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Diffstat (limited to 'src/ipa/raspberrypi/raspberrypi.cpp')
-rw-r--r--src/ipa/raspberrypi/raspberrypi.cpp272
1 files changed, 136 insertions, 136 deletions
diff --git a/src/ipa/raspberrypi/raspberrypi.cpp b/src/ipa/raspberrypi/raspberrypi.cpp
index c7492a77..f315ebcd 100644
--- a/src/ipa/raspberrypi/raspberrypi.cpp
+++ b/src/ipa/raspberrypi/raspberrypi.cpp
@@ -208,7 +208,7 @@ int IPARPi::init(const IPASettings &settings, IPAInitResult *result)
* that the kernel driver doesn't. We only do this the first time; we don't need
* to re-parse the metadata after a simple mode-switch for no reason.
*/
- helper_ = std::unique_ptr<RPiController::CamHelper>(RPiController::CamHelper::Create(settings.sensorModel));
+ helper_ = std::unique_ptr<RPiController::CamHelper>(RPiController::CamHelper::create(settings.sensorModel));
if (!helper_) {
LOG(IPARPI, Error) << "Could not create camera helper for "
<< settings.sensorModel;
@@ -220,8 +220,8 @@ int IPARPi::init(const IPASettings &settings, IPAInitResult *result)
* to setup the staggered writer class.
*/
int gainDelay, exposureDelay, vblankDelay, sensorMetadata;
- helper_->GetDelays(exposureDelay, gainDelay, vblankDelay);
- sensorMetadata = helper_->SensorEmbeddedDataPresent();
+ helper_->getDelays(exposureDelay, gainDelay, vblankDelay);
+ sensorMetadata = helper_->sensorEmbeddedDataPresent();
result->sensorConfig.gainDelay = gainDelay;
result->sensorConfig.exposureDelay = exposureDelay;
@@ -229,8 +229,8 @@ int IPARPi::init(const IPASettings &settings, IPAInitResult *result)
result->sensorConfig.sensorMetadata = sensorMetadata;
/* Load the tuning file for this sensor. */
- controller_.Read(settings.configurationFile.c_str());
- controller_.Initialise();
+ controller_.read(settings.configurationFile.c_str());
+ controller_.initialise();
/* Return the controls handled by the IPA */
ControlInfoMap::Map ctrlMap = ipaControls;
@@ -249,15 +249,15 @@ void IPARPi::start(const ControlList &controls, StartConfig *startConfig)
queueRequest(controls);
}
- controller_.SwitchMode(mode_, &metadata);
+ controller_.switchMode(mode_, &metadata);
/* SwitchMode may supply updated exposure/gain values to use. */
AgcStatus agcStatus;
- agcStatus.shutter_time = 0.0s;
- agcStatus.analogue_gain = 0.0;
+ agcStatus.shutterTime = 0.0s;
+ agcStatus.analogueGain = 0.0;
- metadata.Get("agc.status", agcStatus);
- if (agcStatus.shutter_time && agcStatus.analogue_gain) {
+ metadata.get("agc.status", agcStatus);
+ if (agcStatus.shutterTime && agcStatus.analogueGain) {
ControlList ctrls(sensorCtrls_);
applyAGC(&agcStatus, ctrls);
startConfig->controls = std::move(ctrls);
@@ -271,8 +271,8 @@ void IPARPi::start(const ControlList &controls, StartConfig *startConfig)
frameCount_ = 0;
checkCount_ = 0;
if (firstStart_) {
- dropFrameCount_ = helper_->HideFramesStartup();
- mistrustCount_ = helper_->MistrustFramesStartup();
+ dropFrameCount_ = helper_->hideFramesStartup();
+ mistrustCount_ = helper_->mistrustFramesStartup();
/*
* Query the AGC/AWB for how many frames they may take to
@@ -283,18 +283,18 @@ void IPARPi::start(const ControlList &controls, StartConfig *startConfig)
*/
unsigned int agcConvergenceFrames = 0;
RPiController::AgcAlgorithm *agc = dynamic_cast<RPiController::AgcAlgorithm *>(
- controller_.GetAlgorithm("agc"));
+ controller_.getAlgorithm("agc"));
if (agc) {
- agcConvergenceFrames = agc->GetConvergenceFrames();
+ agcConvergenceFrames = agc->getConvergenceFrames();
if (agcConvergenceFrames)
agcConvergenceFrames += mistrustCount_;
}
unsigned int awbConvergenceFrames = 0;
RPiController::AwbAlgorithm *awb = dynamic_cast<RPiController::AwbAlgorithm *>(
- controller_.GetAlgorithm("awb"));
+ controller_.getAlgorithm("awb"));
if (awb) {
- awbConvergenceFrames = awb->GetConvergenceFrames();
+ awbConvergenceFrames = awb->getConvergenceFrames();
if (awbConvergenceFrames)
awbConvergenceFrames += mistrustCount_;
}
@@ -302,12 +302,12 @@ void IPARPi::start(const ControlList &controls, StartConfig *startConfig)
