Thumbnail::Thumbnail(
IntrusivePtr<ThumbnailPixmapCache> const& thumbnail_cache,
QSizeF const& max_size, ImageId const& image_id, Params const& params,
ImageTransformation const& xform, QPolygonF const& phys_content_rect)
: ThumbnailBase(thumbnail_cache, max_size, image_id, xform),
m_params(params),
m_virtContentRect(xform.transform().map(phys_content_rect).boundingRect()),
m_virtOuterRect(xform.resultingPostCropArea().boundingRect())
{
setExtendedClipArea(true);
}
ImageView::ImageView(
QImage const& image, QImage const& downscaled_image,
ImageTransformation const& xform)
: ImageViewBase(
image, downscaled_image,
ImagePresentation(xform.transform(), xform.resultingPreCropArea())
),
m_handlePixmap(":/icons/aqua-sphere.png"),
m_dragHandler(*this),
m_zoomHandler(*this),
m_xform(xform)
{
setMouseTracking(true);
interactionState().setDefaultStatusTip(
tr("Use Ctrl+Wheel to rotate or Ctrl+Shift+Wheel for finer rotation.")
);
QString const tip(tr("Drag this handle to rotate the image."));
double const hit_radius = std::max<double>(0.5 * m_handlePixmap.width(), 15.0);
for (int i = 0; i < 2; ++i) {
m_handles[i].setHitRadius(hit_radius);
m_handles[i].setPositionCallback(
boost::bind(&ImageView::handlePosition, this, i)
);
m_handles[i].setMoveRequestCallback(
boost::bind(&ImageView::handleMoveRequest, this, i, _1)
);
m_handles[i].setDragFinishedCallback(
boost::bind(&ImageView::dragFinished, this)
);
m_handleInteractors[i].setProximityStatusTip(tip);
m_handleInteractors[i].setObject(&m_handles[i]);
makeLastFollower(m_handleInteractors[i]);
}
m_zoomHandler.setFocus(ZoomHandler::CENTER);
rootInteractionHandler().makeLastFollower(*this);
rootInteractionHandler().makeLastFollower(m_dragHandler);
rootInteractionHandler().makeLastFollower(m_zoomHandler);
}
ImageView::ImageView(
QImage const& image, QImage const& downscaled_image,
ImageTransformation const& xform, PageLayout const& layout,
IntrusivePtr<ProjectPages> const& pages, ImageId const& image_id,
bool left_half_removed, bool right_half_removed)
: ImageViewBase(
image, downscaled_image,
ImagePresentation(xform.transform(), xform.resultingPreCropArea())
),
m_ptrPages(pages),
m_imageId(image_id),
m_leftUnremoveButton(boost::bind(&ImageView::leftPageCenter, this)),
m_rightUnremoveButton(boost::bind(&ImageView::rightPageCenter, this)),
m_dragHandler(*this),
m_zoomHandler(*this),
m_handlePixmap(":/icons/aqua-sphere.png"),
m_virtLayout(layout),
m_leftPageRemoved(left_half_removed),
m_rightPageRemoved(right_half_removed)
{
setMouseTracking(true);
m_leftUnremoveButton.setClickCallback(boost::bind(&ImageView::unremoveLeftPage, this));
m_rightUnremoveButton.setClickCallback(boost::bind(&ImageView::unremoveRightPage, this));
if (m_leftPageRemoved) {
makeLastFollower(m_leftUnremoveButton);
}
if (m_rightPageRemoved) {
makeLastFollower(m_rightUnremoveButton);
}
setupCuttersInteraction();
rootInteractionHandler().makeLastFollower(*this);
rootInteractionHandler().makeLastFollower(m_dragHandler);
rootInteractionHandler().makeLastFollower(m_zoomHandler);
}
OutputImageParams::OutputImageParams(
QSize const& out_image_size, QRect const& content_rect,
ImageTransformation const& xform,
Dpi const& dpi, ColorParams const& color_params,
DewarpingMode const& dewarping_mode,
DistortionModel const& distortion_model,
DepthPerception const& depth_perception,
DespeckleLevel const despeckle_level)
: m_size(out_image_size),
m_contentRect(content_rect),
m_partialXform(xform.transform()),
m_dpi(dpi),
m_colorParams(color_params),
m_distortionModel(distortion_model),
m_depthPerception(depth_perception),
m_dewarpingMode(dewarping_mode),
m_despeckleLevel(despeckle_level)
{
}
PhysSizeCalc::PhysSizeCalc(ImageTransformation const& xform)
: m_virtToPhys(xform.transformBack() * PhysicalTransformation(xform.origDpi()).pixelsToMM())
{
}
bool performEstimation
(
const FeatureAlgorithm& alg,
const ImageTransformation& transformation,
const cv::Mat& sourceImage,
std::vector<FrameMatchingStatistics>& stat
)
{
Keypoints sourceKp;
Descriptors sourceDesc;
cv::Mat gray;
if (sourceImage.channels() == 3)
cv::cvtColor(sourceImage, gray, CV_BGR2GRAY);
else if (sourceImage.channels() == 4)
cv::cvtColor(sourceImage, gray, CV_BGRA2GRAY);
else if(sourceImage.channels() == 1)
gray = sourceImage;
if (!alg.extractFeatures(gray, sourceKp, sourceDesc))
return false;
std::vector<float> x = transformation.getX();
stat.resize(x.size());
const int count = x.size();
cv::Mat transformedImage;
Keypoints resKpReal;
Descriptors resDesc;
Matches matches;
// To convert ticks to milliseconds
const double toMsMul = 1000. / cv::getTickFrequency();
#pragma omp parallel for private(transformedImage, resKpReal, resDesc, matches)
for (int i = 0; i < count; i++)
{
float arg = x[i];
FrameMatchingStatistics& s = stat[i];
transformation.transform(arg, gray, transformedImage);
int64 start = cv::getTickCount();
alg.extractFeatures(transformedImage, resKpReal, resDesc);
// Initialize required fields
s.isValid = resKpReal.size() > 0;
s.argumentValue = arg;
if (!s.isValid)
continue;
if (alg.knMatchSupported)
{
std::vector<Matches> knMatches;
alg.matchFeatures(sourceDesc, resDesc, 2, knMatches);
ratioTest(knMatches, 0.75, matches);
// Compute percent of false matches that were rejected by ratio test
s.ratioTestFalseLevel = (float)(knMatches.size() - matches.size()) / (float) knMatches.size();
}
else
{
alg.matchFeatures(sourceDesc, resDesc, matches);
}
int64 end = cv::getTickCount();
Matches correctMatches;
cv::Mat homography;
bool homographyFound = ImageTransformation::findHomography(sourceKp, resKpReal, matches, correctMatches, homography);
// Some simple stat:
s.isValid = homographyFound;
s.totalKeypoints = resKpReal.size();
s.consumedTimeMs = (end - start) * toMsMul;
// Compute overall percent of matched keypoints
s.percentOfMatches = (float) matches.size() / (float)(std::min(sourceKp.size(), resKpReal.size()));
s.correctMatchesPercent = (float) correctMatches.size() / (float)matches.size();
// Compute matching statistics
computeMatchesDistanceStatistics(correctMatches, s.meanDistance, s.stdDevDistance);
}
return true;
}