static struct control *control_init(struct btd_service *service)
{
struct control *control;
struct btd_device *dev = btd_service_get_device(service);
control = find_control(dev);
if (control != NULL)
return control;
control = g_new0(struct control, 1);
if (!g_dbus_register_interface(btd_get_dbus_connection(),
device_get_path(dev),
AUDIO_CONTROL_INTERFACE,
control_methods, NULL,
control_properties, control,
path_unregister)) {
g_free(control);
return NULL;
}
DBG("Registered interface %s on path %s", AUDIO_CONTROL_INTERFACE,
device_get_path(dev));
control->dev = dev;
control->avctp_id = avctp_add_state_cb(dev, state_changed, control);
devices = g_slist_prepend(devices, control);
return control;
}
void Controls::resize(string control_name, int x, int y, int w, int h){
Control* kontrolka = find_control(control_name);
if(kontrolka==NULL) return;
if(kontrolka->handle==NULL) return;
unsigned int flag = 0;
if(x==-1 && y==-1) flag = SWP_NOMOVE;
if(w==-1 && h==-1) flag = SWP_NOSIZE;
SetWindowPos(kontrolka->handle, HWND_TOP, x, y, w, h, flag);
}
void ast_ari_channels_redirect(struct ast_variable *headers,
struct ast_ari_channels_redirect_args *args,
struct ast_ari_response *response)
{
RAII_VAR(struct stasis_app_control *, control, NULL, ao2_cleanup);
RAII_VAR(struct ast_channel_snapshot *, chan_snapshot, NULL, ao2_cleanup);
char *tech;
char *resource;
int tech_len;
control = find_control(response, args->channel_id);
if (!control) {
return;
}
if (ast_strlen_zero(args->endpoint)) {
ast_ari_response_error(response, 400, "Not Found",
"Required parameter 'endpoint' not provided.");
return;
}
tech = ast_strdupa(args->endpoint);
if (!(resource = strchr(tech, '/')) || !(tech_len = resource - tech)) {
ast_ari_response_error(response, 422, "Unprocessable Entity",
"Endpoint parameter '%s' does not contain tech/resource", args->endpoint);
return;
}
*resource++ = '\0';
if (ast_strlen_zero(resource)) {
ast_ari_response_error(response, 422, "Unprocessable Entity",
"No resource provided in endpoint parameter '%s'", args->endpoint);
return;
}
chan_snapshot = ast_channel_snapshot_get_latest(args->channel_id);
if (!chan_snapshot) {
ast_ari_response_error(response, 500, "Internal Server Error",
"Unable to find channel snapshot for '%s'", args->channel_id);
return;
}
if (strncasecmp(chan_snapshot->type, tech, tech_len)) {
ast_ari_response_error(response, 422, "Unprocessable Entity",
"Endpoint technology '%s' does not match channel technology '%s'",
tech, chan_snapshot->type);
return;
}
if (stasis_app_control_redirect(control, resource)) {
ast_ari_response_error(response, 500, "Internal Server Error",
"Failed to redirect channel");
return;
}
ast_ari_response_no_content(response);
}
string Controls::get_text(string control_name){
Control* kontrolka = find_control(control_name);
if(kontrolka==NULL) return "";
if(kontrolka->handle==NULL) return "";
char *str2 = new char[512];
GetWindowText(kontrolka->handle, str2, 512);
string result = str2;
delete[] str2;
return result;
}
void set_slider_value(int idc, int mi, int ma, float v)
{
CDXUTSlider* slider = dynamic_cast<CDXUTSlider*>(find_control(idc));
if (mi == 0 && ma == 0)
slider->GetRange(mi, ma);
int iv = static_cast<int>(v * (ma - mi));
slider->SetValue(iv);
}
Window *
ContainerWindow::find_next_child_control(Window *reference)
{
assert(reference != NULL);
assert(reference->GetParent() == this);
std::list<Window*>::const_iterator i =
std::find(children.begin(), children.end(), reference);
assert(i != children.end());
return find_control(++i, children.end());
}
float slider_value(int idc, int mi, int ma)
{
CDXUTSlider* slider = dynamic_cast<CDXUTSlider*>(find_control(idc));
float v = static_cast<float>(slider->GetValue());
if (mi == 0 && ma == 0)
slider->GetRange(mi, ma);
v /= static_cast<float>(ma - mi);
return v;
}
void ast_ari_channels_ring_stop(struct ast_variable *headers,
struct ast_ari_channels_ring_stop_args *args,
struct ast_ari_response *response)
{
RAII_VAR(struct stasis_app_control *, control, NULL, ao2_cleanup);
control = find_control(response, args->channel_id);
if (control == NULL) {
return;
}
stasis_app_control_ring_stop(control);
ast_ari_response_no_content(response);
}
void ast_ari_channels_stop_silence(struct ast_variable *headers,
struct ast_ari_channels_stop_silence_args *args,
struct ast_ari_response *response)
{
RAII_VAR(struct stasis_app_control *, control, NULL, ao2_cleanup);
control = find_control(response, args->channel_id);
if (control == NULL) {
/* Response filled in by find_control */
return;
}
stasis_app_control_silence_stop(control);
ast_ari_response_no_content(response);
}
Window *
ContainerWindow::find_previous_child_control(Window *reference)
{
assert(reference != NULL);
assert(reference->GetParent() == this);
std::list<Window*>::const_reverse_iterator i =
std::find(children.rbegin(), children.rend(), reference);
#ifndef ANDROID
/* Android's NDK r5b ships a cxx-stl which does not allow comparing
two const_reverse_iterator objects for inequality */
assert(i != children.rend());
#endif
return find_control(++i, children.rend());
}
/** Used by the kernel driver to figure out if a buffer needs mapping.
