#include "aja-card-manager.hpp" #include "aja-common.hpp" #include "aja-routing.hpp" #include "aja-widget-io.hpp" // Signal routing crosspoint and register setting tables for SDI/HDMI/etc. #include "routing/hdmi_rgb_capture.h" #include "routing/hdmi_rgb_display.h" #include "routing/hdmi_ycbcr_capture.h" #include "routing/hdmi_ycbcr_display.h" #include "routing/sdi_ycbcr_capture.h" #include "routing/sdi_ycbcr_display.h" #include "routing/sdi_rgb_capture.h" #include "routing/sdi_rgb_display.h" #include #include #include #include RasterDefinition GetRasterDefinition(IOSelection io, NTV2VideoFormat vf, NTV2DeviceID deviceID) { RasterDefinition def = RasterDefinition::Unknown; if (NTV2_IS_SD_VIDEO_FORMAT(vf)) { def = RasterDefinition::SD; } else if (NTV2_IS_HD_VIDEO_FORMAT(vf)) { def = RasterDefinition::HD; } else if (NTV2_IS_QUAD_FRAME_FORMAT(vf)) { def = RasterDefinition::UHD_4K; /* NOTE(paulh): Special enum for Kona5 Retail & IO4K+ firmwares which route UHD/4K formats * over 1x 6G/12G SDI using an undocumented crosspoint config. */ if (aja::IsSDIOneWireIOSelection(io) && aja::IsRetailSDI12G(deviceID)) def = RasterDefinition::UHD_4K_Retail_12G; } else if (NTV2_IS_QUAD_QUAD_FORMAT(vf)) { def = RasterDefinition::UHD2_8K; } else { def = RasterDefinition::Unknown; } return def; } #define NTV2UTILS_ENUM_CASE_RETURN_STR(enum_name) \ case (enum_name): \ return #enum_name std::string RasterDefinitionToString(RasterDefinition rd) { std::string str = ""; switch (rd) { NTV2UTILS_ENUM_CASE_RETURN_STR(RasterDefinition::SD); NTV2UTILS_ENUM_CASE_RETURN_STR(RasterDefinition::HD); NTV2UTILS_ENUM_CASE_RETURN_STR(RasterDefinition::UHD_4K); NTV2UTILS_ENUM_CASE_RETURN_STR(RasterDefinition::UHD2_8K); NTV2UTILS_ENUM_CASE_RETURN_STR(RasterDefinition::Unknown); } return str; } /* * Parse the widget routing shorthand string into a map of input and output NTV2CrosspointIDs. * For example "sdi[0][0]->fb[0][0]" is shorthand for connecting the output crosspoint for * SDI1/Datastream1 (NTV2_XptSDIIn1) to the input crosspoint for Framestore1/Datastream1 (NTV2_XptFrameBuffer1Input). * These routing shorthand strings are found within the RoutingConfig structs in the "routing" sub-directory of the plugin. */ bool Routing::ParseRouteString(const std::string &route, NTV2XptConnections &cnx) { blog(LOG_DEBUG, "aja::Routing::ParseRouteString: Input string: %s", route.c_str()); std::string route_lower(route); route_lower = aja::lower(route_lower); const std::string &route_strip = aja::replace(route_lower, " ", ""); if (route_strip.empty()) { blog(LOG_DEBUG, "Routing::ParseRouteString: input string is empty!"); return false; } /* TODO(paulh): Tally up the lines and tokens and check that they are all parsed OK. * Right now we just return true if ANY tokens were parsed. This is OK _for now_ because * the route strings currently only come from a known set. */ NTV2StringList lines; lines = aja::split(route_strip, ';'); if (lines.empty()) lines.push_back(route_strip); int32_t parse_ok = 0; for (const auto &l : lines) { if (l.empty()) { blog(LOG_DEBUG, "aja::Routing::ParseRouteString: Empty line!"); continue; } blog(LOG_DEBUG, "aja::Routing::ParseRouteString: Line: %s", l.c_str()); NTV2StringList tokens = aja::split(l, "->"); if (tokens.empty() || tokens.size() != 2) { blog(LOG_DEBUG, "aja::Routing::ParseRouteString: