void test()
{
uint64_t test_u64 = 0xFFF0000000000001LL;
size_t size = 10000000;
msgpack_sbuffer buf;
msgpack_sbuffer_init(&buf);
msgpack_packer * pk = msgpack_packer_new(&buf, msgpack_sbuffer_write);
msgpack_pack_array(pk, size);
{
int idx = 0;
for (; idx < size; ++idx)
msgpack_pack_uint64(pk, test_u64);
}
msgpack_packer_free(pk);
size_t upk_pos = 0;
msgpack_unpacked msg;
msgpack_unpacked_init(&msg);
while (msgpack_unpack_next(&msg, buf.data, buf.size, &upk_pos)) {
}
msgpack_sbuffer_destroy(&buf);
}
int main(void) {
/* creates buffer and serializer instance. */
msgpack_sbuffer* buffer = msgpack_sbuffer_new();
msgpack_packer* pk = msgpack_packer_new(buffer, msgpack_sbuffer_write);
/* serializes ["Hello", "MessagePack"]. */
msgpack_pack_array(pk, 2);
msgpack_pack_raw(pk, 5);
msgpack_pack_raw_body(pk, "Hello", 5);
msgpack_pack_raw(pk, 11);
msgpack_pack_raw_body(pk, "MessagePack", 11);
/* deserializes it. */
msgpack_unpacked msg;
msgpack_unpacked_init(&msg);
bool success = msgpack_unpack_next(&msg, buffer->data, buffer->size, NULL);
/* prints the deserialized object. */
msgpack_object obj = msg.data;
msgpack_object_print(stdout, obj); /*=> ["Hello", "MessagePack"] */
puts("");
// msgpack_pack_object/pk
/* cleaning */
msgpack_sbuffer_free(buffer);
msgpack_packer_free(pk);
}
std::string encodeRequest(const Request &r) {
std::shared_ptr<msgpack_sbuffer> buffer{msgpack_sbuffer_new(), &msgpack_sbuffer_free};
std::shared_ptr<msgpack_packer> pk{msgpack_packer_new(buffer.get(), msgpack_sbuffer_write), &msgpack_packer_free};
msgpack_pack_map(pk.get(), 5);
msgpack_pack_raw(pk.get(), 4);
msgpack_pack_raw_body(pk.get(), "func", 4);
msgpack_pack_raw(pk.get(), r.func.size());
msgpack_pack_raw_body(pk.get(), r.func.data(), r.func.size());
msgpack_pack_raw(pk.get(), 6);
msgpack_pack_raw_body(pk.get(), "metric", 6);
msgpack_pack_raw(pk.get(), r.metric.size());
msgpack_pack_raw_body(pk.get(), r.metric.data(), r.metric.size());
msgpack_pack_raw(pk.get(), 9);
msgpack_pack_raw_body(pk.get(), "timestamp", 9);
msgpack_pack_uint64(pk.get(), r.timestamp);
msgpack_pack_raw(pk.get(), 5);
msgpack_pack_raw_body(pk.get(), "value", 5);
switch(r.value.type()) {
case Value::Type::Nil:
msgpack_pack_nil(pk.get());
break;
case Value::Type::Boolean:
if(r.value.as<bool>())
msgpack_pack_true(pk.get());
else
msgpack_pack_false(pk.get());
break;
case Value::Type::Numeric:
msgpack_pack_double(pk.get(), r.value.as<double>());
break;
case Value::Type::String:
{
std::string b = r.value.as<std::string>();
msgpack_pack_raw(pk.get(), b.size());
msgpack_pack_raw_body(pk.get(), b.data(), b.size());
}
break;
case Value::Type::Table:
{
// Hack
std::string b = r.value.as<std::string>();
if(b.empty())
msgpack_pack_nil(pk.get());
else
msgpack_sbuffer_write(reinterpret_cast<void *>(buffer.get()), b.data(), b.size());
}
break;
}
msgpack_pack_raw(pk.get(), 5);
msgpack_pack_raw_body(pk.get(), "state", 5);
if(r.state.empty())
msgpack_pack_nil(pk.get());
else
msgpack_sbuffer_write(reinterpret_cast<void *>(buffer.get()), r.state.data(), r.state.size());
return std::string(buffer->data, buffer->size);
}
/* Given a series of tasks, serialize into a series of array objects
* using messagepack and return pointer to the buffer containing the
* serialized data
*/
msgpack_sbuffer *
oolong_serialize(msgpack_sbuffer *sbuf, oolong_task **tasks, int size) {
int i;
oolong_task *task;
msgpack_packer *pk = msgpack_packer_new(sbuf, msgpack_sbuffer_write);
for(i = 0; i < size; i++) {
task = tasks[i];
/* Begin array packing */
msgpack_pack_array(pk, 3);
/* Pack description */