*/
short hpi_check_buffer_mapping(struct hpi_control_cache *p_cache,
struct hpi_message *phm, void **p, unsigned int *pN)
{
*pN = 0;
*p = NULL;
if ((phm->function == HPI_CONTROL_GET_STATE)
&& (phm->object == HPI_OBJ_CONTROLEX)
) {
u16 control_index;
struct hpi_control_cache_info *pI;
if (!find_control(phm, p_cache, &pI, &control_index))
return 0;
}
return 0;
}
void process_message( MarSystem * root_system, const osc::ReceivedMessage& message )
{
const char * path = message.AddressPattern();
if (path[0] == '/') ++path;
// FIXME: Constructing std::string is not real-time-safe.
MarControlPtr control = find_control(root_system, path);
if (control.isInvalid())
{
MRSWARN("OSC receiver: no control for path: " << path);
return;
}
try
{
osc::ReceivedMessage::const_iterator it = message.ArgumentsBegin();
if (it == message.ArgumentsEnd())
throw std::runtime_error("OSC receiver: Message has no arguments.");
char tag = it->TypeTag();
switch(tag)
{
case osc::TRUE_TYPE_TAG:
case osc::FALSE_TYPE_TAG:
control->setValue(it->AsBoolUnchecked());
break;
case osc::INT32_TYPE_TAG:
control->setValue(it->AsInt32Unchecked());
break;
case osc::FLOAT_TYPE_TAG:
control->setValue((mrs_real) it->AsFloatUnchecked());
break;
case osc::DOUBLE_TYPE_TAG:
control->setValue((mrs_real) it->AsDoubleUnchecked());
break;
case osc::STRING_TYPE_TAG:
control->setValue(it->AsStringUnchecked());
break;
default:
throw std::runtime_error("OSC receiver: Unsupported message argument type.");
}
}
catch ( std::exception & e )
{
MRSWARN("OSC receiver: error while parsing message: " << e.what());
}
}
void ast_ari_channels_answer(struct ast_variable *headers,
struct ast_ari_channels_answer_args *args,
struct ast_ari_response *response)
{
RAII_VAR(struct stasis_app_control *, control, NULL, ao2_cleanup);
control = find_control(response, args->channel_id);
if (control == NULL) {
return;
}
if (stasis_app_control_answer(control) != 0) {
ast_ari_response_error(
response, 500, "Internal Server Error",
"Failed to answer channel");
return;
}
ast_ari_response_no_content(response);
}
void ast_ari_channels_continue_in_dialplan(
struct ast_variable *headers,
struct ast_ari_channels_continue_in_dialplan_args *args,
struct ast_ari_response *response)
{
RAII_VAR(struct stasis_app_control *, control, NULL, ao2_cleanup);
ast_assert(response != NULL);
control = find_control(response, args->channel_id);
if (control == NULL) {
return;
}
if (stasis_app_control_continue(control, args->context, args->extension, args->priority)) {
ast_ari_response_alloc_failed(response);
return;
}
ast_ari_response_no_content(response);
}
void text_drawer::output (const char* s, int len)
{
if (len == -1) len= strlen(s);
while (len) { //process one piece at a time
int runlen= find_control (s,len);
dc.TextOut (Pos, s, runlen);
Pos= Pos.plusX (dc.text_extent (s, runlen));
// >> do I really like the "plusX" feature?
