virtual void OnNackNotification(BLT_DecoderServer_Message::CommandId id, BLT_Result result_code) {
ATX_LOG_FINE_2("NACK: %d, result=%d", id, result_code);
if (!m_JniEnv || !m_Delegate || !m_DelegateMethod) return;
jintArray array = (jintArray)m_JniEnv->NewIntArray(2);
jint values[2] = {MapCommandId(id), (jint)result_code};
m_JniEnv->SetIntArrayRegion(array, 0, 2, values);
m_JniEnv->CallVoidMethod(m_Delegate, m_DelegateMethod, com_bluetune_player_Player_MESSAGE_TYPE_NACK, NULL, array);
}
/*----------------------------------------------------------------------
| CrossFader_OnPropertyChanged
+---------------------------------------------------------------------*/
BLT_VOID_METHOD
CrossFader_OnPropertyChanged(ATX_PropertyListenerInstance* instance,
ATX_CString name,
ATX_PropertyType type,
const ATX_PropertyValue* value)
{
/*CrossFader* fader = (CrossFader*)instance;*/
BLT_COMPILER_UNUSED(instance);
BLT_COMPILER_UNUSED(type);
ATX_LOG_FINE_2("CrossFader::OnPropertyChanged - name=%s val=%d",
name ? name : "*", value ? value->integer : 0);
}
/*----------------------------------------------------------------------
| BLT_TcpNetworkStream_Create
+---------------------------------------------------------------------*/
BLT_Result
BLT_TcpNetworkStream_Create(const char* name, ATX_InputStream** stream)
{
ATX_Socket* sock;
ATX_String hostname = ATX_String_Create(name);
ATX_UInt16 port = BLT_TCP_NETWORK_STREAM_DEFAULT_PORT;
int sep;
ATX_Result result = ATX_SUCCESS;
/* default */
*stream = NULL;
/* parse the hostname/port */
sep = ATX_String_FindCharFrom(&hostname, ':', 6);
if (sep > 0) {
/* we have a port number */
int port_long = 0;
result = ATX_ParseInteger(name+sep+1, &port_long, ATX_FALSE);
if (ATX_FAILED(result)) {
ATX_LOG_WARNING("BLT_TcpNetworkStream_Create - invalid port spec");
goto end;
}
port = (ATX_UInt16)port_long;
ATX_String_SetLength(&hostname, sep);
}
/* create a socket */
result = ATX_TcpClientSocket_Create(&sock);
if (ATX_FAILED(result)) goto end;
/* connect */
ATX_LOG_FINE_2("BLT_TcpNetworkStream_Create - connecting to %s:%d",
ATX_CSTR(hostname), port);
result = ATX_Socket_ConnectToHost(sock, ATX_CSTR(hostname), port, BLT_TCP_NETWORK_STREAM_DEFAULT_TIMEOUT);
if (ATX_FAILED(result)) {
ATX_LOG_WARNING_1("BLT_TcpNetworkStream_Create - failed to connect (%d)", result);
goto end;
}
ATX_LOG_FINE("BLT_TcpNetworkStream_Create - connected");
/* return the input stream */
result = ATX_Socket_GetInputStream(sock, stream);
/* release the socket */
ATX_DESTROY_OBJECT(sock);
end:
ATX_String_Destruct(&hostname);
return result;
}
virtual void OnStreamPositionNotification(BLT_StreamPosition& position) {
ATX_LOG_FINE_2("STREAM-POSITION: %d/%d", (int)position.offset, (int)position.range);
if (!m_JniEnv || !m_Delegate || !m_DelegateMethod) return;
double fpos = 0.0;
if (position.range) {
fpos = (double)position.offset/(double)position.range;
}
jintArray array = (jintArray)m_JniEnv->NewIntArray(2);
jint values[2] = {(jint)(fpos*10000.0), (jint)10000};
m_JniEnv->SetIntArrayRegion(array, 0, 2, values);
m_JniEnv->CallVoidMethod(m_Delegate, m_DelegateMethod, com_bluetune_player_Player_MESSAGE_TYPE_STREAM_POSITION, NULL, array);
}
/*----------------------------------------------------------------------
| BLT_DecoderServer::OnSeekToPositionCommnand
+---------------------------------------------------------------------*/
void
BLT_DecoderServer::OnSeekToPositionCommand(BLT_UInt64 offset, BLT_UInt64 range)
{
BLT_Result result;
ATX_LOG_FINE_2("[%d:%d]", (int)offset, (int)range);