msgpack_pack_raw(pk, sizeof(task->description) + 1);
msgpack_pack_raw_body(pk, task->description, sizeof(task->description) + 1);
/* Pack completed */
msgpack_pack_int(pk, task->completed);
/* Pack due */
msgpack_pack_int(pk, task->due);
}
msgpack_packer_free(pk);
return sbuf;
}
TEST(fixint, size)
{
msgpack_sbuffer* sbuf = msgpack_sbuffer_new();
msgpack_packer* pk = msgpack_packer_new(sbuf, msgpack_sbuffer_write);
size_t sum = 0;
EXPECT_EQ(0, msgpack_pack_fix_int8(pk, 0));
EXPECT_EQ(sum+=2, sbuf->size);
EXPECT_EQ(0, msgpack_pack_fix_int16(pk, 0));
EXPECT_EQ(sum+=3, sbuf->size);
EXPECT_EQ(0, msgpack_pack_fix_int32(pk, 0));
EXPECT_EQ(sum+=5, sbuf->size);
EXPECT_EQ(0, msgpack_pack_fix_int64(pk, 0));
EXPECT_EQ(sum+=9, sbuf->size);
EXPECT_EQ(0, msgpack_pack_fix_uint8(pk, 0));
EXPECT_EQ(sum+=2, sbuf->size);
EXPECT_EQ(0, msgpack_pack_fix_uint16(pk, 0));
EXPECT_EQ(sum+=3, sbuf->size);
EXPECT_EQ(0, msgpack_pack_fix_uint32(pk, 0));
EXPECT_EQ(sum+=5, sbuf->size);
EXPECT_EQ(0, msgpack_pack_fix_uint64(pk, 0));
EXPECT_EQ(sum+=9, sbuf->size);
msgpack_sbuffer_free(sbuf);
msgpack_packer_free(pk);
}
PERIODIC_THREAD_END
void mon_init(void)
{
ASSERT_ONCE();
/* open monitoring socket: */
mon_socket = scl_get_socket("ap_mon");
ASSERT_NOT_NULL(mon_socket);
int64_t hwm = 1;
zmq_setsockopt(mon_socket, ZMQ_SNDHWM, &hwm, sizeof(hwm));
/* create monitoring connection: */
const struct timespec period = {0, 20 * NSEC_PER_MSEC};
pthread_mutexattr_init(&mutexattr);
pthread_mutexattr_setprotocol(&mutexattr, PTHREAD_PRIO_INHERIT);
pthread_mutex_init(&mutex, &mutexattr);
/* init msgpack buffer: */
ASSERT_NULL(msgpack_buf);
msgpack_buf = msgpack_sbuffer_new();
ASSERT_NOT_NULL(msgpack_buf);
ASSERT_NULL(pk);
pk = msgpack_packer_new(msgpack_buf, msgpack_sbuffer_write);
periodic_thread_start(&emitter_thread, mon_emitter, "mon_thread", THREAD_PRIORITY, period, NULL);
}
void
yakyak_init(struct yakyak *yy, size_t n)
{
yy->buf = msgpack_sbuffer_new();
yy->pk = msgpack_packer_new(yy->buf, msgpack_sbuffer_write);
msgpack_pack_array(yy->pk, n);
}
TEST(pack, num)
{
msgpack_sbuffer* sbuf = msgpack_sbuffer_new();
msgpack_packer* pk = msgpack_packer_new(sbuf, msgpack_sbuffer_write);
EXPECT_EQ(0, msgpack_pack_int(pk, 1));
msgpack_sbuffer_free(sbuf);
msgpack_packer_free(pk);
}
static inline msgpack_packer *monitor_method_new(char *method, msgpack_sbuffer *sbuffer)
{
msgpack_packer *pk;
msgpack_sbuffer_clear(sbuffer);
pk = msgpack_packer_new(sbuffer, msgpack_sbuffer_write);
monitor_method_add(method, pk);
return pk;
}
void
json_string_to_msgpack(const char *json_str, msgpack_sbuffer *buf)
{
PackState state;
JsonLexContext *lex = makeJsonLexContext(cstring_to_text(json_str), true);
JsonSemAction *sem;
msgpack_packer *pk;
JsonContainer top_level;
JsonValue top_level_value;
/* initialize packer */
pk = msgpack_packer_new(buf, msgpack_sbuffer_write);
/* initialize top level object */
top_level_value = palloc(sizeof(JsonValueData));
top_level = palloc(sizeof(JsonContainerData));
top_level->type = JSON_TOP_LEVEL;
top_level->parent = NULL;
top_level->via.top_level.value = top_level_value;
/* initialize state object */
state = palloc(sizeof(PackStateData));
state->lex = lex;
state->current_container = top_level;
state->pk = pk;
state->buf = buf;
/* initialize sem action */
sem = palloc(sizeof(JsonSemAction));
sem->semstate = (void *) state;
sem->object_start = sem_object_start;
sem->object_end = sem_object_end;
sem->array_start = sem_array_start;
sem->array_end = sem_array_end;
sem->object_field_start = sem_object_field_start;
sem->object_field_end = NULL;