s += runlen;
len -= runlen;
if (len) {
// process control code
switch (*s++) {
case '\n':
newline();
break;
}
--len;
}
}
}
void ast_ari_channels_send_dtmf(struct ast_variable *headers,
struct ast_ari_channels_send_dtmf_args *args,
struct ast_ari_response *response)
{
RAII_VAR(struct stasis_app_control *, control, NULL, ao2_cleanup);
control = find_control(response, args->channel_id);
if (control == NULL) {
return;
}
if (ast_strlen_zero(args->dtmf)) {
ast_ari_response_error(
response, 400, "Bad Request",
"DTMF is required");
return;
}
stasis_app_control_dtmf(control, args->dtmf, args->before, args->between, args->duration, args->after);
ast_ari_response_no_content(response);
}
void ast_ari_channels_unmute(struct ast_variable *headers,
struct ast_ari_channels_unmute_args *args,
struct ast_ari_response *response)
{
RAII_VAR(struct stasis_app_control *, control, NULL, ao2_cleanup);
unsigned int direction = 0;
enum ast_frame_type frametype = AST_FRAME_VOICE;
control = find_control(response, args->channel_id);
if (control == NULL) {
return;
}
if (ast_strlen_zero(args->direction)) {
ast_ari_response_error(
response, 400, "Bad Request",
"Direction is required");
return;
}
if (!strcmp(args->direction, "in")) {
direction = AST_MUTE_DIRECTION_READ;
} else if (!strcmp(args->direction, "out")) {
direction = AST_MUTE_DIRECTION_WRITE;
} else if (!strcmp(args->direction, "both")) {
direction = AST_MUTE_DIRECTION_READ | AST_MUTE_DIRECTION_WRITE;
} else {
ast_ari_response_error(
response, 400, "Bad Request",
"Invalid direction specified");
return;
}
stasis_app_control_unmute(control, direction, frametype);
ast_ari_response_no_content(response);
}
bool checkbox_value(int idc)
{
return dynamic_cast<CDXUTCheckBox*>(find_control(idc))->GetChecked();
}
void set_checkbox_value(int idc, BOOL v)
{
return dynamic_cast<CDXUTCheckBox*>(find_control(idc))->SetChecked(v == 1);
}
void Controls::select_all(string control_name){
Control* kontrolka = find_control(control_name);
if(kontrolka==NULL) return;
if(kontrolka->handle==NULL) return;
SendMessage(kontrolka->handle, EM_SETSEL, 0, -1);
}
void ast_ari_channels_continue_in_dialplan(
struct ast_variable *headers,
struct ast_ari_channels_continue_in_dialplan_args *args,
struct ast_ari_response *response)
{
RAII_VAR(struct stasis_app_control *, control, NULL, ao2_cleanup);
RAII_VAR(struct ast_channel_snapshot *, snapshot, NULL, ao2_cleanup);
int ipri;
const char *context;
const char *exten;
ast_assert(response != NULL);
control = find_control(response, args->channel_id);
if (control == NULL) {
return;
}
snapshot = stasis_app_control_get_snapshot(control);
if (!snapshot) {
return;
}
if (ast_strlen_zero(args->context)) {
context = snapshot->context;
exten = S_OR(args->extension, snapshot->exten);
} else {
context = args->context;
exten = S_OR(args->extension, "s");
}
if (!ast_strlen_zero(args->label)) {
/* A label was provided in the request, use that */
if (sscanf(args->label, "%30d", &ipri) != 1) {
ipri = ast_findlabel_extension(NULL, context, exten, args->label, NULL);
if (ipri == -1) {
ast_log(AST_LOG_ERROR, "Requested label: %s can not be found in context: %s\n", args->label, context);
ast_ari_response_error(response, 404, "Not Found", "Requested label can not be found");
return;
}
} else {
ast_debug(3, "Numeric value provided for label, jumping to that priority\n");
}
if (ipri == 0) {
ast_log(AST_LOG_ERROR, "Invalid priority label '%s' specified for extension %s in context: %s\n",
args->label, exten, context);
ast_ari_response_error(response, 400, "Bad Request", "Requested priority is illegal");
return;
}
} else if (args->priority) {
/* No label provided, use provided priority */
ipri = args->priority;
} else if (ast_strlen_zero(args->context) && ast_strlen_zero(args->extension)) {
/* Special case. No exten, context, or priority provided, then move on to the next priority */
ipri = snapshot->priority + 1;
} else {
ipri = 1;
}
if (stasis_app_control_continue(control, context, exten, ipri)) {
ast_ari_response_alloc_failed(response);
return;
}
ast_ari_response_no_content(response);
}
Window *
ContainerWindow::find_last_control()
{
return find_control(children.rbegin(), children.rend());
}
Window *
ContainerWindow::find_first_control()
{
return find_control(children.begin(), children.end());
}
HWND Controls::find(string name){
Control* kontrolka = find_control(name);
if(kontrolka==NULL) return NULL;
return kontrolka->handle;
}
static void ari_channels_handle_play(
const char *args_channel_id,
const char *args_media,
const char *args_lang,
int args_offsetms,
int args_skipms,
const char *args_playback_id,
struct ast_ari_response *response)
{
RAII_VAR(struct stasis_app_control *, control, NULL, ao2_cleanup);
RAII_VAR(struct ast_channel_snapshot *, snapshot, NULL, ao2_cleanup);
RAII_VAR(struct stasis_app_playback *, playback, NULL, ao2_cleanup);
RAII_VAR(char *, playback_url, NULL, ast_free);
struct ast_json *json;
const char *language;
ast_assert(response != NULL);
control = find_control(response, args_channel_id);
if (control == NULL) {
/* Response filled in by find_control */
return;
}
snapshot = stasis_app_control_get_snapshot(control);
if (!snapshot) {
ast_ari_response_error(
response, 404, "Not Found",
"Channel not found");
return;
}
if (args_skipms < 0) {
ast_ari_response_error(
response, 400, "Bad Request",
"skipms cannot be negative");
return;
}
if (args_offsetms < 0) {
ast_ari_response_error(
response, 400, "Bad Request",
"offsetms cannot be negative");
return;
}
language = S_OR(args_lang, snapshot->language);
playback = stasis_app_control_play_uri(control, args_media, language,
args_channel_id, STASIS_PLAYBACK_TARGET_CHANNEL, args_skipms, args_offsetms, args_playback_id);
if (!playback) {
ast_ari_response_error(
response, 500, "Internal Server Error",
"Failed to queue media for playback");
return;
}
if (ast_asprintf(&playback_url, "/playback/%s",
stasis_app_playback_get_id(playback)) == -1) {
playback_url = NULL;
ast_ari_response_error(
response, 500, "Internal Server Error",
"Out of memory");
return;
}
json = stasis_app_playback_to_json(playback);
if (!json) {
ast_ari_response_error(
response, 500, "Internal Server Error",
"Out of memory");
return;
}
ast_ari_response_created(response, playback_url, json);
}
/** CheckControlCache checks the cache and fills the struct hpi_response
* accordingly. It returns one if a cache hit occurred, zero otherwise.
