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@ -1,5 +1,6 @@ |
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/*
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/*
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* Bittorrent Client using Qt and libtorrent. |
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* Bittorrent Client using Qt and libtorrent. |
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* Copyright (C) 2021 Prince Gupta <guptaprince8832@gmail.com> |
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* Copyright (C) 2015 Anton Lashkov <lenton_91@mail.ru> |
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* Copyright (C) 2015 Anton Lashkov <lenton_91@mail.ru> |
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* |
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* |
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* This program is free software; you can redistribute it and/or |
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* This program is free software; you can redistribute it and/or |
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@ -34,33 +35,13 @@ |
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#include <QPainter> |
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#include <QPainter> |
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#include <QPen> |
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#include <QPen> |
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#include "base/bittorrent/session.h" |
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#include "base/global.h" |
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#include "base/global.h" |
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#include "base/unicodestrings.h" |
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#include "base/unicodestrings.h" |
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#include "base/utils/misc.h" |
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#include "base/utils/misc.h" |
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namespace |
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namespace |
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{ |
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{ |
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enum PeriodInSeconds |
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{ |
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MIN1_SEC = 60, |
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MIN5_SEC = 5 * 60, |
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MIN30_SEC = 30 * 60, |
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HOUR6_SEC = 6 * 60 * 60, |
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HOUR12_SEC = 12 * 60 * 60, |
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HOUR24_SEC = 24 * 60 * 60 |
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}; |
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const int MIN5_BUF_SIZE = 5 * 60; |
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const int MIN30_BUF_SIZE = 5 * 60; |
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const int HOUR6_BUF_SIZE = 5 * 60; |
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const int HOUR12_BUF_SIZE = 10 * 60; |
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const int HOUR24_BUF_SIZE = 10 * 60; |
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const int DIVIDER_30MIN = MIN30_SEC / MIN30_BUF_SIZE; |
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const int DIVIDER_6HOUR = HOUR6_SEC / HOUR6_BUF_SIZE; |
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const int DIVIDER_12HOUR = HOUR12_SEC / HOUR12_BUF_SIZE; |
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const int DIVIDER_24HOUR = HOUR24_SEC / HOUR24_BUF_SIZE; |
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// table of supposed nice steps for grid marks to get nice looking quarters of scale
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// table of supposed nice steps for grid marks to get nice looking quarters of scale
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const double roundingTable[] = {1.2, 1.6, 2, 2.4, 2.8, 3.2, 4, 6, 8}; |
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const double roundingTable[] = {1.2, 1.6, 2, 2.4, 2.8, 3.2, 4, 6, 8}; |
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@ -118,55 +99,69 @@ namespace |
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} |
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} |
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} |
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} |
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SpeedPlotView::Averager::Averager(int divider, boost::circular_buffer<PointData> &sink) |
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SpeedPlotView::Averager::Averager(const milliseconds duration, const milliseconds resolution) |
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: m_divider(divider) |
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: m_resolution {resolution} |
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, m_sink(sink) |
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, m_maxDuration {duration} |
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, m_counter(0) |
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, m_sink {static_cast<DataCircularBuffer::size_type>(duration / resolution)} |
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, m_accumulator {} |
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{ |
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{ |
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m_lastSampleTime.start(); |
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} |
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} |
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void SpeedPlotView::Averager::push(const PointData &pointData) |
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bool SpeedPlotView::Averager::push(const SampleData &sampleData) |
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{ |
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{ |
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// Accumulator overflow will be hit in worst case on longest used averaging span,
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// Accumulator overflow will be hit in worst case on longest used averaging span,
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// defined by divider value. Maximum divider is DIVIDER_24HOUR = 144
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// defined by divider value. Maximum divider is DIVIDER_24HOUR = 144
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// Using int32 for accumulator we get overflow when transfer speed reaches 2^31/144 ~~ 14.2 MBytes/s.
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// Using int32 for accumulator we get overflow when transfer speed reaches 2^31/144 ~~ 14.2 MBytes/s.
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// With quint64 this speed limit is 2^64/144 ~~ 114 PBytes/s.
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// With quint64 this speed limit is 2^64/144 ~~ 114 PBytes/s.