sem->array_element_start = sem_array_element_start;
sem->array_element_end = NULL;
sem->scalar = sem_scalar;
/* run parser */
pg_parse_json(lex, sem);
/* pack top level value */
pack_value(pk, top_level_value);
/* destroy packer */
msgpack_packer_free(pk);
/* destroy top level object */
destroy_container(top_level);
}
static void queue_cpu_sample_for_sending(rbkit_cpu_sample *sample) {
msgpack_sbuffer* buffer = msgpack_sbuffer_new();
msgpack_packer* packer = msgpack_packer_new(buffer, msgpack_sbuffer_write);
rbkit_cpu_sample_event *event = new_rbkit_cpu_sample_event(sample);
pack_event((rbkit_event_header *)event, packer);
free(event);
send_message(buffer);
msgpack_sbuffer_free(buffer);
msgpack_packer_free(packer);
}
static zmsg_t *create_call(const char *actionid, const char *module, const char *function, const char *data)
{
zmsg_t *msg = zmsg_new();
msgpack_sbuffer* pIntBuffer = msgpack_sbuffer_new();
msgpack_packer* pk = msgpack_packer_new( pIntBuffer, msgpack_sbuffer_write );
if (data && actionid && module)
{
msgpack_pack_map( pk, 3 );
{
m_pack_raw(pk, "command");
m_pack_raw(pk, "call");
m_pack_raw(pk, "body");
msgpack_pack_map( pk, 5 );
{
m_pack_raw(pk, "module");
m_pack_raw(pk, module);
m_pack_raw(pk, "function");
m_pack_raw(pk, function);
m_pack_raw(pk, "version");
msgpack_pack_uint64(pk, 1);
m_pack_raw(pk, "parameters");
msgpack_pack_map( pk, 1 );
{
m_pack_raw(pk, function);
m_pack_raw(pk, data);
}
m_pack_raw(pk, "seqno");
msgpack_pack_uint64(pk, 0);
}
m_pack_raw(pk, "actionid");
m_pack_raw(pk, actionid);
}
} else {
return NULL;
}
zmsg_pushmem(msg, pIntBuffer->data, pIntBuffer->size);
msgpack_sbuffer_free( pIntBuffer );
msgpack_packer_free( pk );
return msg;
}
static VALUE send_handshake_response(VALUE self) {
msgpack_sbuffer *buffer = msgpack_sbuffer_new();
msgpack_packer *packer = msgpack_packer_new(buffer, msgpack_sbuffer_write);
rbkit_hash_event *event = new_rbkit_hash_event(handshake, rbkit_status_as_hash(self));
pack_event((rbkit_event_header *)event, packer);
free(event);
if(buffer && buffer->size > 0)
respond_with_message(buffer->data, buffer->size);
msgpack_sbuffer_free(buffer);
msgpack_packer_free(packer);
return Qnil;
}
static rbkit_logger * get_trace_logger() {
if (logger == 0) {
logger = ALLOC_N(rbkit_logger, 1);
logger->enabled = Qfalse;
logger->sampling_profiler_enabled = Qfalse;
logger->newobj_trace = 0;
logger->freeobj_trace = 0;
logger->object_table = st_init_numtable();
logger->str_table = st_init_strtable();
logger->sbuf = msgpack_sbuffer_new();
logger->msgpacker = msgpack_packer_new(logger->sbuf, msgpack_sbuffer_write);
logger->data = 0;
}
return logger;
}
void publish_output(process_t *process, struct proc_data *procdata,
const char *ioname, const char *data, ssize_t length) {
/* TODO(sissel): move this to a separate file for 'event' streaming */
zmq_msg_t event;
int rc;
size_t msgsize;
program_t *program = pn_proc_program(process);
procnanny_t *pn = program->data;
fprintf(stdout, "%s[%d]: (%d bytes) %.*s\n", pn_proc_program(process)->name,
pn_proc_instance(process), length, length, data);
/* Fields:
* - data (the string read)
* - program name
* - process instance
* - stdout or stderr
*/
msgpack_sbuffer *buffer = msgpack_sbuffer_new();
msgpack_packer *output_msg = msgpack_packer_new(buffer, msgpack_sbuffer_write);
msgpack_pack_map(output_msg, 5);
/* "event" => "data" */
msgpack_pack_string(output_msg, "event", -1);
msgpack_pack_string(output_msg, "data", -1);
msgpack_pack_string(output_msg, "program", -1);
msgpack_pack_string(output_msg, program->name, program->name_len);