*/
short hpi_check_control_cache(struct hpi_control_cache *p_cache,
struct hpi_message *phm, struct hpi_response *phr)
{
short found = 1;
struct hpi_control_cache_info *pI;
struct hpi_control_cache_single *pC;
size_t response_size;
if (!find_control(phm->obj_index, p_cache, &pI)) {
HPI_DEBUG_LOG(VERBOSE,
"HPICMN find_control() failed for adap %d\n",
phm->adapter_index);
return 0;
}
phr->error = 0;
phr->specific_error = 0;
phr->version = 0;
/* set the default response size */
response_size =
sizeof(struct hpi_response_header) +
sizeof(struct hpi_control_res);
/* pC is the default cached control strucure. May be cast to
something else in the following switch statement.
*/
pC = (struct hpi_control_cache_single *)pI;
switch (pI->control_type) {
case HPI_CONTROL_METER:
if (phm->u.c.attribute == HPI_METER_PEAK) {
phr->u.c.an_log_value[0] = pC->u.meter.an_log_peak[0];
phr->u.c.an_log_value[1] = pC->u.meter.an_log_peak[1];
} else if (phm->u.c.attribute == HPI_METER_RMS) {
if (pC->u.meter.an_logRMS[0] ==
HPI_CACHE_INVALID_SHORT) {
phr->error =
HPI_ERROR_INVALID_CONTROL_ATTRIBUTE;
phr->u.c.an_log_value[0] = HPI_METER_MINIMUM;
phr->u.c.an_log_value[1] = HPI_METER_MINIMUM;
} else {
phr->u.c.an_log_value[0] =
pC->u.meter.an_logRMS[0];
phr->u.c.an_log_value[1] =
pC->u.meter.an_logRMS[1];
}
} else
found = 0;
break;
case HPI_CONTROL_VOLUME:
if (phm->u.c.attribute == HPI_VOLUME_GAIN) {
phr->u.c.an_log_value[0] = pC->u.vol.an_log[0];
phr->u.c.an_log_value[1] = pC->u.vol.an_log[1];
} else if (phm->u.c.attribute == HPI_VOLUME_MUTE) {
if (pC->u.vol.flags & HPI_VOLUME_FLAG_HAS_MUTE) {
if (pC->u.vol.flags & HPI_VOLUME_FLAG_MUTED)
phr->u.c.param1 =
HPI_BITMASK_ALL_CHANNELS;
else
phr->u.c.param1 = 0;
} else {
phr->error =
HPI_ERROR_INVALID_CONTROL_ATTRIBUTE;
phr->u.c.param1 = 0;
}
} else {
found = 0;
}
break;
case HPI_CONTROL_MULTIPLEXER:
if (phm->u.c.attribute == HPI_MULTIPLEXER_SOURCE) {
phr->u.c.param1 = pC->u.mux.source_node_type;
phr->u.c.param2 = pC->u.mux.source_node_index;
} else {
found = 0;
}
break;
case HPI_CONTROL_CHANNEL_MODE:
if (phm->u.c.attribute == HPI_CHANNEL_MODE_MODE)
phr->u.c.param1 = pC->u.mode.mode;
else
found = 0;
break;
case HPI_CONTROL_LEVEL:
if (phm->u.c.attribute == HPI_LEVEL_GAIN) {
phr->u.c.an_log_value[0] = pC->u.level.an_log[0];
phr->u.c.an_log_value[1] = pC->u.level.an_log[1];
} else
found = 0;
break;
case HPI_CONTROL_TUNER:
if (phm->u.c.attribute == HPI_TUNER_FREQ)
phr->u.c.param1 = pC->u.tuner.freq_ink_hz;
else if (phm->u.c.attribute == HPI_TUNER_BAND)
phr->u.c.param1 = pC->u.tuner.band;
else if (phm->u.c.attribute == HPI_TUNER_LEVEL_AVG)
if (pC->u.tuner.s_level_avg ==
