);
}
free(connPool);
free(tasks);
json_decref(nextCommand);
json_decref(params);
if(values)
{
for(uint64_t i = 0; i < numKeys; i++)
{
free(values[i]);
}
free(values);
}
return returnCode;
}
static void run_tests()
{
json_t *j, *j2;
int i1, i2, i3;
json_int_t I1;
int rv;
size_t z;
double f;
char *s;
json_error_t error;
/*
* Simple, valid json_pack cases
*/
/* true */
rv = json_unpack(json_true(), "b", &i1);
if(rv || !i1)
fail("json_unpack boolean failed");
/* false */
rv = json_unpack(json_false(), "b", &i1);
if(rv || i1)
fail("json_unpack boolean failed");
/* null */
if(json_unpack(json_null(), "n"))
fail("json_unpack null failed");
/* integer */
j = json_integer(42);
rv = json_unpack(j, "i", &i1);
if(rv || i1 != 42)
fail("json_unpack integer failed");
json_decref(j);
/* json_int_t */
j = json_integer(5555555);
rv = json_unpack(j, "I", &I1);
if(rv || I1 != 5555555)
fail("json_unpack json_int_t failed");
json_decref(j);
/* real */
j = json_real(1.7);
rv = json_unpack(j, "f", &f);
if(rv || f != 1.7)
fail("json_unpack real failed");
json_decref(j);
/* number */
j = json_integer(12345);
rv = json_unpack(j, "F", &f);
if(rv || f != 12345.0)
fail("json_unpack (real or) integer failed");
json_decref(j);
j = json_real(1.7);
rv = json_unpack(j, "F", &f);
if(rv || f != 1.7)
fail("json_unpack real (or integer) failed");
json_decref(j);
/* string */
j = json_string("foo");
rv = json_unpack(j, "s", &s);
if(rv || strcmp(s, "foo"))
fail("json_unpack string failed");
json_decref(j);
/* string with length (size_t) */
j = json_string("foo");
rv = json_unpack(j, "s%", &s, &z);
if(rv || strcmp(s, "foo") || z != 3)
fail("json_unpack string with length (size_t) failed");
json_decref(j);
/* empty object */
j = json_object();
if(json_unpack(j, "{}"))
fail("json_unpack empty object failed");
json_decref(j);
/* empty list */
j = json_array();
if(json_unpack(j, "[]"))
fail("json_unpack empty list failed");
json_decref(j);
/* non-incref'd object */
j = json_object();
rv = json_unpack(j, "o", &j2);
if(rv || j2 != j || j->refcount != 1)
fail("json_unpack object failed");
json_decref(j);
/* incref'd object */
j = json_object();
rv = json_unpack(j, "O", &j2);
if(rv || j2 != j || j->refcount != 2)
fail("json_unpack object failed");
json_decref(j);
json_decref(j);
/* simple object */
j = json_pack("{s:i}", "foo", 42);
rv = json_unpack(j, "{s:i}", "foo", &i1);
if(rv || i1 != 42)
fail("json_unpack simple object failed");
json_decref(j);
/* simple array */
j = json_pack("[iii]", 1, 2, 3);
rv = json_unpack(j, "[i,i,i]", &i1, &i2, &i3);
if(rv || i1 != 1 || i2 != 2 || i3 != 3)
fail("json_unpack simple array failed");
json_decref(j);
/* object with many items & strict checking */
j = json_pack("{s:i, s:i, s:i}", "a", 1, "b", 2, "c", 3);
rv = json_unpack(j, "{s:i, s:i, s:i}", "a", &i1, "b", &i2, "c", &i3);
if(rv || i1 != 1 || i2 != 2 || i3 != 3)
fail("json_unpack object with many items failed");
json_decref(j);
/*
* Invalid cases
*/
j = json_integer(42);
if(!json_unpack_ex(j, &error, 0, "z"))
fail("json_unpack succeeded with invalid format character");
check_error("Unexpected format character 'z'", "<format>", 1, 1, 1);
if(!json_unpack_ex(NULL, &error, 0, "[i]"))
fail("json_unpack succeeded with NULL root");
check_error("NULL root value", "<root>", -1, -1, 0);
json_decref(j);
/* mismatched open/close array/object */
j = json_pack("[]");
if(!json_unpack_ex(j, &error, 0, "[}"))
fail("json_unpack failed to catch mismatched ']'");
check_error("Unexpected format character '}'", "<format>", 1, 2, 2);
json_decref(j);
j = json_pack("{}");
if(!json_unpack_ex(j, &error, 0, "{]"))
fail("json_unpack failed to catch mismatched '}'");
check_error("Expected format 's', got ']'", "<format>", 1, 2, 2);
json_decref(j);
/* missing close array */