msgpack_pack_string(output_msg, "instance", -1);
msgpack_pack_int(output_msg, process->instance);
msgpack_pack_string(output_msg, "source", -1);
msgpack_pack_string(output_msg, ioname, -1);
msgpack_pack_string(output_msg, "data", -1);
msgpack_pack_string(output_msg, data, length);
zmq_msg_init_data(&event, buffer->data, buffer->size, free_msgpack_buffer, buffer);
zmq_send(pn->eventsocket, &event, 0);
zmq_msg_close(&event);
msgpack_packer_free(output_msg);
} /* publish_output */
yar_packager * yar_pack_start(yar_data_type type, uint size) /* {{{ */ {
yar_packager *packager = malloc(sizeof(yar_packager));
packager->bf = msgpack_sbuffer_new();
packager->pk = msgpack_packer_new(packager->bf, msgpack_sbuffer_write);
switch (type) {
case YAR_DATA_ARRAY:
msgpack_pack_array(packager->pk, size);
break;
case YAR_DATA_MAP:
msgpack_pack_map(packager->pk, size);
break;
default:
break;
}
return packager;
}
void send_trigger(mdcli_t * client, char * target_worker, char * rule_id, int ival, char * user_id) {
zclock_log("activating trigger\ntarget=%s\nvalue=%d\nuser=%s",
target_worker, ival, user_id);
struct timeval tval;
gettimeofday(&tval, NULL);
// make a messagepack hash
msgpack_sbuffer * buffer = msgpack_sbuffer_new();
msgpack_packer* pk = msgpack_packer_new(buffer, msgpack_sbuffer_write);
// value chunk
msgpack_pack_map(pk, 3);
// key
msgpack_pack_raw(pk, 5);
msgpack_pack_raw_body(pk, "value", 5);
// value
msgpack_pack_int(pk, ival);
//time chunk
// key
msgpack_pack_raw(pk, 5);
msgpack_pack_raw_body(pk, "epoch", 5);
// time
msgpack_pack_int(pk, tval.tv_sec);
msgpack_pack_raw(pk, 6);
msgpack_pack_raw_body(pk, "micros", 6);
// time
msgpack_pack_int(pk, tval.tv_usec);
zmsg_t * msg = zmsg_new();
// really, the user_id should be being added by a
// gatekeeper, not the block itself, or it's a security
// hole. will do for now FIX
zmsg_pushstr(msg, user_id);
// zmsg_pushmem(msg, &trigger.line_id, sizeof(int));
zmsg_pushmem(msg, buffer->data, buffer->size);
zmsg_pushstr(msg, rule_id);
zmsg_pushstr(msg, "DoAction");
mdcli_send(client, target_worker, &msg);
}
static VALUE send_hash_as_event(int argc, VALUE *argv, VALUE self) {
VALUE hash_object;
VALUE event_type;
msgpack_sbuffer *buffer;
msgpack_packer *packer;
rbkit_hash_event *event;
rb_scan_args(argc, argv, "20", &hash_object, &event_type);
buffer = msgpack_sbuffer_new();
packer = msgpack_packer_new(buffer, msgpack_sbuffer_write);
event = new_rbkit_hash_event(FIX2INT(event_type), hash_object);
pack_event((rbkit_event_header *)event, packer);
free(event);
send_message(buffer);
msgpack_sbuffer_free(buffer);
msgpack_packer_free(packer);
return Qnil;
}
static char *
pack_data(int *size)
{
msgpack_sbuffer *buffer = NULL;
msgpack_packer *packer = NULL;
char *data;
buffer = msgpack_sbuffer_new();
msgpack_sbuffer_init(buffer);
packer = msgpack_packer_new((void *)buffer, msgpack_sbuffer_write);
pack_node(packer, &node);
data = (char *)malloc(buffer->size + 1);
memcpy(data, &buffer->data[0], buffer->size);
data[buffer->size] = '\0';
*size = buffer->size;
msgpack_packer_free(packer);
msgpack_sbuffer_free(buffer);
return data;
}
static VALUE send_objectspace_dump(VALUE self) {
msgpack_sbuffer* buffer = msgpack_sbuffer_new();
msgpack_packer* pk = msgpack_packer_new(buffer, msgpack_sbuffer_write);
rbkit_object_dump * dump = get_object_dump(logger->object_table);
rbkit_object_space_dump_event *event = new_rbkit_object_space_dump_event(dump);
// Object space dump can span across messages.
// So we keep creating and queueing the messages
// until we've packed all objects.