HPI_CACHE_INVALID_SHORT) {
phr->u.cu.tuner.s_level = 0;
phr->error =
HPI_ERROR_INVALID_CONTROL_ATTRIBUTE;
} else
phr->u.cu.tuner.s_level =
pC->u.tuner.s_level_avg;
else
found = 0;
break;
case HPI_CONTROL_AESEBU_RECEIVER:
if (phm->u.c.attribute == HPI_AESEBURX_ERRORSTATUS)
phr->u.c.param1 = pC->u.aes3rx.error_status;
else if (phm->u.c.attribute == HPI_AESEBURX_FORMAT)
phr->u.c.param1 = pC->u.aes3rx.format;
else
found = 0;
break;
case HPI_CONTROL_AESEBU_TRANSMITTER:
if (phm->u.c.attribute == HPI_AESEBUTX_FORMAT)
phr->u.c.param1 = pC->u.aes3tx.format;
else
found = 0;
break;
case HPI_CONTROL_TONEDETECTOR:
if (phm->u.c.attribute == HPI_TONEDETECTOR_STATE)
phr->u.c.param1 = pC->u.tone.state;
else
found = 0;
break;
case HPI_CONTROL_SILENCEDETECTOR:
if (phm->u.c.attribute == HPI_SILENCEDETECTOR_STATE) {
phr->u.c.param1 = pC->u.silence.state;
} else
found = 0;
break;
case HPI_CONTROL_MICROPHONE:
if (phm->u.c.attribute == HPI_MICROPHONE_PHANTOM_POWER)
phr->u.c.param1 = pC->u.microphone.phantom_state;
else
found = 0;
break;
case HPI_CONTROL_SAMPLECLOCK:
if (phm->u.c.attribute == HPI_SAMPLECLOCK_SOURCE)
phr->u.c.param1 = pC->u.clk.source;
else if (phm->u.c.attribute == HPI_SAMPLECLOCK_SOURCE_INDEX) {
if (pC->u.clk.source_index ==
HPI_CACHE_INVALID_UINT16) {
phr->u.c.param1 = 0;
phr->error =
HPI_ERROR_INVALID_CONTROL_ATTRIBUTE;
} else
phr->u.c.param1 = pC->u.clk.source_index;
} else if (phm->u.c.attribute == HPI_SAMPLECLOCK_SAMPLERATE)
phr->u.c.param1 = pC->u.clk.sample_rate;
else
found = 0;
break;
case HPI_CONTROL_PAD:{
struct hpi_control_cache_pad *p_pad;
p_pad = (struct hpi_control_cache_pad *)pI;
if (!(p_pad->field_valid_flags & (1 <<
HPI_CTL_ATTR_INDEX(phm->u.c.
attribute)))) {
phr->error =
HPI_ERROR_INVALID_CONTROL_ATTRIBUTE;
break;
}
if (phm->u.c.attribute == HPI_PAD_PROGRAM_ID)
phr->u.c.param1 = p_pad->pI;
else if (phm->u.c.attribute == HPI_PAD_PROGRAM_TYPE)
phr->u.c.param1 = p_pad->pTY;
else {
unsigned int index =
HPI_CTL_ATTR_INDEX(phm->u.c.
attribute) - 1;
unsigned int offset = phm->u.c.param1;
unsigned int pad_string_len, field_size;
char *pad_string;
unsigned int tocopy;
if (index > ARRAY_SIZE(pad_desc) - 1) {
phr->error =
HPI_ERROR_INVALID_CONTROL_ATTRIBUTE;
break;
}
pad_string =
((char *)p_pad) +
pad_desc[index].offset;
field_size = pad_desc[index].field_size;
/* Ensure null terminator */
pad_string[field_size - 1] = 0;
pad_string_len = strlen(pad_string) + 1;
if (offset > pad_string_len) {
phr->error =
HPI_ERROR_INVALID_CONTROL_VALUE;
break;
}
tocopy = pad_string_len - offset;
if (tocopy > sizeof(phr->u.cu.chars8.sz_data))
tocopy = sizeof(phr->u.cu.chars8.