dropFrameCount_ = std::max({ dropFrameCount_, agcConvergenceFrames, awbConvergenceFrames });
LOG(IPARPI, Debug) << "Drop " << dropFrameCount_ << " frames on startup";
} else {
- dropFrameCount_ = helper_->HideFramesModeSwitch();
- mistrustCount_ = helper_->MistrustFramesModeSwitch();
+ dropFrameCount_ = helper_->hideFramesModeSwitch();
+ mistrustCount_ = helper_->mistrustFramesModeSwitch();
}
startConfig->dropFrameCount = dropFrameCount_;
- const Duration maxSensorFrameDuration = mode_.max_frame_length * mode_.line_length;
+ const Duration maxSensorFrameDuration = mode_.maxFrameLength * mode_.lineLength;
startConfig->maxSensorFrameLengthMs = maxSensorFrameDuration.get<std::milli>();
firstStart_ = false;
@@ -319,17 +319,17 @@ void IPARPi::setMode(const IPACameraSensorInfo &sensorInfo)
mode_.bitdepth = sensorInfo.bitsPerPixel;
mode_.width = sensorInfo.outputSize.width;
mode_.height = sensorInfo.outputSize.height;
- mode_.sensor_width = sensorInfo.activeAreaSize.width;
- mode_.sensor_height = sensorInfo.activeAreaSize.height;
- mode_.crop_x = sensorInfo.analogCrop.x;
- mode_.crop_y = sensorInfo.analogCrop.y;
+ mode_.sensorWidth = sensorInfo.activeAreaSize.width;
+ mode_.sensorHeight = sensorInfo.activeAreaSize.height;
+ mode_.cropX = sensorInfo.analogCrop.x;
+ mode_.cropY = sensorInfo.analogCrop.y;
/*
* Calculate scaling parameters. The scale_[xy] factors are determined
* by the ratio between the crop rectangle size and the output size.
*/
- mode_.scale_x = sensorInfo.analogCrop.width / sensorInfo.outputSize.width;
- mode_.scale_y = sensorInfo.analogCrop.height / sensorInfo.outputSize.height;
+ mode_.scaleX = sensorInfo.analogCrop.width / sensorInfo.outputSize.width;
+ mode_.scaleY = sensorInfo.analogCrop.height / sensorInfo.outputSize.height;
/*
* We're not told by the pipeline handler how scaling is split between
@@ -339,30 +339,30 @@ void IPARPi::setMode(const IPACameraSensorInfo &sensorInfo)
*
* \todo Get the pipeline handle to provide the full data
*/
- mode_.bin_x = std::min(2, static_cast<int>(mode_.scale_x));
- mode_.bin_y = std::min(2, static_cast<int>(mode_.scale_y));
+ mode_.binX = std::min(2, static_cast<int>(mode_.scaleX));
+ mode_.binY = std::min(2, static_cast<int>(mode_.scaleY));
/* The noise factor is the square root of the total binning factor. */
- mode_.noise_factor = sqrt(mode_.bin_x * mode_.bin_y);
+ mode_.noiseFactor = sqrt(mode_.binX * mode_.binY);
/*
* Calculate the line length as the ratio between the line length in
* pixels and the pixel rate.
*/
- mode_.line_length = sensorInfo.lineLength * (1.0s / sensorInfo.pixelRate);
+ mode_.lineLength = sensorInfo.lineLength * (1.0s / sensorInfo.pixelRate);
/*
* Set the frame length limits for the mode to ensure exposure and
* framerate calculations are clipped appropriately.
*/
- mode_.min_frame_length = sensorInfo.minFrameLength;
- mode_.max_frame_length = sensorInfo.maxFrameLength;
+ mode_.minFrameLength = sensorInfo.minFrameLength;
+ mode_.maxFrameLength = sensorInfo.maxFrameLength;
/*
* Some sensors may have different sensitivities in different modes;
* the CamHelper will know the correct value.
*/
- mode_.sensitivity = helper_->GetModeSensitivity(mode_);
+ mode_.sensitivity = helper_->getModeSensitivity(mode_);
}
int IPARPi::configure(const IPACameraSensorInfo &sensorInfo,
@@ -421,7 +421,7 @@ int IPARPi::configure(const IPACameraSensorInfo &sensorInfo,
}
/* Pass the camera mode to the CamHelper to setup algorithms. */
- helper_->SetCameraMode(mode_);
+ helper_->setCameraMode(mode_);
/*
* Initialise this ControlList correctly, even if empty, in case the IPA is
@@ -438,8 +438,8 @@ int IPARPi::configure(const IPACameraSensorInfo &sensorInfo,
/* Supply initial values for gain and exposure. */
AgcStatus agcStatus;
- agcStatus.shutter_time = defaultExposureTime;
- agcStatus.analogue_gain = defaultAnalogueGain;
+ agcStatus.shutterTime = defaultExposureTime;
+ agcStatus.analogueGain = defaultAnalogueGain;
applyAGC(&agcStatus, ctrls);
}
@@ -451,25 +451,25 @@ int IPARPi::configure(const IPACameraSensorInfo &sensorInfo,
* based on the current sensor mode.