while(event->packed_objects < event->object_count) {
pack_event((rbkit_event_header *)event, pk);
send_message(buffer);
}
free(event->current_page);
free(event);
free(dump);
msgpack_sbuffer_free(buffer);
msgpack_packer_free(pk);
return Qnil;
}
TEST(pack, insufficient)
{
msgpack_sbuffer* sbuf = msgpack_sbuffer_new();
msgpack_packer* pk = msgpack_packer_new(sbuf, msgpack_sbuffer_write);
EXPECT_EQ(0, msgpack_pack_int(pk, 255)); // uint8 (2bytes)
msgpack_unpack_return success;
size_t offset = 0;
msgpack_unpacked msg;
msgpack_unpacked_init(&msg);
success = msgpack_unpack_next(&msg, sbuf->data, 1, &offset);
EXPECT_EQ(MSGPACK_UNPACK_CONTINUE, success);
EXPECT_EQ(0u, offset);
msgpack_unpacked_destroy(&msg);
msgpack_sbuffer_free(sbuf);
msgpack_packer_free(pk);
}
void
save_data(char *filename, save_data_function pack_function)
{
msgpack_sbuffer *buffer = NULL;
msgpack_packer *packer = NULL;
char *save_file_name;
FILE *save_file;
if ((save_file_name = get_save_file_path(filename)) == NULL) {
red_log(REDD_WARNING, "get_save_file_path returned NULL");
return;
}
buffer = msgpack_sbuffer_new();
msgpack_sbuffer_init(buffer);
packer = msgpack_packer_new((void *)buffer, msgpack_sbuffer_write);
msgpack_pack_map(packer, 1);
pack_function(packer);
if ((save_file = fopen(save_file_name, "w")) != NULL) {
size_t written;
written = fwrite((void *)&buffer->data[0], 1, buffer->size, save_file);
fclose(save_file);
if (written != buffer->size) {
red_log(REDD_WARNING, "Failed to write to %s", save_file_name);
}
} else {
red_log(REDD_WARNING, "Failed to open %s", save_file_name);
}
free(save_file_name);
save_file_name = NULL;
msgpack_packer_free(packer);
packer = NULL;
msgpack_sbuffer_free(buffer);
buffer = NULL;
}
void blackbox_init(void)
{
ASSERT_ONCE();
ASSERT_NULL(blackbox_socket);
/* get scl socket */
blackbox_socket = scl_get_socket("blackbox");
ASSERT_NOT_NULL(blackbox_socket);
/* send blackbox header: */
ASSERT_NULL(msgpack_buf);
msgpack_buf = msgpack_sbuffer_new();
ASSERT_NOT_NULL(msgpack_buf);
ASSERT_NULL(pk);
pk = msgpack_packer_new(msgpack_buf, msgpack_sbuffer_write);
ASSERT_NOT_NULL(pk);
msgpack_pack_array(pk, BLACKBOX_ITEMS);
FOR_EACH(i, blackbox_spec)
{
size_t len = strlen(blackbox_spec[i]);
msgpack_pack_raw(pk, len);
msgpack_pack_raw_body(pk, blackbox_spec[i], len);
}
rpc_call_t *rpc_call_new(void *zmq, struct ev_loop *ev, const char *address,
const char *method) {
rpc_call_t *rpc = calloc(1, sizeof(rpc_call_t));
rpc->zmq = zmq;
rpc->ev = ev;
rpc->address = address;
rpc->pack_buffer = msgpack_sbuffer_new();
rpc->request = msgpack_packer_new(rpc->pack_buffer, msgpack_sbuffer_write);
msgpack_pack_map(rpc->request, 2); /* method and args */
msgpack_pack_string(rpc->request, "method", 6);
msgpack_pack_string(rpc->request, method, strlen(method));
msgpack_pack_string(rpc->request, "args", 4);
/* The rest of the packing is up to the invoker of the rpc call.
* Add whatever arguments are necessary later to rpc->request */
printf("Created new rpc call object targeting %s method %s\n",
address, method);
return rpc;
} /* rpc_call_new */
TEST(unpack, sequence)
{
msgpack_sbuffer* sbuf = msgpack_sbuffer_new();
msgpack_packer* pk = msgpack_packer_new(sbuf, msgpack_sbuffer_write);
EXPECT_EQ(0, msgpack_pack_int(pk, 1));
EXPECT_EQ(0, msgpack_pack_int(pk, 2));
EXPECT_EQ(0, msgpack_pack_int(pk, 3));
msgpack_packer_free(pk);
msgpack_unpack_return success;
size_t offset = 0;
msgpack_unpacked msg;
msgpack_unpacked_init(&msg);
success = msgpack_unpack_next(&msg, sbuf->data, sbuf->size, &offset);
EXPECT_EQ(MSGPACK_UNPACK_SUCCESS, success);
EXPECT_EQ(MSGPACK_OBJECT_POSITIVE_INTEGER, msg.data.type);
EXPECT_EQ(1u, msg.data.via.u64);
success = msgpack_unpack_next(&msg, sbuf->data, sbuf->size, &offset);
EXPECT_EQ(MSGPACK_UNPACK_SUCCESS, success);
EXPECT_EQ(MSGPACK_OBJECT_POSITIVE_INTEGER, msg.data.type);
EXPECT_EQ(2u, msg.data.via.u64);