sz_data);
memcpy(phr->u.cu.chars8.sz_data,
&pad_string[offset], tocopy);
phr->u.cu.chars8.remaining_chars =
pad_string_len - offset - tocopy;
}
}
break;
default:
found = 0;
break;
}
HPI_DEBUG_LOG(VERBOSE, "%s Adap %d, Ctl %d, Type %d, Attr %d\n",
found ? "Cached" : "Uncached", phm->adapter_index,
pI->control_index, pI->control_type, phm->u.c.attribute);
if (found) {
phr->size = (u16)response_size;
phr->type = HPI_TYPE_RESPONSE;
phr->object = phm->object;
phr->function = phm->function;
}
return found;
}
void ast_ari_channels_record(struct ast_variable *headers,
struct ast_ari_channels_record_args *args,
struct ast_ari_response *response)
{
RAII_VAR(struct stasis_app_control *, control, NULL, ao2_cleanup);
RAII_VAR(struct stasis_app_recording *, recording, NULL, ao2_cleanup);
RAII_VAR(char *, recording_url, NULL, ast_free);
struct ast_json *json;
RAII_VAR(struct stasis_app_recording_options *, options, NULL,
ao2_cleanup);
RAII_VAR(char *, uri_encoded_name, NULL, ast_free);
size_t uri_name_maxlen;
ast_assert(response != NULL);
if (args->max_duration_seconds < 0) {
ast_ari_response_error(
response, 400, "Bad Request",
"max_duration_seconds cannot be negative");
return;
}
if (args->max_silence_seconds < 0) {
ast_ari_response_error(
response, 400, "Bad Request",
"max_silence_seconds cannot be negative");
return;
}
control = find_control(response, args->channel_id);
if (control == NULL) {
/* Response filled in by find_control */
return;
}
options = stasis_app_recording_options_create(args->name, args->format);
if (options == NULL) {
ast_ari_response_error(
response, 500, "Internal Server Error",
"Out of memory");
}
ast_string_field_build(options, target, "channel:%s", args->channel_id);
options->max_silence_seconds = args->max_silence_seconds;
options->max_duration_seconds = args->max_duration_seconds;
options->terminate_on =
stasis_app_recording_termination_parse(args->terminate_on);
options->if_exists =
stasis_app_recording_if_exists_parse(args->if_exists);
options->beep = args->beep;
if (options->terminate_on == STASIS_APP_RECORDING_TERMINATE_INVALID) {
ast_ari_response_error(
response, 400, "Bad Request",
"terminateOn invalid");
return;
}
if (options->if_exists == -1) {
ast_ari_response_error(
response, 400, "Bad Request",
"ifExists invalid");
return;
}
if (!ast_get_format_for_file_ext(options->format)) {
ast_ari_response_error(
response, 422, "Unprocessable Entity",
"specified format is unknown on this system");
return;
}
recording = stasis_app_control_record(control, options);
if (recording == NULL) {
switch(errno) {
case EINVAL:
/* While the arguments are invalid, we should have
* caught them prior to calling record.
*/
ast_ari_response_error(
response, 500, "Internal Server Error",
"Error parsing request");
break;
case EEXIST:
ast_ari_response_error(response, 409, "Conflict",
"Recording '%s' already exists and can not be overwritten",
args->name);
break;
case ENOMEM:
ast_ari_response_error(
response, 500, "Internal Server Error",
"Out of memory");
break;
case EPERM:
ast_ari_response_error(
response, 400, "Bad Request",
"Recording name invalid");
break;
default:
ast_log(LOG_WARNING,
"Unrecognized recording error: %s\n",
strerror(errno));
ast_ari_response_error(
response, 500, "Internal Server Error",
"Internal Server Error");
break;
}
return;
}
uri_name_maxlen = strlen(args->name) * 3;
uri_encoded_name = ast_malloc(uri_name_maxlen);
if (!uri_encoded_name) {
ast_ari_response_error(
response, 500, "Internal Server Error",
"Out of memory");
return;
}
ast_uri_encode(args->name, uri_encoded_name, uri_name_maxlen,
ast_uri_http);
if (ast_asprintf(&recording_url, "/recordings/live/%s",
uri_encoded_name) == -1) {
recording_url = NULL;
ast_ari_response_error(
response, 500, "Internal Server Error",
"Out of memory");
return;
}
json = stasis_app_recording_to_json(recording);
if (!json) {
ast_ari_response_error(
response, 500, "Internal Server Error",
"Out of memory");
return;
}
ast_ari_response_created(response, recording_url, json);
}
/** Updates the cache with Set values.
Only update if no error.
Volume and Level return the limited values in the response, so use these
Multiplexer does so use sent values
*/
void hpi_cmn_control_cache_sync_to_msg(struct hpi_control_cache *p_cache,
struct hpi_message *phm, struct hpi_response *phr)
{
struct hpi_control_cache_single *pC;
struct hpi_control_cache_info *pI;
if (phr->error)
return;
if (!find_control(phm->obj_index, p_cache, &pI)) {
HPI_DEBUG_LOG(VERBOSE,
"HPICMN find_control() failed for adap %d\n",
phm->adapter_index);
return;
}
/* pC is the default cached control strucure.
May be cast to something else in the following switch statement.