*/
ControlInfoMap::Map ctrlMap = ipaControls;
- const Duration minSensorFrameDuration = mode_.min_frame_length * mode_.line_length;
- const Duration maxSensorFrameDuration = mode_.max_frame_length * mode_.line_length;
+ const Duration minSensorFrameDuration = mode_.minFrameLength * mode_.lineLength;
+ const Duration maxSensorFrameDuration = mode_.maxFrameLength * mode_.lineLength;
ctrlMap[&controls::FrameDurationLimits] =
ControlInfo(static_cast<int64_t>(minSensorFrameDuration.get<std::micro>()),
static_cast<int64_t>(maxSensorFrameDuration.get<std::micro>()));
ctrlMap[&controls::AnalogueGain] =
- ControlInfo(1.0f, static_cast<float>(helper_->Gain(maxSensorGainCode_)));
+ ControlInfo(1.0f, static_cast<float>(helper_->gain(maxSensorGainCode_)));
/*
* Calculate the max exposure limit from the frame duration limit as V4L2
* will limit the maximum control value based on the current VBLANK value.
*/
Duration maxShutter = Duration::max();
- helper_->GetVBlanking(maxShutter, minSensorFrameDuration, maxSensorFrameDuration);
+ helper_->getVBlanking(maxShutter, minSensorFrameDuration, maxSensorFrameDuration);
const uint32_t exposureMin = sensorCtrls_.at(V4L2_CID_EXPOSURE).min().get<int32_t>();
ctrlMap[&controls::ExposureTime] =
- ControlInfo(static_cast<int32_t>(helper_->Exposure(exposureMin).get<std::micro>()),
+ ControlInfo(static_cast<int32_t>(helper_->exposure(exposureMin).get<std::micro>()),
static_cast<int32_t>(maxShutter.get<std::micro>()));
result->controlInfo = ControlInfoMap(std::move(ctrlMap), controls::controls);
@@ -536,54 +536,54 @@ void IPARPi::reportMetadata()
* processed can be extracted and placed into the libcamera metadata
* buffer, where an application could query it.
*/
- DeviceStatus *deviceStatus = rpiMetadata_.GetLocked<DeviceStatus>("device.status");
+ DeviceStatus *deviceStatus = rpiMetadata_.getLocked<DeviceStatus>("device.status");
if (deviceStatus) {
libcameraMetadata_.set(controls::ExposureTime,
- deviceStatus->shutter_speed.get<std::micro>());
- libcameraMetadata_.set(controls::AnalogueGain, deviceStatus->analogue_gain);
+ deviceStatus->shutterSpeed.get<std::micro>());
+ libcameraMetadata_.set(controls::AnalogueGain, deviceStatus->analogueGain);
libcameraMetadata_.set(controls::FrameDuration,
- helper_->Exposure(deviceStatus->frame_length).get<std::micro>());
- if (deviceStatus->sensor_temperature)
- libcameraMetadata_.set(controls::SensorTemperature, *deviceStatus->sensor_temperature);
+ helper_->exposure(deviceStatus->frameLength).get<std::micro>());
+ if (deviceStatus->sensorTemperature)
+ libcameraMetadata_.set(controls::SensorTemperature, *deviceStatus->sensorTemperature);
}
- AgcStatus *agcStatus = rpiMetadata_.GetLocked<AgcStatus>("agc.status");
+ AgcStatus *agcStatus = rpiMetadata_.getLocked<AgcStatus>("agc.status");
if (agcStatus) {
libcameraMetadata_.set(controls::AeLocked, agcStatus->locked);
- libcameraMetadata_.set(controls::DigitalGain, agcStatus->digital_gain);
+ libcameraMetadata_.set(controls::DigitalGain, agcStatus->digitalGain);
}
- LuxStatus *luxStatus = rpiMetadata_.GetLocked<LuxStatus>("lux.status");
+ LuxStatus *luxStatus = rpiMetadata_.getLocked<LuxStatus>("lux.status");
if (luxStatus)
libcameraMetadata_.set(controls::Lux, luxStatus->lux);
- AwbStatus *awbStatus = rpiMetadata_.GetLocked<AwbStatus>("awb.status");
+ AwbStatus *awbStatus = rpiMetadata_.getLocked<AwbStatus>("awb.status");
if (awbStatus) {
- libcameraMetadata_.set(controls::ColourGains, { static_cast<float>(awbStatus->gain_r),
- static_cast<float>(awbStatus->gain_b) });
- libcameraMetadata_.set(controls::ColourTemperature, awbStatus->temperature_K);
+ libcameraMetadata_.set(controls::ColourGains, { static_cast<float>(awbStatus->gainR),
+ static_cast<float>(awbStatus->gainB) });
+ libcameraMetadata_.set(controls::ColourTemperature, awbStatus->temperatureK);
}
- BlackLevelStatus *blackLevelStatus = rpiMetadata_.GetLocked<BlackLevelStatus>("black_level.status");
+ BlackLevelStatus *blackLevelStatus = rpiMetadata_.getLocked<BlackLevelStatus>("black_level.status");
if (blackLevelStatus)
libcameraMetadata_.set(controls::SensorBlackLevels,
- { static_cast<int32_t>(blackLevelStatus->black_level_r),
- static_cast<int32_t>(blackLevelStatus->black_level_g),
- static_cast<int32_t>(blackLevelStatus->black_level_g),
- static_cast<int32_t>(blackLevelStatus->black_level_b) });
+ { static_cast<int32_t>(blackLevelStatus->blackLevelR),
+ static_cast<int32_t>(blackLevelStatus->blackLevelG),
+ static_cast<int32_t>(blackLevelStatus->blackLevelG),
+ static_cast<int32_t>(blackLevelStatus->blackLevelB) });
- FocusStatus *focusStatus = rpiMetadata_.GetLocked<FocusStatus>("focus.status");
+ FocusStatus *focusStatus = rpiMetadata_.getLocked<FocusStatus>("focus.status");
if (focusStatus && focusStatus->num == 12) {
/*
* We get a 4x3 grid of regions by default. Calculate the average
* FoM over the central two positions to give an overall scene FoM.