result = BLT_Decoder_SeekToPosition(m_Decoder, offset, range);
if (BLT_SUCCEEDED(result)) {
UpdateStatus();
// update the state we were in the STATE_EOS state
if (m_State == STATE_EOS) SetState(STATE_STOPPED);
}
SendReply(BLT_DecoderServer_Message::COMMAND_ID_SEEK_TO_POSITION, result);
}
/*----------------------------------------------------------------------
| BLT_DecoderServer::OnSetInputCommand
+---------------------------------------------------------------------*/
void
BLT_DecoderServer::OnSetInputCommand(BLT_CString name, BLT_CString type)
{
BLT_Result result;
ATX_LOG_FINE_2("set input (%s / %s)",
BLT_SAFE_STRING(name), BLT_SAFE_STRING(type));
result = BLT_Decoder_SetInput(m_Decoder, name, type);
// update the state if we were in the STATE_EOS state
if (m_State == STATE_EOS) SetState(STATE_STOPPED);
UpdateStatus();
SendReply(BLT_DecoderServer_Message::COMMAND_ID_SET_INPUT, result);
}
/*----------------------------------------------------------------------
| BLT_DecoderServer::SetState
+---------------------------------------------------------------------*/
BLT_Result
BLT_DecoderServer::SetState(State state)
{
// shortcut
if (state == m_State) return BLT_SUCCESS;
ATX_LOG_FINE_2("state change from %d to %d", m_State, state);
m_State = state;
// notify the client
m_Client->PostMessage(
new BLT_DecoderClient_DecoderStateNotificationMessage(state));
return BLT_SUCCESS;
}
/*----------------------------------------------------------------------
| BLT_DecoderServer::OnSetOutputCommand
+---------------------------------------------------------------------*/
void
BLT_DecoderServer::OnSetOutputCommand(BLT_CString name, BLT_CString type)
{
BLT_Result result;
ATX_LOG_FINE_2("set output (%s / %s",
BLT_SAFE_STRING(name), BLT_SAFE_STRING(type));
result = BLT_Decoder_SetOutput(m_Decoder, name, type);
if (BLT_SUCCEEDED(result)) {
// notify of the new volume
float volume=0.0f;
result = BLT_Decoder_GetVolume(m_Decoder, &volume);
if (BLT_SUCCEEDED(result)) {
m_Client->PostMessage(new BLT_DecoderClient_VolumeNotificationMessage(volume));
}
result = BLT_SUCCESS;
}
SendReply(BLT_DecoderServer_Message::COMMAND_ID_SET_OUTPUT, result);
}
/*----------------------------------------------------------------------
| ATX_HttpMessage_Emit
+---------------------------------------------------------------------*/
static ATX_Result
ATX_HttpMessage_Emit(const ATX_HttpMessage* message, ATX_OutputStream* stream)
{
ATX_ListItem* item = ATX_List_GetFirstItem(message->headers);
/* output the headers */
while (item) {
ATX_HttpHeader* header = ATX_ListItem_GetData(item);
if (header &&
!ATX_String_IsEmpty(&header->name) &&
!ATX_String_IsEmpty(&header->value)) {
ATX_OutputStream_WriteString(stream, ATX_CSTR(header->name));
ATX_OutputStream_Write(stream, ": ", 2, NULL);
ATX_OutputStream_WriteLine(stream, ATX_CSTR(header->value));
ATX_LOG_FINE_2("ATX_HttpMessage::Emit - %s: %s", ATX_CSTR(header->name), ATX_CSTR(header->value));
}
item = ATX_ListItem_GetNext(item);
}
return ATX_SUCCESS;
}
/*----------------------------------------------------------------------
| ATX_HttpResponse_Parse
+---------------------------------------------------------------------*/
static ATX_Result
ATX_HttpResponse_Parse(ATX_HttpResponse* response, ATX_InputStream* stream)
{
char buffer[ATX_HTTP_MAX_LINE_SIZE+1];
char* line = buffer;
char* find;
ATX_Boolean header_pending = ATX_FALSE;
ATX_String header_name = ATX_EMPTY_STRING;
ATX_String header_value = ATX_EMPTY_STRING;
ATX_Result result;
/* get the first line from the stream */
result = ATX_InputStream_ReadLine(stream, line, sizeof(buffer), NULL);