*/
pC = (struct hpi_control_cache_single *)pI;
switch (pI->control_type) {
case HPI_CONTROL_VOLUME:
if (phm->u.c.attribute == HPI_VOLUME_GAIN) {
pC->u.vol.an_log[0] = phr->u.c.an_log_value[0];
pC->u.vol.an_log[1] = phr->u.c.an_log_value[1];
} else if (phm->u.c.attribute == HPI_VOLUME_MUTE) {
if (phm->u.c.param1)
pC->u.vol.flags |= HPI_VOLUME_FLAG_MUTED;
else
pC->u.vol.flags &= ~HPI_VOLUME_FLAG_MUTED;
}
break;
case HPI_CONTROL_MULTIPLEXER:
/* mux does not return its setting on Set command. */
if (phm->u.c.attribute == HPI_MULTIPLEXER_SOURCE) {
pC->u.mux.source_node_type = (u16)phm->u.c.param1;
pC->u.mux.source_node_index = (u16)phm->u.c.param2;
}
break;
case HPI_CONTROL_CHANNEL_MODE:
/* mode does not return its setting on Set command. */
if (phm->u.c.attribute == HPI_CHANNEL_MODE_MODE)
pC->u.mode.mode = (u16)phm->u.c.param1;
break;
case HPI_CONTROL_LEVEL:
if (phm->u.c.attribute == HPI_LEVEL_GAIN) {
pC->u.vol.an_log[0] = phr->u.c.an_log_value[0];
pC->u.vol.an_log[1] = phr->u.c.an_log_value[1];
}
break;
case HPI_CONTROL_MICROPHONE:
if (phm->u.c.attribute == HPI_MICROPHONE_PHANTOM_POWER)
pC->u.microphone.phantom_state = (u16)phm->u.c.param1;
break;
case HPI_CONTROL_AESEBU_TRANSMITTER:
if (phm->u.c.attribute == HPI_AESEBUTX_FORMAT)
pC->u.aes3tx.format = phm->u.c.param1;
break;
case HPI_CONTROL_AESEBU_RECEIVER:
if (phm->u.c.attribute == HPI_AESEBURX_FORMAT)
pC->u.aes3rx.format = phm->u.c.param1;
break;
case HPI_CONTROL_SAMPLECLOCK:
if (phm->u.c.attribute == HPI_SAMPLECLOCK_SOURCE)
pC->u.clk.source = (u16)phm->u.c.param1;
else if (phm->u.c.attribute == HPI_SAMPLECLOCK_SOURCE_INDEX)
pC->u.clk.source_index = (u16)phm->u.c.param1;
else if (phm->u.c.attribute == HPI_SAMPLECLOCK_SAMPLERATE)
pC->u.clk.sample_rate = phm->u.c.param1;
break;
default:
break;
}
}
int stty_main(int argc UNUSED_PARAM, char **argv)
{
struct termios mode;
void (*output_func)(const struct termios *, int);
const char *file_name = NULL;
int display_all = 0;
int stty_state;
int k;
INIT_G();
stty_state = STTY_noargs;
output_func = do_display;
/* First pass: only parse/verify command line params */
k = 0;
while (argv[++k]) {
const struct mode_info *mp;
const struct control_info *cp;
const char *arg = argv[k];
const char *argnext = argv[k+1];
int param;
if (arg[0] == '-') {
int i;
mp = find_mode(arg+1);
if (mp) {
if (!(mp->flags & REV))
goto invalid_argument;
stty_state &= ~STTY_noargs;
continue;
}
/* It is an option - parse it */
i = 0;
while (arg[++i]) {
switch (arg[i]) {
case 'a':
stty_state |= STTY_verbose_output;
output_func = do_display;
display_all = 1;
break;
case 'g':
stty_state |= STTY_recoverable_output;
output_func = display_recoverable;
break;
case 'F':
if (file_name)
bb_error_msg_and_die("only one device may be specified");
file_name = &arg[i+1]; /* "-Fdevice" ? */
if (!file_name[0]) { /* nope, "-F device" */
int p = k+1; /* argv[p] is argnext */
file_name = argnext;
if (!file_name)
bb_error_msg_and_die(bb_msg_requires_arg, "-F");
/* remove -F param from arg[vc] */
while (argv[p]) {
argv[p] = argv[p+1];
++p;
}
}
goto end_option;
default:
goto invalid_argument;
}
}
end_option:
continue;
}
mp = find_mode(arg);
if (mp) {
stty_state &= ~STTY_noargs;
continue;
}
cp = find_control(arg);
if (cp) {
if (!argnext)
bb_error_msg_and_die(bb_msg_requires_arg, arg);
/* called for the side effect of xfunc death only */
set_control_char_or_die(cp, argnext, &mode);
stty_state &= ~STTY_noargs;
++k;
continue;
}
param = find_param(arg);
if (param & param_need_arg) {
if (!argnext)
bb_error_msg_and_die(bb_msg_requires_arg, arg);
++k;
}
switch (param) {
#ifdef __linux__
case param_line:
# ifndef TIOCGWINSZ
xatoul_range_sfx(argnext, 1, INT_MAX, stty_suffixes);
break;
# endif /* else fall-through */
#endif
#ifdef TIOCGWINSZ
case param_rows:
case param_cols:
case param_columns:
xatoul_range_sfx(argnext, 1, INT_MAX, stty_suffixes);
break;
case param_size:
#endif
case param_speed:
break;
case param_ispeed:
/* called for the side effect of xfunc death only */
set_speed_or_die(input_speed, argnext, &mode);
break;
case param_ospeed:
/* called for the side effect of xfunc death only */
set_speed_or_die(output_speed, argnext, &mode);
break;
default:
if (recover_mode(arg, &mode) == 1) break;
if (tty_value_to_baud(xatou(arg)) != (speed_t) -1) break;
invalid_argument:
bb_error_msg_and_die("invalid argument '%s'", arg);
}
stty_state &= ~STTY_noargs;
}
/* Specifying both -a and -g is an error */
if ((stty_state & (STTY_verbose_output | STTY_recoverable_output)) ==
(STTY_verbose_output | STTY_recoverable_output)
) {