* This can change later if it is not deemed suitable.
*/
- int32_t focusFoM = (focusStatus->focus_measures[5] + focusStatus->focus_measures[6]) / 2;
+ int32_t focusFoM = (focusStatus->focusMeasures[5] + focusStatus->focusMeasures[6]) / 2;
libcameraMetadata_.set(controls::FocusFoM, focusFoM);
}
- CcmStatus *ccmStatus = rpiMetadata_.GetLocked<CcmStatus>("ccm.status");
+ CcmStatus *ccmStatus = rpiMetadata_.getLocked<CcmStatus>("ccm.status");
if (ccmStatus) {
float m[9];
for (unsigned int i = 0; i < 9; i++)
@@ -695,7 +695,7 @@ void IPARPi::queueRequest(const ControlList &controls)
switch (ctrl.first) {
case controls::AE_ENABLE: {
- RPiController::Algorithm *agc = controller_.GetAlgorithm("agc");
+ RPiController::Algorithm *agc = controller_.getAlgorithm("agc");
if (!agc) {
LOG(IPARPI, Warning)
<< "Could not set AE_ENABLE - no AGC algorithm";
@@ -703,9 +703,9 @@ void IPARPi::queueRequest(const ControlList &controls)
}
if (ctrl.second.get<bool>() == false)
- agc->Pause();
+ agc->pause();
else
- agc->Resume();
+ agc->resume();
libcameraMetadata_.set(controls::AeEnable, ctrl.second.get<bool>());
break;
@@ -713,7 +713,7 @@ void IPARPi::queueRequest(const ControlList &controls)
case controls::EXPOSURE_TIME: {
RPiController::AgcAlgorithm *agc = dynamic_cast<RPiController::AgcAlgorithm *>(
- controller_.GetAlgorithm("agc"));
+ controller_.getAlgorithm("agc"));
if (!agc) {
LOG(IPARPI, Warning)
<< "Could not set EXPOSURE_TIME - no AGC algorithm";
@@ -721,7 +721,7 @@ void IPARPi::queueRequest(const ControlList &controls)
}
/* The control provides units of microseconds. */
- agc->SetFixedShutter(ctrl.second.get<int32_t>() * 1.0us);
+ agc->setFixedShutter(ctrl.second.get<int32_t>() * 1.0us);
libcameraMetadata_.set(controls::ExposureTime, ctrl.second.get<int32_t>());
break;
@@ -729,14 +729,14 @@ void IPARPi::queueRequest(const ControlList &controls)
case controls::ANALOGUE_GAIN: {
RPiController::AgcAlgorithm *agc = dynamic_cast<RPiController::AgcAlgorithm *>(
- controller_.GetAlgorithm("agc"));
+ controller_.getAlgorithm("agc"));
if (!agc) {
LOG(IPARPI, Warning)
<< "Could not set ANALOGUE_GAIN - no AGC algorithm";
break;
}
- agc->SetFixedAnalogueGain(ctrl.second.get<float>());
+ agc->setFixedAnalogueGain(ctrl.second.get<float>());
libcameraMetadata_.set(controls::AnalogueGain,
ctrl.second.get<float>());
@@ -745,7 +745,7 @@ void IPARPi::queueRequest(const ControlList &controls)
case controls::AE_METERING_MODE: {
RPiController::AgcAlgorithm *agc = dynamic_cast<RPiController::AgcAlgorithm *>(
- controller_.GetAlgorithm("agc"));
+ controller_.getAlgorithm("agc"));
if (!agc) {
LOG(IPARPI, Warning)
<< "Could not set AE_METERING_MODE - no AGC algorithm";
@@ -754,7 +754,7 @@ void IPARPi::queueRequest(const ControlList &controls)
int32_t idx = ctrl.second.get<int32_t>();
if (MeteringModeTable.count(idx)) {
- agc->SetMeteringMode(MeteringModeTable.at(idx));
+ agc->setMeteringMode(MeteringModeTable.at(idx));
libcameraMetadata_.set(controls::AeMeteringMode, idx);
} else {
LOG(IPARPI, Error) << "Metering mode " << idx
@@ -765,7 +765,7 @@ void IPARPi::queueRequest(const ControlList &controls)
case controls::AE_CONSTRAINT_MODE: {
RPiController::AgcAlgorithm *agc = dynamic_cast<RPiController::AgcAlgorithm *>(
- controller_.GetAlgorithm("agc"));
+ controller_.getAlgorithm("agc"));
if (!agc) {
LOG(IPARPI, Warning)
<< "Could not set AE_CONSTRAINT_MODE - no AGC algorithm";
@@ -774,7 +774,7 @@ void IPARPi::queueRequest(const ControlList &controls)