success = msgpack_unpack_next(&msg, sbuf->data, sbuf->size, &offset);
EXPECT_EQ(MSGPACK_UNPACK_SUCCESS, success);
EXPECT_EQ(MSGPACK_OBJECT_POSITIVE_INTEGER, msg.data.type);
EXPECT_EQ(3u, msg.data.via.u64);
success = msgpack_unpack_next(&msg, sbuf->data, sbuf->size, &offset);
EXPECT_EQ(MSGPACK_UNPACK_CONTINUE, success);
msgpack_sbuffer_free(sbuf);
msgpack_unpacked_destroy(&msg);
}
int main(void)
{
msgpack_sbuffer* buffer = msgpack_sbuffer_new();
msgpack_packer* pk = msgpack_packer_new(buffer, msgpack_sbuffer_write);
msgpack_pack_array(pk, 2);
msgpack_pack_raw(pk, 5);
msgpack_pack_raw_body(pk, "hello", 5);
msgpack_pack_raw(pk, 11);
msgpack_pack_raw_body(pk, "messagepack", 11);
msgpack_unpacked msg;
msgpack_unpacked_init(&msg);
bool success = msgpack_unpack_next(&msg, buffer->data, buffer->size, NULL);
msgpack_object obj = msg.data;
msgpack_object_print(stdout, obj);
printf("\n");
msgpack_sbuffer_free(buffer);
msgpack_packer_free(pk);
}
static void
msgpack_wrap_redis_reply(const struct cmd *cmd, struct msg_out *out, const redisReply *r) {
unsigned int i;
msgpack_packer* pk = msgpack_packer_new(out, on_msgpack_write);
/* copy verb, as jansson only takes a char* but not its length. */
char *verb = "";
size_t verb_sz = 0;
if(cmd->count) {
verb_sz = cmd->argv_len[0];
verb = cmd->argv[0];
}
/* Create map object */
msgpack_pack_map(pk, 1);
/* The single element is the verb */
msgpack_pack_raw(pk, verb_sz);
msgpack_pack_raw_body(pk, verb, verb_sz);
switch(r->type) {
case REDIS_REPLY_STATUS:
case REDIS_REPLY_ERROR:
msgpack_pack_array(pk, 2);
/* first element: book */
if(r->type == REDIS_REPLY_ERROR)
msgpack_pack_false(pk);
else
msgpack_pack_true(pk);
/* second element: message */
msgpack_pack_raw(pk, r->len);
msgpack_pack_raw_body(pk, r->str, r->len);
break;
case REDIS_REPLY_STRING:
if(verb_sz ==4 && strncasecmp(verb, "INFO", 4) == 0) {
msg_info_reply(pk, r->str, r->len);
} else {
msgpack_pack_raw(pk, r->len);
msgpack_pack_raw_body(pk, r->str, r->len);
}
break;
case REDIS_REPLY_INTEGER:
msgpack_pack_int(pk, r->integer);
break;
case REDIS_REPLY_ARRAY:
if(verb_sz == 7 && strncasecmp(verb, "HGETALL", 7) == 0) {
msg_hgetall_reply(pk, r);
break;
}
msgpack_pack_array(pk, r->elements);
for(i = 0; i < r->elements; ++i) {
redisReply *e = r->element[i];
switch(e->type) {
case REDIS_REPLY_STRING:
msgpack_pack_raw(pk, e->len);
msgpack_pack_raw_body(pk, e->str, e->len);
break;
case REDIS_REPLY_INTEGER:
msgpack_pack_int(pk, e->integer);
break;
default:
msgpack_pack_nil(pk);
break;
}
}
break;
default:
msgpack_pack_nil(pk);
break;
}
msgpack_packer_free(pk);
}
int _main(void)
{
THROW_BEGIN()
/* init scl and get sockets:: */
THROW_ON_ERR(scl_init("arduino"));
void *rc_socket = scl_get_socket("rc_raw");
THROW_IF(rc_socket == NULL, -ENODEV);
void *power_socket = scl_get_socket("power");
THROW_IF(power_socket == NULL, -ENODEV);
/* allocate msgpack buffers: */
msgpack_sbuffer *msgpack_buf = msgpack_sbuffer_new();
THROW_IF(msgpack_buf == NULL, -ENOMEM);
msgpack_packer *pk = msgpack_packer_new(msgpack_buf, msgpack_sbuffer_write);
THROW_IF(pk == NULL, -ENOMEM);
/* fetch parameters: */
char *dev_path;
tsint_t dev_speed;
opcd_params_init("exynos_quad.arduino_serial.", 0);
opcd_param_t params[] =
{
{"path", &dev_path},
{"speed", &dev_speed},
OPCD_PARAMS_END
};
opcd_params_apply("", params);
/* opern serial port: */
serialport_t port;
THROW_ON_ERR(serial_open(&port, dev_path, tsint_get(&dev_speed), O_RDONLY));
uint16_t channels_raw[PPM_CHAN_MAX];
uint32_t voltage_raw, current_raw;
float channels[PPM_CHAN_MAX];
while (running)
{
int c = serial_read_char(&port);
if (c < 0)
msleep(1);
/* parse channels: */
int status = ppm_parse_frame(channels_raw, (uint8_t)(c));
if (status)
{
int sig_valid = 0;
int invalid_count = 0;
FOR_N(i, PPM_CHAN_MAX)
{
uint16_t chan_in = channels_raw[i];
if (chan_in >= PPM_VALUE_INVALID)
invalid_count++;