j = json_pack("[]");
if(!json_unpack_ex(j, &error, 0, "["))
fail("json_unpack failed to catch missing ']'");
check_error("Unexpected end of format string", "<format>", 1, 2, 2);
json_decref(j);
/* missing close object */
j = json_pack("{}");
if(!json_unpack_ex(j, &error, 0, "{"))
fail("json_unpack failed to catch missing '}'");
check_error("Unexpected end of format string", "<format>", 1, 2, 2);
json_decref(j);
/* garbage after format string */
j = json_pack("[i]", 42);
if(!json_unpack_ex(j, &error, 0, "[i]a", &i1))
fail("json_unpack failed to catch garbage after format string");
check_error("Garbage after format string", "<format>", 1, 4, 4);
json_decref(j);
j = json_integer(12345);
if(!json_unpack_ex(j, &error, 0, "ia", &i1))
fail("json_unpack failed to catch garbage after format string");
check_error("Garbage after format string", "<format>", 1, 2, 2);
json_decref(j);
/* NULL format string */
j = json_pack("[]");
if(!json_unpack_ex(j, &error, 0, NULL))
fail("json_unpack failed to catch null format string");
check_error("NULL or empty format string", "<format>", -1, -1, 0);
json_decref(j);
/* NULL string pointer */
j = json_string("foobie");
if(!json_unpack_ex(j, &error, 0, "s", NULL))
fail("json_unpack failed to catch null string pointer");
check_error("NULL string argument", "<args>", 1, 1, 1);
json_decref(j);
/* invalid types */
j = json_integer(42);
j2 = json_string("foo");
if(!json_unpack_ex(j, &error, 0, "s"))
fail("json_unpack failed to catch invalid type");
check_error("Expected string, got integer", "<validation>", 1, 1, 1);
if(!json_unpack_ex(j, &error, 0, "n"))
fail("json_unpack failed to catch invalid type");
check_error("Expected null, got integer", "<validation>", 1, 1, 1);
if(!json_unpack_ex(j, &error, 0, "b"))
fail("json_unpack failed to catch invalid type");
check_error("Expected true or false, got integer", "<validation>", 1, 1, 1);
if(!json_unpack_ex(j2, &error, 0, "i"))
fail("json_unpack failed to catch invalid type");
check_error("Expected integer, got string", "<validation>", 1, 1, 1);
if(!json_unpack_ex(j2, &error, 0, "I"))
fail("json_unpack failed to catch invalid type");
check_error("Expected integer, got string", "<validation>", 1, 1, 1);
if(!json_unpack_ex(j, &error, 0, "f"))
fail("json_unpack failed to catch invalid type");
check_error("Expected real, got integer", "<validation>", 1, 1, 1);
if(!json_unpack_ex(j2, &error, 0, "F"))
fail("json_unpack failed to catch invalid type");
check_error("Expected real or integer, got string", "<validation>", 1, 1, 1);
if(!json_unpack_ex(j, &error, 0, "[i]"))
fail("json_unpack failed to catch invalid type");
check_error("Expected array, got integer", "<validation>", 1, 1, 1);
if(!json_unpack_ex(j, &error, 0, "{si}", "foo"))
fail("json_unpack failed to catch invalid type");
check_error("Expected object, got integer", "<validation>", 1, 1, 1);
json_decref(j);
json_decref(j2);
/* Array index out of range */
j = json_pack("[i]", 1);
if(!json_unpack_ex(j, &error, 0, "[ii]", &i1, &i2))
fail("json_unpack failed to catch index out of array bounds");
check_error("Array index 1 out of range", "<validation>", 1, 3, 3);
json_decref(j);
/* NULL object key */
j = json_pack("{si}", "foo", 42);
if(!json_unpack_ex(j, &error, 0, "{si}", NULL, &i1))
fail("json_unpack failed to catch null string pointer");
check_error("NULL object key", "<args>", 1, 2, 2);
json_decref(j);
/* Object key not found */
j = json_pack("{si}", "foo", 42);
if(!json_unpack_ex(j, &error, 0, "{si}", "baz", &i1))
fail("json_unpack failed to catch null string pointer");
check_error("Object item not found: baz", "<validation>", 1, 3, 3);
json_decref(j);
/*
* Strict validation
*/
j = json_pack("[iii]", 1, 2, 3);
rv = json_unpack(j, "[iii!]", &i1, &i2, &i3);