int32_t idx = ctrl.second.get<int32_t>();
if (ConstraintModeTable.count(idx)) {
- agc->SetConstraintMode(ConstraintModeTable.at(idx));
+ agc->setConstraintMode(ConstraintModeTable.at(idx));
libcameraMetadata_.set(controls::AeConstraintMode, idx);
} else {
LOG(IPARPI, Error) << "Constraint mode " << idx
@@ -785,7 +785,7 @@ void IPARPi::queueRequest(const ControlList &controls)
case controls::AE_EXPOSURE_MODE: {
RPiController::AgcAlgorithm *agc = dynamic_cast<RPiController::AgcAlgorithm *>(
- controller_.GetAlgorithm("agc"));
+ controller_.getAlgorithm("agc"));
if (!agc) {
LOG(IPARPI, Warning)
<< "Could not set AE_EXPOSURE_MODE - no AGC algorithm";
@@ -794,7 +794,7 @@ void IPARPi::queueRequest(const ControlList &controls)
int32_t idx = ctrl.second.get<int32_t>();
if (ExposureModeTable.count(idx)) {
- agc->SetExposureMode(ExposureModeTable.at(idx));
+ agc->setExposureMode(ExposureModeTable.at(idx));
libcameraMetadata_.set(controls::AeExposureMode, idx);
} else {
LOG(IPARPI, Error) << "Exposure mode " << idx
@@ -805,7 +805,7 @@ void IPARPi::queueRequest(const ControlList &controls)
case controls::EXPOSURE_VALUE: {
RPiController::AgcAlgorithm *agc = dynamic_cast<RPiController::AgcAlgorithm *>(
- controller_.GetAlgorithm("agc"));
+ controller_.getAlgorithm("agc"));
if (!agc) {
LOG(IPARPI, Warning)
<< "Could not set EXPOSURE_VALUE - no AGC algorithm";
@@ -817,14 +817,14 @@ void IPARPi::queueRequest(const ControlList &controls)
* So convert to 2^EV
*/
double ev = pow(2.0, ctrl.second.get<float>());
- agc->SetEv(ev);
+ agc->setEv(ev);
libcameraMetadata_.set(controls::ExposureValue,
ctrl.second.get<float>());
break;
}
case controls::AWB_ENABLE: {
- RPiController::Algorithm *awb = controller_.GetAlgorithm("awb");
+ RPiController::Algorithm *awb = controller_.getAlgorithm("awb");
if (!awb) {
LOG(IPARPI, Warning)
<< "Could not set AWB_ENABLE - no AWB algorithm";
@@ -832,9 +832,9 @@ void IPARPi::queueRequest(const ControlList &controls)
}
if (ctrl.second.get<bool>() == false)
- awb->Pause();
+ awb->pause();
else
- awb->Resume();
+ awb->resume();
libcameraMetadata_.set(controls::AwbEnable,
ctrl.second.get<bool>());
@@ -843,7 +843,7 @@ void IPARPi::queueRequest(const ControlList &controls)
case controls::AWB_MODE: {
RPiController::AwbAlgorithm *awb = dynamic_cast<RPiController::AwbAlgorithm *>(
- controller_.GetAlgorithm("awb"));
+ controller_.getAlgorithm("awb"));
if (!awb) {
LOG(IPARPI, Warning)
<< "Could not set AWB_MODE - no AWB algorithm";
@@ -852,7 +852,7 @@ void IPARPi::queueRequest(const ControlList &controls)
int32_t idx = ctrl.second.get<int32_t>();
if (AwbModeTable.count(idx)) {
- awb->SetMode(AwbModeTable.at(idx));
+ awb->setMode(AwbModeTable.at(idx));
libcameraMetadata_.set(controls::AwbMode, idx);
} else {
LOG(IPARPI, Error) << "AWB mode " << idx
@@ -864,14 +864,14 @@ void IPARPi::queueRequest(const ControlList &controls)
case controls::COLOUR_GAINS: {
auto gains = ctrl.second.get<Span<const float>>();
RPiController::AwbAlgorithm *awb = dynamic_cast<RPiController::AwbAlgorithm *>(
- controller_.GetAlgorithm("awb"));
+ controller_.getAlgorithm("awb"));
if (!awb) {
LOG(IPARPI, Warning)
<< "Could not set COLOUR_GAINS - no AWB algorithm";
break;
}
- awb->SetManualGains(gains[0], gains[1]);
+ awb->setManualGains(gains[0], gains[1]);
if (gains[0] != 0.0f && gains[1] != 0.0f)
/* A gain of 0.0f will switch back to auto mode. */
libcameraMetadata_.set(controls::ColourGains,