Invalid token count!"); continue; } const std::string &left = tokens[0]; // output crosspoint const std::string &right = tokens[1]; // input crosspoint if (left.empty() || left.length() > 64) { blog(LOG_DEBUG, "aja::Routing::ParseRouteString: Invalid Left token!"); continue; } if (right.empty() || right.length() > 64) { blog(LOG_DEBUG, "aja::Routing::ParseRouteString: Invalid right token!"); continue; } blog(LOG_DEBUG, "aja::Routing::ParseRouteString: Left Token: %s -> Right Token: %s", left.c_str(), right.c_str()); // Parse Output Crosspoint from left token int32_t out_chan = 0; int32_t out_ds = 0; std::string out_name(64, ' '); if (std::sscanf(left.c_str(), "%[A-Za-z_0-9][%d][%d]", &out_name[0], &out_chan, &out_ds)) { out_name = aja::rstrip(out_name).substr( 0, out_name.find_first_of('\0')); WidgetOutputSocket widget_out; if (WidgetOutputSocket::Find(out_name, (NTV2Channel)out_chan, out_ds, widget_out)) { blog(LOG_DEBUG, "aja::Routing::ParseRouteString: Found NTV2OutputCrosspointID %s", NTV2OutputCrosspointIDToString( widget_out.id) .c_str()); // Parse Input Crosspoint from right token int32_t inp_chan = 0; int32_t inp_ds = 0; std::string inp_name(64, ' '); if (std::sscanf(right.c_str(), "%[A-Za-z_0-9][%d][%d]", &inp_name[0], &inp_chan, &inp_ds)) { inp_name = aja::rstrip(inp_name).substr( 0, inp_name.find_first_of('\0')); WidgetInputSocket widget_inp; if (WidgetInputSocket::Find( inp_name, (NTV2Channel)inp_chan, inp_ds, widget_inp)) { blog(LOG_DEBUG, "aja::Routing::ParseRouteString: Found NTV2InputCrosspointID %s", NTV2InputCrosspointIDToString( widget_inp.id) .c_str()); cnx[widget_inp.id] = widget_out.id; parse_ok++; } else { blog(LOG_DEBUG, "aja::Routing::ParseRouteString: NTV2InputCrosspointID not found!"); } } } else { blog(LOG_DEBUG, "aja::Routing::ParseRouteString: NTV2OutputCrosspointID not found!"); } } } return parse_ok > 0; } // Determine the appropriate SDIWireFormat based on the specified device ID and VPID specification. bool Routing::DetermineSDIWireFormat(NTV2DeviceID deviceID, VPIDSpec spec, SDIWireFormat &swf) { if (deviceID == DEVICE_ID_KONA5 || deviceID == DEVICE_ID_IO4KPLUS) { static const std::vector kRetail6GVpidStandards = { VPIDStandard_2160_Single_6Gb, VPIDStandard_1080_Single_6Gb, VPIDStandard_1080_AFR_Single_6Gb, }; static const std::vector kRetail12GVpidStandards = {VPIDStandard_2160_Single_12Gb, VPIDStandard_1080_10_12_AFR_Single_12Gb}; if (spec.first == RasterDefinition::UHD_4K && aja::vec_contains(kRetail6GVpidStandards, spec.second)) { swf = SDIWireFormat:: UHD4K_ST2018_6G_Squares_2SI_Kona5_io4KPlus; return true; } else if (spec.first == RasterDefinition::UHD_4K && aja::vec_contains( kRetail12GVpidStandards, spec.second)) { swf = SDIWireFormat:: UHD4K_ST2018_12G_Squares_2SI_Kona5_io4KPlus; return true; } else { if (kSDIWireFormats.find(spec) != kSDIWireFormats.end()) { swf = kSDIWireFormats.at(spec); return true; } } } else { if (kSDIWireFormats.find(spec) != kSDIWireFormats.end()) { swf = kSDIWireFormats.at(spec); return true; } } return false; } // Lookup configuration for HDMI input/output in the routing table. bool Routing::FindRoutingConfigHDMI(HDMIWireFormat hwf, NTV2Mode mode, bool isRGB, NTV2DeviceID deviceID, RoutingConfig &routing) { if (isRGB) { if (mode == NTV2_MODE_CAPTURE) { if (kHDMIRGBCaptureConfigs.find(hwf) != kHDMIRGBCaptureConfigs.end()) { routing = kHDMIRGBCaptureConfigs.at(hwf); return true; } } else { if (deviceID == DEVICE_ID_TTAP_PRO) { routing = kHDMIRGBDisplayConfigs.at( HDMIWireFormat::TTAP_PRO); return true; } if (kHDMIRGBDisplayConfigs.find(hwf) != kHDMIRGBDisplayConfigs.end()) { routing = kHDMIRGBDisplayConfigs.at(hwf); return true; } } } else { if (mode == NTV2_MODE_CAPTURE) { if (kHDMIYCbCrCaptureConfigs.find(hwf) != kHDMIYCbCrCaptureConfigs.end()) { routing = kHDMIYCbCrCaptureConfigs.at(hwf); return true; } } else { if (kHDMIYCbCrDisplayConfigs.find(hwf) != kHDMIYCbCrDisplayConfigs.end()) { routing = kHDMIYCbCrDisplayConfigs.at(hwf); return true; } } } return false; } // Lookup configuration for SDI input/output in the routing table. bool Routing::FindRoutingConfigSDI(SDIWireFormat swf, NTV2Mode mode, bool isRGB, NTV2DeviceID deviceID, RoutingConfig &routing) { UNUSED_PARAMETER(deviceID); if (isRGB) { if (mode == NTV2_MODE_CAPTURE) { if (kSDIRGBCaptureConfigs.find(swf) != kSDIRGBCaptureConfigs.end()) { routing = kSDIRGBCaptureConfigs.at(swf); return true; } } else if (mode == NTV2_MODE_DISPLAY) { if (kSDIRGBDisplayConfigs.find(swf) != kSDIRGBDisplayConfigs.end()) { routing = kSDIRGBDisplayConfigs.at(swf); return true; } } } else { if (mode == NTV2_MODE_CAPTURE) { if (kSDIYCbCrCaptureConfigs.find(swf) != kSDIYCbCrCaptureConfigs.end()) { routing = kSDIYCbCrCaptureConfigs.at(swf); return true; } } else if (mode == NTV2_MODE_DISPLAY) { if (kSDIYCbCrDisplayConfigs.find(swf) != kSDIYCbCrDisplayConfigs.end()) { routing = kSDIYCbCrDisplayConfigs.at(swf); return true; } } } return false; } void Routing::StartSourceAudio(const SourceProps &props, CNTV2Card *card) { if (!card) return; auto inputSrc = props.inputSource; auto channel = props.Channel(); auto audioSys = props.AudioSystem(); card->WriteAudioSource(0, channel); card->SetAudioSystemInputSource( audioSys, NTV2InputSourceToAudioSource(inputSrc), NTV2InputSourceToEmbeddedAudioInput(inputSrc)); card->SetNumberAudioChannels(props.audioNumChannels, audioSys); card->SetAudioRate(props.AudioRate(), audioSys); card->SetAudioBufferSize(NTV2_AUDIO_BUFFER_BIG, audioSys); // Fix for AJA NTV2 internal bug #11467 ULWord magicAudioBits = 0; if (NTV2_INPUT_SOURCE_IS_HDMI(inputSrc)) { switch (inputSrc) { default: case NTV2_INPUTSOURCE_HDMI1: magicAudioBits = 0x00100000; break; case NTV2_INPUTSOURCE_HDMI2: magicAudioBits = 0x00110000; break; case NTV2_INPUTSOURCE_HDMI3: magicAudioBits = 0x00900000; break; case NTV2_INPUTSOURCE_HDMI4: magicAudioBits = 0x00910000; break; } } else if (NTV2_INPUT_SOURCE_IS_ANALOG(inputSrc)) { magicAudioBits = 0x00000990; } else { // SDI magicAudioBits = 0x00000320; } // TODO(paulh): Ask aja-seanl about these deprecated calls and if they are still needed ULWord oldValue = 0; if (card->ReadAudioSource(oldValue, channel)) { card->WriteAudioSource(oldValue | magicAudioBits, channel); } for (int a = 0; a < NTV2DeviceGetNumAudioSystems(card->GetDeviceID()); a++) { card->SetAudioLoopBack(NTV2_AUDIO_LOOPBACK_OFF, NTV2AudioSystem(a)); } card->StartAudioInput(audioSys); card->SetAudioCaptureEnable(audioSys, true); } void Routing::StopSourceAudio(const SourceProps &props, CNTV2Card *card) { if (card) { auto audioSys = props.AudioSystem(); card->SetAudioCaptureEnable(audioSys, false); card->StopAudioInput(audioSys); } } // Guess an SDIWireFormat based on specified Video Format, IOSelection, 4K Transport and device ID. SDIWireFormat GuessSDIWireFormat(NTV2VideoFormat vf, IOSelection io, SDI4KTransport t4k, NTV2DeviceID device_id = DEVICE_ID_NOTFOUND) { auto rd = GetRasterDefinition(io, vf, device_id); auto fg = GetNTV2FrameGeometryFromVideoFormat(vf); SDIWireFormat swf = SDIWireFormat::Unknown; if (rd == RasterDefinition::SD) { swf = SDIWireFormat::SD_ST352; } else if (rd == RasterDefinition::HD) { if (fg == NTV2_FG_1280x720) { swf = SDIWireFormat::HD_720p_ST292; } else if (fg == NTV2_FG_1920x1080 || fg == NTV2_FG_2048x1080) { swf = SDIWireFormat::HD_1080_ST292; } } else if (rd == RasterDefinition::UHD_4K) { if (t4k == SDI4KTransport::Squares) { if (aja::IsSDIFourWireIOSelection(io)) { swf = SDIWireFormat::UHD4K_ST292_Quad_1_5_Squares; } else if (aja::IsSDITwoWireIOSelection(io)) { swf = SDIWireFormat::UHD4K_ST292_Dual_1_5_Squares; } } else if (t4k == SDI4KTransport::TwoSampleInterleave) { if (aja::IsSDIOneWireIOSelection(io)) { if (NTV2_IS_4K_HFR_VIDEO_FORMAT(vf)) { if (aja::IsRetailSDI12G(device_id)) { swf = SDIWireFormat:: UHD4K_ST2018_12G_Squares_2SI_Kona5_io4KPlus; } else { swf = SDIWireFormat:: UHD4K_ST2018_12G_Squares_2SI; } } else { if (aja::IsRetailSDI12G(device_id)) { swf = SDIWireFormat:: UHD4K_ST2018_6G_Squares_2SI_Kona5_io4KPlus; } else { swf = SDIWireFormat:: UHD4K_ST2018_6G_Squares_2SI; } } } else if (aja::IsSDITwoWireIOSelection(io)) { swf = SDIWireFormat::UHD4K_ST425_Dual_3Gb_2SI; } else if (aja::IsSDIFourWireIOSelection(io)) { swf = SDIWireFormat::UHD4K_ST425_Quad_3Gb_2SI; } } } return swf; } bool Routing::ConfigureSourceRoute(const SourceProps &props, NTV2Mode mode, CNTV2Card *card) { if (!card) return false; auto deviceID = props.deviceID; NTV2VideoFormat vf = props.videoFormat; if (NTV2_VIDEO_FORMAT_IS_B(props.videoFormat)) { vf = aja::GetLevelAFormatForLevelBFormat(props.videoFormat); } NTV2InputSourceSet inputSources; aja::IOSelectionToInputSources(props.ioSelect, inputSources); if (inputSources.empty()) { blog(LOG_DEBUG, "No Input Sources specified to configure routing!"); return false; } auto init_src = *inputSources.begin(); auto init_channel = NTV2InputSourceToChannel(init_src); RoutingConfig rc; if (NTV2_INPUT_SOURCE_IS_SDI(init_src)) { SDIWireFormat swf = SDIWireFormat::Unknown; auto standard = VPIDStandard_Unknown; auto vpidList = props.vpids; if (vpidList.size() > 0) standard = vpidList.at(0).Standard(); if (standard != VPIDStandard_Unknown) { // Determine SDI format based on raster "definition" and VPID byte 1 value (AKA SMPTE standard) auto rasterDef = GetRasterDefinition(props.ioSelect, vf, props.deviceID); VPIDSpec vpidSpec = std::make_pair(rasterDef, standard); DetermineSDIWireFormat(deviceID, vpidSpec, swf); } else { // Best guess SDI format from incoming video format if no VPIDs detected swf = GuessSDIWireFormat(vf, props.ioSelect, props.sdi4kTransport, props.deviceID); } if (swf == SDIWireFormat::Unknown) { blog(LOG_DEBUG, "Could not determine SDI Wire Format!"); return false; } if (!FindRoutingConfigSDI(swf, mode, NTV2_IS_FBF_RGB(props.pixelFormat), props.deviceID, rc)) { blog(LOG_DEBUG, "Could not find RoutingConfig for SDI Wire Format!"); return