if (ATX_FAILED(result)) return result;
/* get the protocol */
find = (char*)ATX_Http_FindChar(line, ' ');
if (find == NULL) {
return ATX_ERROR_INVALID_SYNTAX;
}
*find = '\0';
ATX_String_Assign(&response->base.protocol, line);
/* get the status code */
line = (char*)ATX_Http_SkipWhitespace(find+1);
find = (char*)ATX_Http_FindChar(line, ' ');
if (find == NULL) {
return ATX_ERROR_INVALID_SYNTAX;
}
*find = '\0';
if (ATX_StringLength(line) != 3) {
return ATX_ERROR_INVALID_SYNTAX;
}
{
int i;
response->status_code = 0;
for (i=0; i<3; i++) {
if (line[i] < '0' || line[i] > '9') {
return ATX_ERROR_INVALID_SYNTAX;
}
response->status_code *= 10;
response->status_code += line[i]-'0';
}
}
/* the rest is the reason phrase */
line = (char*)ATX_Http_SkipWhitespace(find+1);
ATX_String_Assign(&response->reason_phrase, line);
/* parse headers until an empty line or end of stream */
do {
/* read a line */
result = ATX_InputStream_ReadLine(stream, line, sizeof(buffer), NULL);
if (ATX_FAILED(result)) break;
/* stop if line is empty */
if (line[0] == '\0' || line[0] == '\r' || line[0] == '\n') {
if (header_pending) {
ATX_String_TrimWhitespace(&header_value);
ATX_HttpMessage_SetHeader((ATX_HttpMessage*)response,
ATX_CSTR(header_name),
ATX_CSTR(header_value));
ATX_LOG_FINE_2("ATX_HttpResponse::Parse - %s: %s",
ATX_CSTR(header_name),
ATX_CSTR(header_value));
}
break;
}
/* process the line */
if ((line[0] == ' ' || line[0] == '\t') && header_pending) {
/* this is a line continuation */
ATX_String_Append(&header_value, line+1);
} else {
/* this is a new header */
const char* name;
const char* value;
/* add the pending header to the list */
if (header_pending) {
ATX_String_TrimWhitespace(&header_value);
ATX_HttpMessage_SetHeader((ATX_HttpMessage*)response,
ATX_CSTR(header_name),
ATX_CSTR(header_value));
ATX_LOG_FINE_2("ATX_HttpResponse::Parse - %s: %s",
ATX_CSTR(header_name),
ATX_CSTR(header_value));
}
/* parse header name */
name = ATX_Http_SkipWhitespace(line);
value = ATX_Http_FindChar(name, ':');
ATX_String_AssignN(&header_name, name, (ATX_Size)(value-name));
value = ATX_Http_SkipWhitespace(value+1);
ATX_String_Assign(&header_value, value);
/* don't add the header now, it could be continued */
header_pending = ATX_TRUE;
}
} while(ATX_SUCCEEDED(result));
/* keep a reference to the stream */
response->base.body = stream;
ATX_REFERENCE_OBJECT(stream);
/* cleanup */
ATX_String_Destruct(&header_name);
ATX_String_Destruct(&header_value);
return ATX_SUCCESS;
}
/*----------------------------------------------------------------------
| DcfParser_ParseV2Header
+---------------------------------------------------------------------*/
static BLT_Result
DcfParser_ParseV2Header(DcfParser* self, ATX_InputStream* stream)
{
/* rewind the byte stream */
ATX_InputStream_Seek(stream, 0);
/* parse the atoms from the stream */
AP4_ByteStream* mp4_stream = new ATX_InputStream_To_AP4_ByteStream_Adapter(stream);
AP4_AtomParent atoms;
AP4_Result result = AP4_DefaultAtomFactory::Instance.CreateAtomsFromStream(*mp4_stream, atoms);
mp4_stream->Release();
AP4_ByteStream* decrypting_stream = NULL;
AP4_ContainerAtom* odrm = dynamic_cast<AP4_ContainerAtom*>(atoms.GetChild(AP4_ATOM_TYPE_ODRM));
if (odrm) {
AP4_OdheAtom* odhe = dynamic_cast<AP4_OdheAtom*>(odrm->GetChild(AP4_ATOM_TYPE_ODHE));
AP4_OddaAtom* odda = dynamic_cast<AP4_OddaAtom*>(odrm->GetChild(AP4_ATOM_TYPE_ODDA));
if (odhe && odda) {
const char* content_id = "";
/* get the content ID */
AP4_OhdrAtom* ohdr = dynamic_cast<AP4_OhdrAtom*>(odhe->GetChild(AP4_ATOM_TYPE_OHDR));