@@ -881,14 +881,14 @@ void IPARPi::queueRequest(const ControlList &controls)
case controls::BRIGHTNESS: {
RPiController::ContrastAlgorithm *contrast = dynamic_cast<RPiController::ContrastAlgorithm *>(
- controller_.GetAlgorithm("contrast"));
+ controller_.getAlgorithm("contrast"));
if (!contrast) {
LOG(IPARPI, Warning)
<< "Could not set BRIGHTNESS - no contrast algorithm";
break;
}
- contrast->SetBrightness(ctrl.second.get<float>() * 65536);
+ contrast->setBrightness(ctrl.second.get<float>() * 65536);
libcameraMetadata_.set(controls::Brightness,
ctrl.second.get<float>());
break;
@@ -896,14 +896,14 @@ void IPARPi::queueRequest(const ControlList &controls)
case controls::CONTRAST: {
RPiController::ContrastAlgorithm *contrast = dynamic_cast<RPiController::ContrastAlgorithm *>(
- controller_.GetAlgorithm("contrast"));
+ controller_.getAlgorithm("contrast"));
if (!contrast) {
LOG(IPARPI, Warning)
<< "Could not set CONTRAST - no contrast algorithm";
break;
}
- contrast->SetContrast(ctrl.second.get<float>());
+ contrast->setContrast(ctrl.second.get<float>());
libcameraMetadata_.set(controls::Contrast,
ctrl.second.get<float>());
break;
@@ -911,14 +911,14 @@ void IPARPi::queueRequest(const ControlList &controls)
case controls::SATURATION: {
RPiController::CcmAlgorithm *ccm = dynamic_cast<RPiController::CcmAlgorithm *>(
- controller_.GetAlgorithm("ccm"));
+ controller_.getAlgorithm("ccm"));
if (!ccm) {
LOG(IPARPI, Warning)
<< "Could not set SATURATION - no ccm algorithm";
break;
}
- ccm->SetSaturation(ctrl.second.get<float>());
+ ccm->setSaturation(ctrl.second.get<float>());
libcameraMetadata_.set(controls::Saturation,
ctrl.second.get<float>());
break;
@@ -926,14 +926,14 @@ void IPARPi::queueRequest(const ControlList &controls)
case controls::SHARPNESS: {
RPiController::SharpenAlgorithm *sharpen = dynamic_cast<RPiController::SharpenAlgorithm *>(
- controller_.GetAlgorithm("sharpen"));
+ controller_.getAlgorithm("sharpen"));
if (!sharpen) {
LOG(IPARPI, Warning)
<< "Could not set SHARPNESS - no sharpen algorithm";
break;
}
- sharpen->SetStrength(ctrl.second.get<float>());
+ sharpen->setStrength(ctrl.second.get<float>());
libcameraMetadata_.set(controls::Sharpness,
ctrl.second.get<float>());
break;
@@ -952,7 +952,7 @@ void IPARPi::queueRequest(const ControlList &controls)
case controls::NOISE_REDUCTION_MODE: {
RPiController::DenoiseAlgorithm *sdn = dynamic_cast<RPiController::DenoiseAlgorithm *>(
- controller_.GetAlgorithm("SDN"));
+ controller_.getAlgorithm("SDN"));
if (!sdn) {
LOG(IPARPI, Warning)
<< "Could not set NOISE_REDUCTION_MODE - no SDN algorithm";
@@ -962,7 +962,7 @@ void IPARPi::queueRequest(const ControlList &controls)
int32_t idx = ctrl.second.get<int32_t>();
auto mode = DenoiseModeTable.find(idx);
if (mode != DenoiseModeTable.end()) {
- sdn->SetMode(mode->second);
+ sdn->setMode(mode->second);
/*
* \todo If the colour denoise is not going to run due to an
@@ -1014,7 +1014,7 @@ void IPARPi::prepareISP(const ISPConfig &data)
* This may overwrite the DeviceStatus using values from the sensor
* metadata, and may also do additional custom processing.
*/
- helper_->Prepare(embeddedBuffer, rpiMetadata_);
+ helper_->prepare(embeddedBuffer, rpiMetadata_);
/* Done with embedded data now, return to pipeline handler asap. */
if (data.embeddedBufferPresent)
@@ -1030,7 +1030,7 @@ void IPARPi::prepareISP(const ISPConfig &data)
* current frame, or any other bits of metadata that were added
* in helper_->Prepare().