if(rv || i1 != 1 || i2 != 2 || i3 != 3)
fail("json_unpack array with strict validation failed");
json_decref(j);
j = json_pack("[iii]", 1, 2, 3);
if(!json_unpack_ex(j, &error, 0, "[ii!]", &i1, &i2))
fail("json_unpack array with strict validation failed");
check_error("1 array item(s) left unpacked", "<validation>", 1, 5, 5);
json_decref(j);
/* Like above, but with JSON_STRICT instead of '!' format */
j = json_pack("[iii]", 1, 2, 3);
if(!json_unpack_ex(j, &error, JSON_STRICT, "[ii]", &i1, &i2))
fail("json_unpack array with strict validation failed");
check_error("1 array item(s) left unpacked", "<validation>", 1, 4, 4);
json_decref(j);
j = json_pack("{s:s, s:i}", "foo", "bar", "baz", 42);
rv = json_unpack(j, "{sssi!}", "foo", &s, "baz", &i1);
if(rv || strcmp(s, "bar") != 0 || i1 != 42)
fail("json_unpack object with strict validation failed");
json_decref(j);
/* Unpack the same item twice */
j = json_pack("{s:s, s:i, s:b}", "foo", "bar", "baz", 42, "quux", 1);
if(!json_unpack_ex(j, &error, 0, "{s:s,s:s!}", "foo", &s, "foo", &s))
fail("json_unpack object with strict validation failed");
{
const char *possible_errors[] = {
"2 object item(s) left unpacked: baz, quux",
"2 object item(s) left unpacked: quux, baz"
};
check_errors(possible_errors, 2, "<validation>", 1, 10, 10);
}
json_decref(j);
j = json_pack("[i,{s:i,s:n},[i,i]]", 1, "foo", 2, "bar", 3, 4);
if(json_unpack_ex(j, NULL, JSON_STRICT | JSON_VALIDATE_ONLY,
"[i{sisn}[ii]]", "foo", "bar"))
fail("json_unpack complex value with strict validation failed");
json_decref(j);
/* ! and * must be last */
j = json_pack("[ii]", 1, 2);
if(!json_unpack_ex(j, &error, 0, "[i!i]", &i1, &i2))
fail("json_unpack failed to catch ! in the middle of an array");
check_error("Expected ']' after '!', got 'i'", "<format>", 1, 4, 4);
if(!json_unpack_ex(j, &error, 0, "[i*i]", &i1, &i2))
fail("json_unpack failed to catch * in the middle of an array");
check_error("Expected ']' after '*', got 'i'", "<format>", 1, 4, 4);
json_decref(j);
j = json_pack("{sssi}", "foo", "bar", "baz", 42);
if(!json_unpack_ex(j, &error, 0, "{ss!si}", "foo", &s, "baz", &i1))
fail("json_unpack failed to catch ! in the middle of an object");
check_error("Expected '}' after '!', got 's'", "<format>", 1, 5, 5);
if(!json_unpack_ex(j, &error, 0, "{ss*si}", "foo", &s, "baz", &i1))
fail("json_unpack failed to catch ! in the middle of an object");
check_error("Expected '}' after '*', got 's'", "<format>", 1, 5, 5);
json_decref(j);
/* Error in nested object */
j = json_pack("{s{snsn}}", "foo", "bar", "baz");
if(!json_unpack_ex(j, &error, 0, "{s{sn!}}", "foo", "bar"))
fail("json_unpack nested object with strict validation failed");
check_error("1 object item(s) left unpacked: baz", "<validation>", 1, 7, 7);
json_decref(j);
/* Error in nested array */
j = json_pack("[[ii]]", 1, 2);
if(!json_unpack_ex(j, &error, 0, "[[i!]]", &i1))
fail("json_unpack nested array with strict validation failed");
check_error("1 array item(s) left unpacked", "<validation>", 1, 5, 5);
json_decref(j);
/* Optional values */
j = json_object();
i1 = 0;
if(json_unpack(j, "{s?i}", "foo", &i1))
fail("json_unpack failed for optional key");
if(i1 != 0)
fail("json_unpack unpacked an optional key");
json_decref(j);
i1 = 0;
j = json_pack("{si}", "foo", 42);
if(json_unpack(j, "{s?i}", "foo", &i1))
fail("json_unpack failed for an optional value");
if(i1 != 42)
fail("json_unpack failed to unpack an optional value");
json_decref(j);
j = json_object();
i1 = i2 = i3 = 0;
if(json_unpack(j, "{s?[ii]s?{s{si}}}",
"foo", &i1, &i2,
"bar", "baz", "quux", &i3))
fail("json_unpack failed for complex optional values");
if(i1 != 0 || i2 != 0 || i3 != 0)
fail("json_unpack unexpectedly unpacked something");
json_decref(j);