if (ohdr) {
content_id = ohdr->GetContentId().GetChars();
}
/* get the content key */
NPT_DataBuffer key;
result = DcfParser_GetContentKey(self, content_id, key);
if (BLT_FAILED(result)) {
ATX_LOG_FINE_2("GetKeyForContent(%s) returned %d",
content_id,
result);
return BLT_ERROR_NO_MEDIA_KEY;
}
/* create the decrypting stream */
result = AP4_OmaDcfAtomDecrypter::CreateDecryptingStream(*odrm,
key.GetData(),
key.GetDataSize(),
self->cipher_factory,
decrypting_stream);
if (AP4_SUCCEEDED(result)) {
/* update the content type */
ATX_CopyStringN(self->input.content_type,
odhe->GetContentType().GetChars(),
sizeof(self->input.content_type));
/* update the encrypted size */
self->input.encrypted_size = odda->GetEncryptedDataLength();
}
}
}
/* check that we have found what we needed in the atoms */
if (decrypting_stream == NULL) return BLT_ERROR_INVALID_MEDIA_FORMAT;
/* update the output size */
AP4_LargeSize plaintext_size = 0;
if (AP4_SUCCEEDED(decrypting_stream->GetSize(plaintext_size))) {
self->output.size = plaintext_size;
} else {
self->output.size = self->input.encrypted_size;
}
/* create a reverse adapter */
result = AP4_ByteStream_To_ATX_InputStream_Adapter_Create(decrypting_stream, &self->output.stream);
decrypting_stream->Release();
return BLT_SUCCESS;
}
/*----------------------------------------------------------------------
| DcfParser_ParseV1Header
+---------------------------------------------------------------------*/
static BLT_Result
DcfParser_ParseV1Header(DcfParser* self, ATX_InputStream* stream)
{
/* rewind the byte stream */
ATX_InputStream_Seek(stream, 0);
/* user a buffer for parsing */
ATX_UInt8 buffer[3];
/* read the first 3 fields */
ATX_Result result;
result = ATX_InputStream_ReadFully(stream, buffer, 3);
if (ATX_FAILED(result)) return result;
/* check the version */
ATX_UInt8 version = buffer[0];
if (version != 1) {
ATX_LOG_FINE_1("unsupported DCF version (%d)", version);
return BLT_ERROR_UNSUPPORTED_FORMAT;
}
/* read the content type */
ATX_UInt8 content_type_length = buffer[1];
self->input.content_type[content_type_length] = 0; // null-terminate
result = ATX_InputStream_ReadFully(stream, self->input.content_type, content_type_length);
if (ATX_FAILED(result)) return result;
/* read the content URI */
ATX_UInt8 content_uri_length = buffer[2];
self->input.content_uri[content_uri_length] = 0; // null-terminate
result = ATX_InputStream_ReadFully(stream, self->input.content_uri, content_uri_length);
if (ATX_FAILED(result)) return result;
/* read the variable-length fields */
unsigned int var_length_1, var_length_2;
ATX_UInt32 headers_length = 0;
result = DcfParser_ReadUintvar(stream, headers_length, var_length_1);
if (ATX_FAILED(result)) return result;
ATX_UInt32 data_length = 0;
result = DcfParser_ReadUintvar(stream, data_length, var_length_2);
if (ATX_FAILED(result)) return result;
/* check that the encrypted size makes sense */
if (data_length < 32) return BLT_ERROR_INVALID_MEDIA_FORMAT;
self->input.encrypted_size = data_length;
/* get the content key */
NPT_DataBuffer key;
result = DcfParser_GetContentKey(self, self->input.content_uri, key);
if (BLT_FAILED(result)) {
ATX_LOG_FINE_2("GetKeyForContent(%s) returned %d",
self->input.content_uri,
result);
return BLT_ERROR_NO_MEDIA_KEY;
}
/* read the headers */
if (headers_length > BLT_DCF_PARSER_MAX_HEADERS_LENGTH) return BLT_ERROR_INVALID_MEDIA_FORMAT;
char* headers = new char[headers_length+1];
headers[headers_length] = '\0';
result = ATX_InputStream_ReadFully(stream, headers, headers_length);
