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Renderive/YSGraphic_Core/plottable/Afterglow_p.h
T
2026-07-28 10:54:38 +08:00

140 lines
6.3 KiB
C++

#pragma once
#include <algorithm>
#include <limits>
#include "../Axis/Frequent_Axis.h"
#include "../Axis/Frequent_Axis_p.h"
#include "../architecture/Bounded_Input_Buffer.h"
#include "../architecture/Plot_p.h"
#include "../base/Global.h"
#include "Afterglow.h"
#include "Performance_Shower_p.h"
namespace YSG {
struct Afterglow_Render_State : Render_State, Afterglow_Prop {};
struct Afterglow_Input_Data : Input_Data {
Bounded_Vector_Double_Input_Buffer mDataList;
void clear() override {
mDataList.clear();
}
std::uint64_t pending_count() const override {
return mDataList.pending_count();
}
std::uint64_t dropped_count() const override {
return mDataList.dropped_count();
}
std::uint64_t pushed_count() const override {
return mDataList.pushed_count();
}
};
struct Afterglow_Private : Typed_Render_Data<Afterglow, Afterglow_Render_State, Afterglow_Input_Data> {
friend class Afterglow;
QImage image;
bool cacheImageDirty = false;
int curIndex = 0;
int cacheFrequentPointSize{};
int cachePowerPointSize{};
int cacheBufferSize{};
QVector<double> cachedPowerData;
QVector<double> oldCachePowerData;
QVector<double> mergedPowerData;
[[nodiscard]] int strength_value(const Afterglow_Render_State* s) const {
if (s->attenuation_rate == 1.0)
return std::numeric_limits<int>::max();
return (int)((double)s->init_strong_value / (1.0 - s->attenuation_rate));
}
void update_cache_size(int frequent_point_size, int power_point_size) {
cacheFrequentPointSize = frequent_point_size;
cachePowerPointSize = power_point_size;
cacheBufferSize = frequent_point_size * power_point_size;
cachedPowerData.resize(cacheBufferSize);
cachedPowerData.fill(0);
oldCachePowerData.resize(cacheBufferSize);
oldCachePowerData.fill(0);
mergedPowerData.resize(cacheBufferSize);
mergedPowerData.fill(0);
curIndex = 0;
}
void push_data(const QVector<double>& powerRangeData, const Afterglow_Render_State* s);
void draw(QPainter* painter) override {
Afterglow_Render_State* s = render_state();
Performance_Shower* shower = q()->mPlot->d->mShower;
if (shower) {
shower->set_performance_line("colCount, rowCount", Performance_Line(QString("colCount:%1, rowCount:%2").arg(s->frequent_point_size).arg(s->power_point_size)));
}
Abs_Axis *hAxis = s->frequent_axis, *vAxis = s->power_axis, *value_axis = s->power_axis;
Range &hRange = s->frequent_range, &vRange = s->power_range;
int colCount = s->frequent_point_size, rowCount = s->power_point_size;
if (image.width() != colCount || image.height() != rowCount) {
image = QImage(colCount, rowCount, QImage::Format_ARGB32_Premultiplied);
image.fill(0);
}
{
if (cacheImageDirty) {
QVector<QRgb>& mColorMap = Global::instance()->mColorMap;
Cacl c("Afterglow setTime:%1 SRTT:%2 RTTVAR:%3", q()->mPlot->d->mShower);
for (int row = 0; row < rowCount; ++row) {
QRgb* scanLine = reinterpret_cast<QRgb*>(image.scanLine(row));
double* list = oldCachePowerData.data() + row * colCount;
for (int col = 0; col < colCount; ++col) {
int colorOffset = (int)(list[col] * 255);
if (colorOffset < 0 || colorOffset > 255) {
qDebug() << "colorOffset:" << colorOffset << " value: " << list[col]
<< " start_coord:" << value_axis->start_coord() << " end_coord:" << value_axis->end_coord();
}
scanLine[col] = mColorMap.at(std::clamp(colorOffset, 0, 255));
}
// std::cout << std::endl;
}
cacheImageDirty = false;
}
}
double x = hAxis->coord_to_pixel(hRange.lower, SRC::Render);
double y = vAxis->coord_to_pixel(vRange.lower, SRC::Render);
double w = hAxis->coord_to_pixel(hRange.upper, SRC::Render) - x;
double h = vAxis->coord_to_pixel(vRange.upper, SRC::Render) - y;
Range &&hAxisRange = hAxis->coord_range(), &&vAxisRange = vAxis->coord_range();
double hr = ((hAxisRange.lower < hAxisRange.upper) ^ (hRange.lower < hRange.upper)) ? -1 : 1;
double vr = ((vAxisRange.lower < vAxisRange.upper) ^ (vRange.lower < vRange.upper)) ? -1 : 1;
painter->save();
painter->scale(hr, vr);
painter->drawImage(QRectF(hr * x, vr * y, hr * w, vr * h), image);
painter->restore();
}
void prepare_data() override {
sync_state_pipeline();
Afterglow_Render_State* s = render_state();
if (cacheFrequentPointSize != s->frequent_point_size || cachePowerPointSize != s->power_point_size) {
update_cache_size(s->frequent_point_size, s->power_point_size);
}
Afterglow_Input_Data* input = render_input_data();
input->mDataList.read_all([this, s](const QVector<double>& data) {
push_data(data, s);
});
clear_render_input();
}
};
template <typename That>
void Afterglow::BuilderT<That>::init(Frequent_Axis* frequent_axis, Axis* power_axis) {
ASSERT(frequent_axis->mPlot != nullptr, "Afterglow build error! frequent_axis->mPlot == nullptr");
ASSERT(frequent_axis->mPlot == power_axis->mPlot, "Afterglow build error! frequent_axis->mPlot != power_axis->mPlot");
plot = frequent_axis->mPlot;
static_cast<That*>(this)->frequent_axis = frequent_axis;
static_cast<That*>(this)->power_axis = power_axis;
}
template <typename That>
void Afterglow::BuilderT<That>::set(Afterglow* ret) {
ret->init(plot, layerName);
Afterglow_Private* pd = ret->d();
Afterglow_Render_State* sc = reinterpret_cast<Afterglow_Render_State*>(pd->state(State_Edit));
PROP_RT(FrequentAxis*, frequent_axis)
PROP_RT(Axis*, power_axis)
PROP_RT(Range, frequent_range)
PROP_RT(Range, power_range)
PROP_RT(int, frequent_point_size)
PROP_RT(int, power_point_size)
PROP_RT(int, buffer_size)
PROP_RT(bool, interpolate)
PROP_RT(double, attenuation_rate)
PROP_RT(int, init_strong_value)
}
} // namespace YSG