*/
- rpiMetadata_.Merge(lastMetadata);
+ rpiMetadata_.merge(lastMetadata);
processPending_ = false;
return;
}
@@ -1040,48 +1040,48 @@ void IPARPi::prepareISP(const ISPConfig &data)
ControlList ctrls(ispCtrls_);
- controller_.Prepare(&rpiMetadata_);
+ controller_.prepare(&rpiMetadata_);
/* Lock the metadata buffer to avoid constant locks/unlocks. */
std::unique_lock<RPiController::Metadata> lock(rpiMetadata_);
- AwbStatus *awbStatus = rpiMetadata_.GetLocked<AwbStatus>("awb.status");
+ AwbStatus *awbStatus = rpiMetadata_.getLocked<AwbStatus>("awb.status");
if (awbStatus)
applyAWB(awbStatus, ctrls);
- CcmStatus *ccmStatus = rpiMetadata_.GetLocked<CcmStatus>("ccm.status");
+ CcmStatus *ccmStatus = rpiMetadata_.getLocked<CcmStatus>("ccm.status");
if (ccmStatus)
applyCCM(ccmStatus, ctrls);
- AgcStatus *dgStatus = rpiMetadata_.GetLocked<AgcStatus>("agc.status");
+ AgcStatus *dgStatus = rpiMetadata_.getLocked<AgcStatus>("agc.status");
if (dgStatus)
applyDG(dgStatus, ctrls);
- AlscStatus *lsStatus = rpiMetadata_.GetLocked<AlscStatus>("alsc.status");
+ AlscStatus *lsStatus = rpiMetadata_.getLocked<AlscStatus>("alsc.status");
if (lsStatus)
applyLS(lsStatus, ctrls);
- ContrastStatus *contrastStatus = rpiMetadata_.GetLocked<ContrastStatus>("contrast.status");
+ ContrastStatus *contrastStatus = rpiMetadata_.getLocked<ContrastStatus>("contrast.status");
if (contrastStatus)
applyGamma(contrastStatus, ctrls);
- BlackLevelStatus *blackLevelStatus = rpiMetadata_.GetLocked<BlackLevelStatus>("black_level.status");
+ BlackLevelStatus *blackLevelStatus = rpiMetadata_.getLocked<BlackLevelStatus>("black_level.status");
if (blackLevelStatus)
applyBlackLevel(blackLevelStatus, ctrls);
- GeqStatus *geqStatus = rpiMetadata_.GetLocked<GeqStatus>("geq.status");
+ GeqStatus *geqStatus = rpiMetadata_.getLocked<GeqStatus>("geq.status");
if (geqStatus)
applyGEQ(geqStatus, ctrls);
- DenoiseStatus *denoiseStatus = rpiMetadata_.GetLocked<DenoiseStatus>("denoise.status");
+ DenoiseStatus *denoiseStatus = rpiMetadata_.getLocked<DenoiseStatus>("denoise.status");
if (denoiseStatus)
applyDenoise(denoiseStatus, ctrls);
- SharpenStatus *sharpenStatus = rpiMetadata_.GetLocked<SharpenStatus>("sharpen.status");
+ SharpenStatus *sharpenStatus = rpiMetadata_.getLocked<SharpenStatus>("sharpen.status");
if (sharpenStatus)
applySharpen(sharpenStatus, ctrls);
- DpcStatus *dpcStatus = rpiMetadata_.GetLocked<DpcStatus>("dpc.status");
+ DpcStatus *dpcStatus = rpiMetadata_.getLocked<DpcStatus>("dpc.status");
if (dpcStatus)
applyDPC(dpcStatus, ctrls);
@@ -1097,13 +1097,13 @@ void IPARPi::fillDeviceStatus(const ControlList &sensorControls)
int32_t gainCode = sensorControls.get(V4L2_CID_ANALOGUE_GAIN).get<int32_t>();
int32_t vblank = sensorControls.get(V4L2_CID_VBLANK).get<int32_t>();
- deviceStatus.shutter_speed = helper_->Exposure(exposureLines);
- deviceStatus.analogue_gain = helper_->Gain(gainCode);
- deviceStatus.frame_length = mode_.height + vblank;
+ deviceStatus.shutterSpeed = helper_->exposure(exposureLines);
+ deviceStatus.analogueGain = helper_->gain(gainCode);
+ deviceStatus.frameLength = mode_.height + vblank;
LOG(IPARPI, Debug) << "Metadata - " << deviceStatus;
- rpiMetadata_.Set("device.status", deviceStatus);
+ rpiMetadata_.set("device.status", deviceStatus);
}
void IPARPi::processStats(unsigned int bufferId)
@@ -1117,11 +1117,11 @@ void IPARPi::processStats(unsigned int bufferId)
Span<uint8_t> mem = it->second.planes()[0];
bcm2835_isp_stats *stats = reinterpret_cast<bcm2835_isp_stats *>(mem.data());
RPiController::StatisticsPtr statistics = std::make_shared<bcm2835_isp_stats>(*stats);
- helper_->Process(statistics, rpiMetadata_);
- controller_.Process(statistics, &rpiMetadata_);
+ helper_->process(statistics, rpiMetadata_);
+ controller_.process(statistics, &rpiMetadata_);
struct AgcStatus agcStatus;
- if (rpiMetadata_.Get("agc.status", agcStatus) == 0) {
+ if (rpiMetadata_.get("agc.status", agcStatus) == 0) {
ControlList ctrls(sensorCtrls_);
applyAGC(&agcStatus, ctrls);
@@ -1131,19 +1131,19 @@ void IPARPi::processStats(unsigned int bufferId)
void IPARPi::applyAWB(const struct AwbStatus *awbStatus, ControlList &ctrls)
{
- LOG(IPARPI, Debug) << "Applying WB R: " << awbStatus->gain_r << " B: "
- << awbStatus->gain_b;
+ LOG(IPARPI, Debug) << "Applying WB R: " << awbStatus->gainR << " B: "
+ << awbStatus->gainB;
ctrls.set(V4L2_CID_RED_BALANCE,
- static_cast<int32_t>(awbStatus->gain_r * 1000));
+ static_cast<int32_t>(awbStatus->gainR * 1000));
ctrls.set(V4L2_CID_BLUE_BALANCE,
- static_cast<int32_t>(awbStatus->gain_b * 1000));
+ static_cast<int32_t>(awbStatus->gainB * 1000));
}
void IPARPi::applyFrameDurations(Duration minFrameDuration, Duration maxFrameDuration)
{
- const Duration minSensorFrameDuration = mode_.min_frame_length * mode_.line_length;
- const Duration maxSensorFrameDuration = mode_.max_frame_length * mode_.line_length;
+ const Duration minSensorFrameDuration = mode_.minFrameLength * mode_.lineLength;
+ const Duration maxSensorFrameDuration = mode_.maxFrameLength * mode_.lineLength;
/*
* This will only be applied once AGC recalculations occur.