false; } } else if (NTV2_INPUT_SOURCE_IS_HDMI(init_src)) { HDMIWireFormat hwf = HDMIWireFormat::Unknown; if (NTV2_IS_FBF_RGB(props.pixelFormat)) { if (NTV2_IS_HD_VIDEO_FORMAT(vf)) hwf = HDMIWireFormat::HD_RGB_LFR; } else { if (NTV2_IS_HD_VIDEO_FORMAT(vf)) hwf = HDMIWireFormat::HD_YCBCR_LFR; else if (NTV2_IS_4K_VIDEO_FORMAT(vf)) hwf = HDMIWireFormat::UHD_4K_YCBCR_LFR; } if (!FindRoutingConfigHDMI(hwf, mode, NTV2_IS_FBF_RGB(props.pixelFormat), props.deviceID, rc)) { blog(LOG_DEBUG, "Could not find RoutingConfig for HDMI Wire Format!"); return false; } } // Substitute channel placeholders for actual indices std::string route_string = rc.route_string; ULWord start_channel_index = GetIndexForNTV2Channel(init_channel); for (ULWord c = 0; c < 8; c++) { std::string channel_placeholder = std::string("{ch" + aja::to_string(c + 1) + "}"); route_string = aja::replace(route_string, channel_placeholder, aja::to_string(start_channel_index++)); } NTV2XptConnections cnx; ParseRouteString(route_string, cnx); card->ApplySignalRoute(cnx, false); // Apply SDI widget settings start_channel_index = GetIndexForNTV2Channel(init_channel); for (uint32_t i = (uint32_t)start_channel_index; i < (start_channel_index + rc.num_wires); i++) { NTV2Channel channel = GetNTV2ChannelForIndex(i); if (::NTV2DeviceHasBiDirectionalSDI(deviceID)) { card->SetSDITransmitEnable(channel, mode == NTV2_MODE_DISPLAY); } card->SetSDIOut3GEnable(channel, rc.enable_3g_out); card->SetSDIOut3GbEnable(channel, rc.enable_3gb_out); card->SetSDIOut6GEnable(channel, rc.enable_6g_out); card->SetSDIOut12GEnable(channel, rc.enable_12g_out); card->SetSDIInLevelBtoLevelAConversion((UWord)i, rc.convert_3g_in); card->SetSDIOutLevelAtoLevelBConversion((UWord)i, rc.convert_3g_out); card->SetSDIOutRGBLevelAConversion((UWord)i, rc.enable_rgb_3ga_convert); } // Apply Framestore settings for (uint32_t i = (uint32_t)start_channel_index; i < (start_channel_index + rc.num_framestores); i++) { NTV2Channel channel = GetNTV2ChannelForIndex(i); card->EnableChannel(channel); card->SetMode(channel, mode); card->SetVANCMode(NTV2_VANCMODE_OFF, channel); card->SetVideoFormat(vf, false, false, channel); card->SetFrameBufferFormat(channel, props.pixelFormat); card->SetTsiFrameEnable(rc.enable_tsi, channel); card->Set4kSquaresEnable(rc.enable_4k_squares, channel); card->SetQuadQuadSquaresEnable(rc.enable_8k_squares, channel); } return true; } bool Routing::ConfigureOutputRoute(const OutputProps &props, NTV2Mode mode, CNTV2Card *card) { if (!card) return false; auto deviceID = props.deviceID; NTV2OutputDestinations outputDests; aja::IOSelectionToOutputDests(props.ioSelect, outputDests); if (outputDests.empty()) { blog(LOG_DEBUG, "No Output Destinations specified to configure routing!"); return false; } auto init_dest = *outputDests.begin(); auto init_channel = NTV2OutputDestinationToChannel(init_dest); RoutingConfig rc; if (NTV2_OUTPUT_DEST_IS_SDI(init_dest)) { SDIWireFormat swf = GuessSDIWireFormat(props.videoFormat, props.ioSelect, props.sdi4kTransport, props.deviceID); if (swf == SDIWireFormat::Unknown) { blog(LOG_DEBUG, "Could not determine SDI Wire Format!"); return false; } if (!FindRoutingConfigSDI(swf, mode, NTV2_IS_FBF_RGB(props.pixelFormat), props.deviceID, rc)) { blog(LOG_DEBUG, "Could not find RoutingConfig for SDI Wire