if (ATX_FAILED(result)) {
delete[] headers;
return result;
}
/* as a first-order estimate, set the output size to the encrypted size minus the IV */
self->output.size = self->input.encrypted_size-16;
/* parse the headers */
NPT_MemoryStream* headers_memory_stream = new NPT_MemoryStream(headers, headers_length);
NPT_InputStreamReference headers_memory_stream_ref(headers_memory_stream);
NPT_BufferedInputStream* headers_buffered_stream =
new NPT_BufferedInputStream(headers_memory_stream_ref);
NPT_HttpHeaders content_headers;
content_headers.Parse(*headers_buffered_stream);
delete headers_buffered_stream;
delete[] headers;
/* find out about the encryption from the headers */
const NPT_String* encryption_method = content_headers.GetHeaderValue("Encryption-Method");
if (encryption_method == NULL) return BLT_ERROR_INVALID_MEDIA_FORMAT;
/* check the encryption method */
bool encryption_supported = false;
NPT_Map<NPT_String,NPT_String> encryption_params;
NPT_Size algorithm_id_length = 0;
/* parse the algorithm id */
int separator = encryption_method->Find(';', 0, true);
if (separator > 0) {
algorithm_id_length = separator;
/* parse the params */
result = NPT_ParseMimeParameters(((const char*)(*encryption_method))+separator+1,
encryption_params);
if (NPT_FAILED(result)) {
ATX_LOG_FINE_1("cannot parse Encryption-Method parameters (%s)",
(const char*)encryption_method);
return BLT_ERROR_INVALID_MEDIA_FORMAT;
}
/* parse the plaintext-length header, if present */
NPT_String* plaintext_length = NULL;
if (NPT_SUCCEEDED(encryption_params.Get("plaintext-length", plaintext_length))) {
NPT_UInt64 value = 0;
if (NPT_SUCCEEDED(plaintext_length->ToInteger64(value, true))) {
self->output.size = value;
}
}
} else {
algorithm_id_length = encryption_method->GetLength();
}
if (NPT_StringsEqualN((const char*)(*encryption_method),
BLT_DCF_PARSER_ALGORITHM_ID_AES128CBC,
algorithm_id_length)) {
encryption_supported = true;
NPT_String* padding = NULL;
if (NPT_SUCCEEDED(encryption_params.Get("padding", padding))) {
if (*padding == BLT_DCF_PARSER_PADDING_RFC2630) {
encryption_supported = false; // hmmm, unknown padding
}
}
}
if (!encryption_supported) {
ATX_LOG_FINE_1("unsupported encryption format (%s)", encryption_method);
return BLT_ERROR_UNSUPPORTED_FORMAT;
}
/* read the IV */
AP4_UI08 iv[16];
result = ATX_InputStream_ReadFully(stream, iv, sizeof(iv));
if (BLT_FAILED(result)) return result;
/* create a byte stream to represent the encrypted data */
ATX_Size header_size = 3+content_type_length+content_uri_length+var_length_1+var_length_2+headers_length;
ATX_InputStream* data_stream = NULL;
ATX_SubInputStream_Create(stream,
header_size+16, // skip the IV
self->input.encrypted_size-16,
NULL,
&data_stream);
ATX_InputStream_To_AP4_ByteStream_Adapter* encrypted_stream =
new ATX_InputStream_To_AP4_ByteStream_Adapter(data_stream);
ATX_RELEASE_OBJECT(data_stream);
/* create a decrypting stream for the content */ // FIXME: temporary
AP4_ByteStream* decrypting_stream = NULL;
result = AP4_DecryptingStream::Create(AP4_BlockCipher::CBC,
*encrypted_stream,
self->output.size,
iv, 16,
key.GetData(),
key.GetDataSize(),
self->cipher_factory,
decrypting_stream);
encrypted_stream->Release();
if (AP4_FAILED(result)) return result;
/* create a reverse adapter */
result = AP4_ByteStream_To_ATX_InputStream_Adapter_Create(decrypting_stream, &self->output.stream);
decrypting_stream->Release();
return BLT_SUCCESS;
}
/*----------------------------------------------------------------------
| OsxAudioUnitsOutput_MapDeviceIndex