bb_error_msg_and_die("-a and -g are mutually exclusive");
}
/* Specifying -a or -g with non-options is an error */
if ((stty_state & (STTY_verbose_output | STTY_recoverable_output))
&& !(stty_state & STTY_noargs)
) {
bb_error_msg_and_die("modes may not be set when -a or -g is used");
}
/* Now it is safe to start doing things */
if (file_name) {
G.device_name = file_name;
xmove_fd(xopen_nonblocking(G.device_name), STDIN_FILENO);
ndelay_off(STDIN_FILENO);
}
/* Initialize to all zeroes so there is no risk memcmp will report a
spurious difference in an uninitialized portion of the structure */
memset(&mode, 0, sizeof(mode));
if (tcgetattr(STDIN_FILENO, &mode))
perror_on_device_and_die("%s");
if (stty_state & (STTY_verbose_output | STTY_recoverable_output | STTY_noargs)) {
G.max_col = get_terminal_width(STDOUT_FILENO);
output_func(&mode, display_all);
return EXIT_SUCCESS;
}
/* Second pass: perform actions */
k = 0;
while (argv[++k]) {
const struct mode_info *mp;
const struct control_info *cp;
const char *arg = argv[k];
const char *argnext = argv[k+1];
int param;
if (arg[0] == '-') {
mp = find_mode(arg+1);
if (mp) {
set_mode(mp, 1 /* reversed */, &mode);
stty_state |= STTY_require_set_attr;
}
/* It is an option - already parsed. Skip it */
continue;
}
mp = find_mode(arg);
if (mp) {
set_mode(mp, 0 /* non-reversed */, &mode);
stty_state |= STTY_require_set_attr;
continue;
}
cp = find_control(arg);
if (cp) {
++k;
set_control_char_or_die(cp, argnext, &mode);
stty_state |= STTY_require_set_attr;
continue;
}
param = find_param(arg);
if (param & param_need_arg) {
++k;
}
switch (param) {
#ifdef __linux__
case param_line:
mode.c_line = xatoul_sfx(argnext, stty_suffixes);
stty_state |= STTY_require_set_attr;
break;
#endif
#ifdef TIOCGWINSZ
case param_cols:
case param_columns:
set_window_size(-1, xatoul_sfx(argnext, stty_suffixes));
break;
case param_size:
display_window_size(0);
break;
case param_rows:
set_window_size(xatoul_sfx(argnext, stty_suffixes), -1);
break;
#endif
case param_speed:
display_speed(&mode, 0);
break;
case param_ispeed:
set_speed_or_die(input_speed, argnext, &mode);
stty_state |= (STTY_require_set_attr | STTY_speed_was_set);
break;
case param_ospeed:
set_speed_or_die(output_speed, argnext, &mode);
stty_state |= (STTY_require_set_attr | STTY_speed_was_set);
break;
default:
if (recover_mode(arg, &mode) == 1)
stty_state |= STTY_require_set_attr;
else /* true: if (tty_value_to_baud(xatou(arg)) != (speed_t) -1) */{
set_speed_or_die(both_speeds, arg, &mode);
stty_state |= (STTY_require_set_attr | STTY_speed_was_set);
} /* else - impossible (caught in the first pass):
bb_error_msg_and_die("invalid argument '%s'", arg); */
}
}
if (stty_state & STTY_require_set_attr) {
struct termios new_mode;
if (tcsetattr(STDIN_FILENO, TCSADRAIN, &mode))
perror_on_device_and_die("%s");
/* POSIX (according to Zlotnick's book) tcsetattr returns zero if
it performs *any* of the requested operations. This means it
can report 'success' when it has actually failed to perform
some proper subset of the requested operations. To detect
this partial failure, get the current terminal attributes and
compare them to the requested ones */
/* Initialize to all zeroes so there is no risk memcmp will report a
spurious difference in an uninitialized portion of the structure */
memset(&new_mode, 0, sizeof(new_mode));
if (tcgetattr(STDIN_FILENO, &new_mode))
perror_on_device_and_die("%s");
if (memcmp(&mode, &new_mode, sizeof(mode)) != 0) {
/*
* I think the below chunk is not necessary on Linux.
* If you are deleting it, also delete STTY_speed_was_set bit -
* it is only ever checked here.
*/
#if 0 /* was "if CIBAUD" */
/* SunOS 4.1.3 (at least) has the problem that after this sequence,
tcgetattr (&m1); tcsetattr (&m1); tcgetattr (&m2);
sometimes (m1 != m2). The only difference is in the four bits
of the c_cflag field corresponding to the baud rate. To save
Sun users a little confusion, don't report an error if this
happens. But suppress the error only if we haven't tried to
set the baud rate explicitly -- otherwise we'd never give an
error for a true failure to set the baud rate */
new_mode.c_cflag &= (~CIBAUD);
if ((stty_state & STTY_speed_was_set)
|| memcmp(&mode, &new_mode, sizeof(mode)) != 0)
#endif
perror_on_device_and_die("%s: cannot perform all requested operations");
}
}
return EXIT_SUCCESS;
}
void Controls::set_focus(string control_name){
Control* kontrolka = find_control(control_name);
if(kontrolka==NULL) return;
if(kontrolka->handle==NULL) return;
set_focus(kontrolka->handle);
}