Format!"); return false; } } else if (NTV2_OUTPUT_DEST_IS_HDMI(init_dest)) { HDMIWireFormat hwf = HDMIWireFormat::Unknown; // special case devices... if (props.deviceID == DEVICE_ID_TTAP_PRO) { hwf = HDMIWireFormat::TTAP_PRO; } else { // ...all other devices. if (NTV2_IS_FBF_RGB(props.pixelFormat)) { if (NTV2_IS_HD_VIDEO_FORMAT(props.videoFormat)) hwf = HDMIWireFormat::HD_RGB_LFR; } else { if (NTV2_IS_HD_VIDEO_FORMAT( props.videoFormat)) { hwf = HDMIWireFormat::HD_YCBCR_LFR; } else if (NTV2_IS_4K_VIDEO_FORMAT( props.videoFormat)) { hwf = HDMIWireFormat::UHD_4K_YCBCR_LFR; } } } if (!FindRoutingConfigHDMI(hwf, mode, NTV2_IS_FBF_RGB(props.pixelFormat), props.deviceID, rc)) { blog(LOG_DEBUG, "Could not find RoutingConfig for HDMI Wire Format!"); return false; } } std::string route_string = rc.route_string; // Replace framestore channel placeholders ULWord start_framestore_index = initial_framestore_output_index( deviceID, props.ioSelect, init_channel); for (ULWord c = 0; c < NTV2_MAX_NUM_CHANNELS; c++) { std::string fs_channel_placeholder = std::string("fb[{ch" + aja::to_string(c + 1) + "}]"); route_string = aja::replace( route_string, fs_channel_placeholder, "fb[" + aja::to_string(start_framestore_index++) + "]"); } // Replace other channel placeholders ULWord start_channel_index = GetIndexForNTV2Channel(init_channel); for (ULWord c = 0; c < NTV2_MAX_NUM_CHANNELS; c++) { std::string channel_placeholder = std::string("{ch" + aja::to_string(c + 1) + "}"); route_string = aja::replace(route_string, channel_placeholder, aja::to_string(start_channel_index++)); } NTV2XptConnections cnx; ParseRouteString(route_string, cnx); card->ApplySignalRoute(cnx, false); // Apply SDI widget settings if (props.ioSelect != IOSelection::HDMIMonitorOut) { start_channel_index = GetIndexForNTV2Channel(init_channel); for (uint32_t i = (uint32_t)start_channel_index; i < (start_channel_index + rc.num_wires); i++) { NTV2Channel channel = GetNTV2ChannelForIndex(i); if (::NTV2DeviceHasBiDirectionalSDI(deviceID)) { card->SetSDITransmitEnable( channel, mode == NTV2_MODE_DISPLAY); } card->SetSDIOut3GEnable(channel, rc.enable_3g_out); card->SetSDIOut3GbEnable(channel, rc.enable_3gb_out); card->SetSDIOut6GEnable(channel, rc.enable_6g_out); card->SetSDIOut12GEnable(channel, rc.enable_12g_out); card->SetSDIInLevelBtoLevelAConversion( (UWord)i, rc.convert_3g_in); card->SetSDIOutLevelAtoLevelBConversion( (UWord)i, rc.convert_3g_out); card->SetSDIOutRGBLevelAConversion( (UWord)i, rc.enable_rgb_3ga_convert); } } // Apply Framestore settings start_framestore_index = initial_framestore_output_index( deviceID, props.ioSelect, init_channel); for (uint32_t i = (uint32_t)start_framestore_index; i < (start_framestore_index + rc.num_framestores); i++) { NTV2Channel channel = GetNTV2ChannelForIndex(i); card->EnableChannel(channel); card->SetMode(channel, mode); card->SetVANCMode(NTV2_VANCMODE_OFF, channel); card->SetVideoFormat(props.videoFormat, false, false, channel); card->SetFrameBufferFormat(channel, props.pixelFormat); card->SetTsiFrameEnable(rc.enable_tsi, channel); card->Set4kSquaresEnable(rc.enable_4k_squares, channel); card->SetQuadQuadSquaresEnable(rc.enable_8k_squares, channel); } return true; } ULWord Routing::initial_framestore_output_index(NTV2DeviceID deviceID, IOSelection io, NTV2Channel