+---------------------------------------------------------------------*/
static BLT_Result
OsxAudioUnitsOutput_MapDeviceName(const char* name, AudioDeviceID* device_id)
{
OSStatus err;
BLT_Result result = BLT_ERROR_NO_SUCH_DEVICE;
UInt32 prop_size = 0;
AudioDeviceID* devices = NULL;
unsigned int device_count = 0;
ATX_UInt32 device_index = 0;
unsigned int device_selector = 1;
char* device_name = NULL;
unsigned int i;
/* setup a default value */
*device_id = 0;
/* check the parameters */
if (name[0] == '\0') return BLT_ERROR_NO_SUCH_DEVICE;
/* parse the name */
if (name[0] == '#') {
++name;
ATX_LOG_FINE_1("device name = %s", name);
} else {
if (BLT_FAILED(ATX_ParseInteger32U(name, &device_index, ATX_FALSE))) {
return BLT_ERROR_NO_SUCH_DEVICE;
}
ATX_LOG_FINE_1("device index = %d", device_index);
name = NULL;
/* 0 means default */
if (device_index == 0) {
/* look at the device's streams */
AudioDeviceID default_device_id = 0;
prop_size = sizeof(AudioDeviceID);
err = AudioHardwareGetProperty(kAudioHardwarePropertyDefaultOutputDevice, &prop_size, &default_device_id);
if (err == noErr) {
prop_size = 0;
err = AudioDeviceGetPropertyInfo(default_device_id, 0, FALSE, kAudioDevicePropertyStreams, &prop_size, NULL);
if (err == noErr) {
ATX_LOG_FINE_1("device has %d streams", (int)prop_size/4);
}
}
return BLT_SUCCESS;
}
}
/* ask how many devices exist */
err = AudioHardwareGetPropertyInfo(kAudioHardwarePropertyDevices, &prop_size, NULL);
if (err != noErr) {
ATX_LOG_FINE_1("AudioHardwareGetPropertyInfo failed (%d)", (int)err);
return 0;
}
device_count = prop_size/sizeof(AudioDeviceID);
ATX_LOG_FINE_1("found %d devices", device_count);
/* allocate memory for the array */
devices = (AudioDeviceID*)ATX_AllocateZeroMemory(sizeof(AudioDeviceID) * device_count);
if (devices == NULL) return 0;
/* retrieve the list of device IDs */
err = AudioHardwareGetProperty(kAudioHardwarePropertyDevices, &prop_size, devices);
if (err != noErr) {
ATX_LOG_FINE_1("AudioHardwareGetProperty(kAudioHardwarePropertyDevices) failed (%d)", (int)err);
return 0;
}
/* find the device ID we want */
for (i=0; i<device_count; i++) {
/* get the device name */
err = AudioDeviceGetPropertyInfo(devices[i], 0, false,
kAudioDevicePropertyDeviceName,
&prop_size, NULL);
if (err == noErr) {
if (device_name) ATX_FreeMemory(device_name);
device_name = (char*)ATX_AllocateZeroMemory(prop_size+1);
err = AudioDeviceGetProperty(devices[i], 0, false,
kAudioDevicePropertyDeviceName,
&prop_size, device_name);
if (err == noErr) {
ATX_LOG_FINE_2("device name [%d] = %s", i, device_name);
}
/* cleanup the string */
device_name[prop_size] = '\0'; /* NULL-terminate the string */
if (prop_size > 0) {
unsigned int x;
for (x=prop_size-1; x; x--) {
if (device_name[x] == ' ') {
device_name[x] = '\0';
} else if (device_name[x]) {
break;
}
}
}
} else {
continue;
}
/* look at the device's streams */
prop_size = 0;
err = AudioDeviceGetPropertyInfo(devices[i], 0, FALSE, kAudioDevicePropertyStreams, &prop_size, NULL);
if (err != noErr || prop_size == 0) {
ATX_LOG_FINE("skipping device (not an output)");
continue;
}
if (name) {
/* look for a match by name */
if (ATX_StringsEqual(device_name, name)) {
*device_id = devices[i];
ATX_LOG_FINE("device selected as output");
result = BLT_SUCCESS;
break;
}
} else {
/* look for a match by index */
if (device_selector++ == device_index) {
*device_id = devices[i];
ATX_LOG_FINE("device selected as output");
result = BLT_SUCCESS;
break;
}
}
}
if (device_name) ATX_FreeMemory(device_name);
if (devices) ATX_FreeMemory(devices);
return result;
}