@@ -1164,20 +1164,20 @@ void IPARPi::applyFrameDurations(Duration minFrameDuration, Duration maxFrameDur
/*
* Calculate the maximum exposure time possible for the AGC to use.
- * GetVBlanking() will update maxShutter with the largest exposure
+ * getVBlanking() will update maxShutter with the largest exposure
* value possible.
*/
Duration maxShutter = Duration::max();
- helper_->GetVBlanking(maxShutter, minFrameDuration_, maxFrameDuration_);
+ helper_->getVBlanking(maxShutter, minFrameDuration_, maxFrameDuration_);
RPiController::AgcAlgorithm *agc = dynamic_cast<RPiController::AgcAlgorithm *>(
- controller_.GetAlgorithm("agc"));
- agc->SetMaxShutter(maxShutter);
+ controller_.getAlgorithm("agc"));
+ agc->setMaxShutter(maxShutter);
}
void IPARPi::applyAGC(const struct AgcStatus *agcStatus, ControlList &ctrls)
{
- int32_t gainCode = helper_->GainCode(agcStatus->analogue_gain);
+ int32_t gainCode = helper_->gainCode(agcStatus->analogueGain);
/*
* Ensure anything larger than the max gain code will not be passed to
@@ -1186,15 +1186,15 @@ void IPARPi::applyAGC(const struct AgcStatus *agcStatus, ControlList &ctrls)
*/
gainCode = std::min<int32_t>(gainCode, maxSensorGainCode_);
- /* GetVBlanking might clip exposure time to the fps limits. */
- Duration exposure = agcStatus->shutter_time;
- int32_t vblanking = helper_->GetVBlanking(exposure, minFrameDuration_, maxFrameDuration_);
- int32_t exposureLines = helper_->ExposureLines(exposure);
+ /* getVBlanking might clip exposure time to the fps limits. */
+ Duration exposure = agcStatus->shutterTime;
+ int32_t vblanking = helper_->getVBlanking(exposure, minFrameDuration_, maxFrameDuration_);
+ int32_t exposureLines = helper_->exposureLines(exposure);
LOG(IPARPI, Debug) << "Applying AGC Exposure: " << exposure
<< " (Shutter lines: " << exposureLines << ", AGC requested "
- << agcStatus->shutter_time << ") Gain: "
- << agcStatus->analogue_gain << " (Gain Code: "
+ << agcStatus->shutterTime << ") Gain: "
+ << agcStatus->analogueGain << " (Gain Code: "
<< gainCode << ")";
/*
@@ -1210,7 +1210,7 @@ void IPARPi::applyAGC(const struct AgcStatus *agcStatus, ControlList &ctrls)
void IPARPi::applyDG(const struct AgcStatus *dgStatus, ControlList &ctrls)
{
ctrls.set(V4L2_CID_DIGITAL_GAIN,
- static_cast<int32_t>(dgStatus->digital_gain * 1000));
+ static_cast<int32_t>(dgStatus->digitalGain * 1000));
}
void IPARPi::applyCCM(const struct CcmStatus *ccmStatus, ControlList &ctrls)
@@ -1250,9 +1250,9 @@ void IPARPi::applyBlackLevel(const struct BlackLevelStatus *blackLevelStatus, Co
bcm2835_isp_black_level blackLevel;
blackLevel.enabled = 1;
- blackLevel.black_level_r = blackLevelStatus->black_level_r;
- blackLevel.black_level_g = blackLevelStatus->black_level_g;
- blackLevel.black_level_b = blackLevelStatus->black_level_b;
+ blackLevel.black_level_r = blackLevelStatus->blackLevelR;
+ blackLevel.black_level_g = blackLevelStatus->blackLevelG;
+ blackLevel.black_level_b = blackLevelStatus->blackLevelB;
ControlValue c(Span<const uint8_t>{ reinterpret_cast<uint8_t *>(&blackLevel),
sizeof(blackLevel) });
@@ -1281,8 +1281,8 @@ void IPARPi::applyDenoise(const struct DenoiseStatus *denoiseStatus, ControlList
DenoiseMode mode = static_cast<DenoiseMode>(denoiseStatus->mode);
denoise.enabled = mode != DenoiseMode::Off;
- denoise.constant = denoiseStatus->noise_constant;
- denoise.slope.num = 1000 * denoiseStatus->noise_slope;
+ denoise.constant = denoiseStatus->noiseConstant;
+ denoise.slope.num = 1000 * denoiseStatus->noiseSlope;
denoise.slope.den = 1000;
denoise.strength.num = 1000 * denoiseStatus->strength;
denoise.strength.den = 1000;
generated by cgit v1.2.1 (git 2.18.0) at 2024-11-26 23:46:32 +0000