if (chan_in > PPM_VALUE_MAX)
chan_in = PPM_VALUE_MAX;
if (chan_in < PPM_VALUE_MIN)
chan_in = PPM_VALUE_MIN;
channels[i] = (float)(chan_in - PPM_VALUE_MIN) / (PPM_VALUE_MAX - PPM_VALUE_MIN) * 2.f - 1.f;
}
sig_valid = (invalid_count < (PPM_CHAN_MAX / 3));
/* send channels: */
msgpack_sbuffer_clear(msgpack_buf);
msgpack_pack_array(pk, 1 + PPM_CHAN_MAX);
PACKI(sig_valid); /* index 0: valid */
PACKFV(channels, PPM_CHAN_MAX); /* index 1, .. : channels */
scl_copy_send_dynamic(rc_socket, msgpack_buf->data, msgpack_buf->size);
}
/* parse adc voltage/current: */
status = power_parse_frame(&voltage_raw, ¤t_raw, (uint8_t)(c));
if (status)
{
float voltage = (float)(voltage_raw) / 1000.0;
float current = (float)(current_raw) / 1000.0;
/* send voltage / current: */
msgpack_sbuffer_clear(msgpack_buf);
msgpack_pack_array(pk, 2);
PACKF(voltage); /* index 0 */
PACKF(current); /* index 1 */
scl_copy_send_dynamic(power_socket, msgpack_buf->data, msgpack_buf->size);
}
}
int main_i2c(void)
{
THROW_BEGIN();
void *gps_socket = scl_get_socket("gps");
THROW_IF(gps_socket == NULL, -EIO);
int64_t hwm = 1;
zmq_setsockopt(gps_socket, ZMQ_SNDHWM, &hwm, sizeof(hwm));
void *sats_socket = scl_get_socket("sats");
THROW_IF(sats_socket == NULL, -EIO);
i2c_bus_t bus;
i2c_dev_t device;
uint8_t data_w[128];
uint8_t data_r[128];
if (i2c_bus_open(&bus, "/dev/i2c-1"))
{
syslog(LOG_CRIT, "could not open i2c device");
exit(EXIT_FAILURE);
}
i2c_dev_init(&device, &bus, I2C_GPS_ADDRESS);
msgpack_sbuffer *msgpack_buf = msgpack_sbuffer_new();
THROW_IF(msgpack_buf == NULL, -ENOMEM);
msgpack_packer *pk = msgpack_packer_new(msgpack_buf, msgpack_sbuffer_write);
THROW_IF(pk == NULL, -ENOMEM);
while (1)
{
msleep(200);
data_w[0] = I2C_GPS_STATUS;
i2c_xfer(&device, 1, data_w, 1, data_r);
msgpack_sbuffer_clear(msgpack_buf);
int status = data_r[0];
int fix = 0;
if (status & I2C_GPS_STATUS_2DFIX)
fix = 2;
if (status & I2C_GPS_STATUS_3DFIX)
fix = 3;
if (fix == 2)
msgpack_pack_array(pk, 7); /* 2d fix */
else if (fix == 3)
msgpack_pack_array(pk, 9); /* 3d fix */
else
msgpack_pack_array(pk, 1); /* no fix */
data_w[0] = I2C_GPS_TIME;
i2c_xfer(&device, 1, data_w, 4, data_r);
long time = (((long) data_r[3]) << 24)
| (((long) data_r[2]) << 16)
| (((long) data_r[1]) << 8)
| (data_r[0]);
time /= 1000;
char *time_str = ctime(&time);
size_t len = strlen(time_str);
msgpack_pack_raw(pk, len);
msgpack_pack_raw_body(pk, time_str, len); /* gps array index 0 */
if (fix == 2 || fix == 3)
{
data_w[0] = I2C_GPS_LOCATION;
i2c_xfer(&device, 1, data_w, 8, data_r);
PACKD(( (((long) data_r[3]) << 24)
| (((long) data_r[2]) << 16)
| (((long) data_r[1]) << 8)
| (data_r[0])) / 10000000.0); /* latitude, gps array index 1 */
PACKD(( (((long) data_r[7]) << 24)
| (((long) data_r[6]) << 16)
| (((long) data_r[5]) << 8)
| (data_r[4])) / 10000000.0); /* logitude, gps array index 2 */
PACKI((status & I2C_GPS_STATUS_NUMSATS) >> 4); /* gps array index 3 */
data_w[0] = I2C_GPS_GROUND_SPEED;
i2c_xfer(&device, 1, data_w, 2, data_r);
PACKF(((float)((data_r[1] << 8) | data_r[0])) / 100.0 * 1.94384); /* gps array index 4 */
data_w[0] = I2C_GPS_GROUND_SPEED;
i2c_xfer(&device, 1, data_w, 2, data_r);
PACKF((data_r[1] << 8) | data_r[0]); /* gps array index 5 */
PACKF(0 /* HDOP */); /* gps array index 6 */
}
if (fix == 3)
{
data_w[0] = I2C_GPS_ALTITUDE;
i2c_xfer(&device, 1, data_w, 2, data_r);
PACKF(((data_r[1]) << 8) | data_r[0]); /* gps array index 7 */
PACKF(0 /* VDOP */); /* gps array index 8 */
}
scl_copy_send_dynamic(gps_socket, msgpack_buf->data, msgpack_buf->size);
}
void publish_proc_event(process_t *process, const char *name) {
/* TODO(sissel): move this to a separate file for 'event' streaming */
zmq_msg_t event;
int rc;
size_t msgsize;
program_t *program = pn_proc_program(process);
procnanny_t *pn = program->data;
/* Fields:
* - program name
* - process instance
* - exit status
* - duration ?