init_channel) { if (deviceID == DEVICE_ID_TTAP_PRO) { return 0; } else if (deviceID == DEVICE_ID_KONA1) { return 1; } else if (deviceID == DEVICE_ID_IO4K || deviceID == DEVICE_ID_IO4KPLUS) { // SDI Monitor output uses framestore 4 if (io == IOSelection::SDI5) return 3; } // HDMI Monitor output uses framestore 4 if (io == IOSelection::HDMIMonitorOut) { return 3; } return GetIndexForNTV2Channel(init_channel); } // Output Routing void Routing::ConfigureOutputAudio(const OutputProps &props, CNTV2Card *card) { if (!card) return; auto deviceID = card->GetDeviceID(); auto audioSys = props.AudioSystem(); auto channel = props.Channel(); card->SetNumberAudioChannels(props.audioNumChannels, audioSys); card->SetAudioRate(props.AudioRate(), audioSys); card->SetAudioBufferSize(NTV2_AUDIO_BUFFER_BIG, audioSys); card->SetAudioOutputDelay(audioSys, 0); card->SetSDIOutputAudioSystem(channel, audioSys); card->SetSDIOutputDS2AudioSystem(channel, audioSys); /* NOTE(paulh): * The SDK has a specifies an SDI audio system by Channel rather than by SDI output * and certain devices require setting the SDI audio system to NTV2_CHANNEL1. * i.e. * SDI 1 = NTV2_CHANNEL1 * SDI 2 = NTV2_CHANNEL2 * ... * SDI 5/Monitor = NTV2_CHANNEL5 * etc... * * This fixes AJA internal bugs: 10730, 10986, 16274 */ if (deviceID == DEVICE_ID_IOXT || deviceID == DEVICE_ID_IO4KUFC || deviceID == DEVICE_ID_IO4KPLUS || deviceID == DEVICE_ID_KONA1 || deviceID == DEVICE_ID_KONA3G || deviceID == DEVICE_ID_KONA4UFC || deviceID == DEVICE_ID_KONA5 || deviceID == DEVICE_ID_KONA5_2X4K) { // Make sure SDI out 1 (aka Channel 1) is set to the correct sub-system card->SetSDIOutputAudioSystem(NTV2_CHANNEL1, audioSys); card->SetSDIOutputDS2AudioSystem(NTV2_CHANNEL1, audioSys); } // make sure that audio is setup for the SDI monitor output on devices that support it if (NTV2DeviceCanDoWidget(deviceID, NTV2_WgtSDIMonOut1)) { card->SetSDIOutputAudioSystem(NTV2_CHANNEL5, audioSys); card->SetSDIOutputDS2AudioSystem(NTV2_CHANNEL5, audioSys); } card->SetHDMIOutAudioRate(props.AudioRate()); card->SetHDMIOutAudioFormat(NTV2_AUDIO_FORMAT_LPCM); card->SetAudioOutputMonitorSource(NTV2_AudioChannel1_2, channel); card->SetAESOutputSource(NTV2_AudioChannel1_4, audioSys, NTV2_AudioChannel1_4); card->SetAESOutputSource(NTV2_AudioChannel5_8, audioSys, NTV2_AudioChannel5_8); card->SetAESOutputSource(NTV2_AudioChannel9_12, audioSys, NTV2_AudioChannel9_12); card->SetAESOutputSource(NTV2_AudioChannel13_16, audioSys, NTV2_AudioChannel13_16); // make sure that audio is setup for HDMI output on devices that support it if (NTV2DeviceGetNumHDMIVideoOutputs(deviceID) > 0) { if (NTV2DeviceCanDoAudioMixer(deviceID)) { card->SetAudioMixerInputAudioSystem( NTV2_AudioMixerInputMain, audioSys); card->SetAudioMixerInputChannelSelect( NTV2_AudioMixerInputMain, NTV2_AudioChannel1_2); card->SetAudioMixerInputChannelsMute( NTV2_AudioMixerInputAux1, NTV2AudioChannelsMuteAll); card->SetAudioMixerInputChannelsMute( NTV2_AudioMixerInputAux2, NTV2AudioChannelsMuteAll); } card->SetHDMIOutAudioChannels(NTV2_HDMIAudio8Channels); card->SetHDMIOutAudioSource2Channel(NTV2_AudioChannel1_2, audioSys); card->SetHDMIOutAudioSource8Channel(NTV2_AudioChannel1_8, audioSys); } card->SetAudioLoopBack(NTV2_AUDIO_LOOPBACK_OFF, audioSys); card->StopAudioOutput(audioSys); }