j = json_pack("{s{si}}", "foo", "bar", 42);
if(json_unpack(j, "{s?{s?i}}", "foo", "bar", &i1))
fail("json_unpack failed for complex optional values");
if(i1 != 42)
fail("json_unpack failed to unpack");
json_decref(j);
/* Combine ? and ! */
j = json_pack("{si}", "foo", 42);
i1 = i2 = 0;
if(json_unpack(j, "{sis?i!}", "foo", &i1, "bar", &i2))
fail("json_unpack failed for optional values with strict mode");
if(i1 != 42)
fail("json_unpack failed to unpack");
if(i2 != 0)
fail("json_unpack failed to unpack");
json_decref(j);
/* But don't compensate a missing key with an optional one. */
j = json_pack("{sisi}", "foo", 42, "baz", 43);
i1 = i2 = i3 = 0;
if(!json_unpack_ex(j, &error, 0, "{sis?i!}", "foo", &i1, "bar", &i2))
fail("json_unpack failed for optional values with strict mode and compensation");
check_error("1 object item(s) left unpacked: baz", "<validation>", 1, 8, 8);
json_decref(j);
}
struct watchman_trigger_command *w_build_trigger_from_def(
w_root_t *root, json_t *trig, char **errmsg)
{
struct watchman_trigger_command *cmd;
json_t *ele, *query, *relative_root;
json_int_t jint;
const char *name = NULL;
cmd = calloc(1, sizeof(*cmd));
if (!cmd) {
*errmsg = strdup("no memory");
return NULL;
}
cmd->definition = trig;
json_incref(cmd->definition);
query = json_pack("{s:O}", "expression",
json_object_get(cmd->definition, "expression"));
relative_root = json_object_get(cmd->definition, "relative_root");
if (relative_root) {
json_object_set_nocheck(query, "relative_root", relative_root);
}
cmd->query = w_query_parse(root, query, errmsg);
json_decref(query);
if (!cmd->query) {
w_trigger_command_free(cmd);
return NULL;
}
json_unpack(trig, "{s:u}", "name", &name);
if (!name) {
*errmsg = strdup("invalid or missing name");
w_trigger_command_free(cmd);
return NULL;
}
cmd->triggername = w_string_new_typed(name, W_STRING_UNICODE);
cmd->command = json_object_get(trig, "command");
if (cmd->command) {
json_incref(cmd->command);
}
if (!cmd->command || !json_is_array(cmd->command) ||
!json_array_size(cmd->command)) {
*errmsg = strdup("invalid command array");
w_trigger_command_free(cmd);
return NULL;
}
json_unpack(trig, "{s:b}", "append_files", &cmd->append_files);
ele = json_object_get(trig, "stdin");
if (!ele) {
cmd->stdin_style = input_dev_null;
} else if (json_is_array(ele)) {
cmd->stdin_style = input_json;
if (!parse_field_list(ele, &cmd->field_list, errmsg)) {
w_trigger_command_free(cmd);
return NULL;
}
} else if (json_is_string(ele)) {
const char *str = json_string_value(ele);
if (!strcmp(str, "/dev/null")) {
cmd->stdin_style = input_dev_null;
} else if (!strcmp(str, "NAME_PER_LINE")) {
cmd->stdin_style = input_name_list;
} else {
ignore_result(asprintf(errmsg, "invalid stdin value %s", str));
w_trigger_command_free(cmd);
return NULL;
}
} else {
*errmsg = strdup("invalid value for stdin");
w_trigger_command_free(cmd);
return NULL;
}
jint = 0; // unlimited unless specified
json_unpack(trig, "{s:I}", "max_files_stdin", &jint);
if (jint < 0) {
*errmsg = strdup("max_files_stdin must be >= 0");
w_trigger_command_free(cmd);
return NULL;
}
cmd->max_files_stdin = (uint32_t)jint;
json_unpack(trig, "{s:s}", "stdout", &cmd->stdout_name);
json_unpack(trig, "{s:s}", "stderr", &cmd->stderr_name);
if (!parse_redirection(&cmd->stdout_name, &cmd->stdout_flags,
"stdout", errmsg)) {
w_trigger_command_free(cmd);
return NULL;
}
if (!parse_redirection(&cmd->stderr_name, &cmd->stderr_flags,
"stderr", errmsg)) {
w_trigger_command_free(cmd);
return NULL;
}
// Copy current environment
cmd->envht = w_envp_make_ht();
// Set some standard vars
w_envp_set(cmd->envht, "WATCHMAN_ROOT", root->root_path);
w_envp_set_cstring(cmd->envht, "WATCHMAN_SOCK", get_sock_name());
w_envp_set(cmd->envht, "WATCHMAN_TRIGGER", cmd->triggername);
return cmd;
}