*/
msgpack_sbuffer *buffer = msgpack_sbuffer_new();
msgpack_packer *output_msg = msgpack_packer_new(buffer, msgpack_sbuffer_write);
msgpack_pack_map(output_msg, 5);
msgpack_pack_string(output_msg, "event", -1);
msgpack_pack_string(output_msg, name, -1);
msgpack_pack_string(output_msg, "program", -1);
msgpack_pack_string(output_msg, program->name, program->name_len);
msgpack_pack_string(output_msg, "instance", -1);
msgpack_pack_int(output_msg, process->instance);
msgpack_pack_string(output_msg, "state", -1);
switch (process->state) {
case PROCESS_STATE_STARTING: msgpack_pack_string(output_msg, "starting", -1); break;
case PROCESS_STATE_RUNNING: msgpack_pack_string(output_msg, "running", -1); break;
case PROCESS_STATE_STOPPING: msgpack_pack_string(output_msg, "stopping", -1); break;
case PROCESS_STATE_EXITED: msgpack_pack_string(output_msg, "exited", -1); break;
case PROCESS_STATE_BACKOFF: msgpack_pack_string(output_msg, "backoff", -1); break;
case PROCESS_STATE_NEW: msgpack_pack_string(output_msg, "new", -1); break;
default: msgpack_pack_string(output_msg, "unknown", -1); break;
}
if (process->state == PROCESS_STATE_EXITED
|| process->state == PROCESS_STATE_BACKOFF) {
msgpack_pack_string(output_msg, "code", -1);
msgpack_pack_nil(output_msg);
} else if (process->exit_signal == 0) {
msgpack_pack_string(output_msg, "code", -1);
msgpack_pack_int(output_msg, process->exit_status);
} else {
msgpack_pack_string(output_msg, "signal", -1);
/* lol. */
switch (process->exit_signal) {
case SIGHUP: msgpack_pack_string(output_msg, "HUP", 3); break;
case SIGINT: msgpack_pack_string(output_msg, "INT", 3); break;
case SIGQUIT: msgpack_pack_string(output_msg, "QUIT", 4); break;
case SIGILL: msgpack_pack_string(output_msg, "ILL", 3); break;
case SIGTRAP: msgpack_pack_string(output_msg, "TRAP", 4); break;
case SIGABRT: msgpack_pack_string(output_msg, "ABRT", 4); break;
case SIGBUS: msgpack_pack_string(output_msg, "BUS", 3); break;
case SIGFPE: msgpack_pack_string(output_msg, "FPE", 3); break;
case SIGKILL: msgpack_pack_string(output_msg, "KILL", 4); break;
case SIGUSR1: msgpack_pack_string(output_msg, "USR1", 4); break;
case SIGSEGV: msgpack_pack_string(output_msg, "SEGV", 4); break;
case SIGUSR2: msgpack_pack_string(output_msg, "USR2", 4); break;
case SIGPIPE: msgpack_pack_string(output_msg, "PIPE", 4); break;
case SIGALRM: msgpack_pack_string(output_msg, "ALRM", 4); break;
case SIGTERM: msgpack_pack_string(output_msg, "TERM", 4); break;
case SIGSTKFLT: msgpack_pack_string(output_msg, "STKFLT", 6); break;
case SIGCHLD: msgpack_pack_string(output_msg, "CHLD", 4); break;
case SIGCONT: msgpack_pack_string(output_msg, "CONT", 4); break;
case SIGSTOP: msgpack_pack_string(output_msg, "STOP", 4); break;
case SIGTSTP: msgpack_pack_string(output_msg, "TSTP", 4); break;
case SIGTTIN: msgpack_pack_string(output_msg, "TTIN", 4); break;
case SIGTTOU: msgpack_pack_string(output_msg, "TTOU", 4); break;
case SIGURG: msgpack_pack_string(output_msg, "URG", 3); break;
case SIGXCPU: msgpack_pack_string(output_msg, "XCPU", 4); break;
case SIGXFSZ: msgpack_pack_string(output_msg, "XFSZ", 4); break;
case SIGVTALRM: msgpack_pack_string(output_msg, "VTALRM", 5); break;
case SIGPROF: msgpack_pack_string(output_msg, "PROF", 4); break;
case SIGWINCH: msgpack_pack_string(output_msg, "WINCH", 5); break;
case SIGPOLL: msgpack_pack_string(output_msg, "POLL", 4); break;
case SIGPWR: msgpack_pack_string(output_msg, "PWR", 3); break;
case SIGSYS: msgpack_pack_string(output_msg, "SYS", 3); break;
default: msgpack_pack_string(output_msg, "unknown", -1); break;
} /* switch process->exit_signal */
} /* if process was killed by a signal */
zmq_msg_init_data(&event, buffer->data, buffer->size, free_msgpack_buffer, buffer);
zmq_send(pn->eventsocket, &event, 0);
zmq_msg_close(&event);
msgpack_packer_free(output_msg);
} /* publish_output */