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// This speed is inaccessible to an ordinary user.
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// This speed is inaccessible to an ordinary user.
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m_accumulator.x += pointData.x; |
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++m_counter; |
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for (int id = UP; id < NB_GRAPHS; ++id) |
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for (int id = UP; id < NB_GRAPHS; ++id) |
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m_accumulator.y[id] += pointData.y[id]; |
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m_accumulator[id] += sampleData[id]; |
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m_counter = (m_counter + 1) % m_divider; |
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if (m_counter != 0) |
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// system may go to sleep, that can cause very big elapsed interval
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return; // still accumulating
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const milliseconds updateInterval {static_cast<int64_t>(BitTorrent::Session::instance()->refreshInterval() * 1.25)}; |
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const milliseconds maxElapsed {std::max(updateInterval, m_resolution)}; |
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const milliseconds elapsed {std::min(milliseconds {m_lastSampleTime.elapsed()}, maxElapsed)}; |
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if (elapsed < m_resolution) |
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return false; // still accumulating
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// it is time final averaging calculations
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// it is time final averaging calculations
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for (int id = UP; id < NB_GRAPHS; ++id) |
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for (int id = UP; id < NB_GRAPHS; ++id) |
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m_accumulator.y[id] /= m_divider; |
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m_accumulator[id] /= m_counter; |
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m_accumulator.x /= m_divider; |
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m_currentDuration += elapsed; |
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// remove extra data from front if we reached max duration
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if (m_currentDuration > m_maxDuration) |
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{ |
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// once we go above the max duration never go below that
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// otherwise it will cause empty space in graphs
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while (!m_sink.empty() |
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&& ((m_currentDuration - m_sink.front().duration) > m_maxDuration)) |
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{ |
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m_currentDuration -= m_sink.front().duration; |
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m_sink.pop_front(); |
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} |
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} |
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// now flush out averaged data
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// now flush out averaged data
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m_sink.push_back(m_accumulator); |
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Q_ASSERT(m_sink.size() < m_sink.capacity()); |
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m_sink.push_back({elapsed, m_accumulator}); |
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// reset
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m_accumulator = {}; |
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m_accumulator = {}; |
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m_counter = 0; |
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m_lastSampleTime.restart(); |
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return true; |
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} |
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} |
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bool SpeedPlotView::Averager::isReady() const |
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const SpeedPlotView::DataCircularBuffer &SpeedPlotView::Averager::data() const |
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{ |
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{ |
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return m_counter == 0; |
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return m_sink; |
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} |
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} |
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SpeedPlotView::SpeedPlotView(QWidget *parent) |
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SpeedPlotView::SpeedPlotView(QWidget *parent) |
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: QGraphicsView(parent) |
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: QGraphicsView {parent} |
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, m_data5Min(MIN5_BUF_SIZE) |
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, m_data30Min(MIN30_BUF_SIZE) |
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, m_data6Hour(HOUR6_BUF_SIZE) |
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, m_data12Hour(HOUR12_BUF_SIZE) |
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, m_data24Hour(HOUR24_BUF_SIZE) |
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, m_currentData(&m_data5Min) |
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, m_averager30Min(DIVIDER_30MIN, m_data30Min) |
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, m_averager6Hour(DIVIDER_6HOUR, m_data6Hour) |
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, m_averager12Hour(DIVIDER_12HOUR, m_data12Hour) |
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, m_averager24Hour(DIVIDER_24HOUR, m_data24Hour) |
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, m_period(MIN5) |
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, m_viewablePointsCount(MIN5_SEC) |
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{ |
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{ |
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QPen greenPen; |
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QPen greenPen; |
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greenPen.setWidthF(1.5); |
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greenPen.setWidthF(1.5); |
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@ -205,69 +200,65 @@ void SpeedPlotView::setGraphEnable(GraphID id, bool enable) |
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viewport()->update(); |
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viewport()->update(); |
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} |
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} |
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void SpeedPlotView::pushPoint(const SpeedPlotView::PointData &point) |
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void SpeedPlotView::pushPoint(const SpeedPlotView::SampleData &point) |
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{ |
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{ |
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m_data5Min.push_back(point); |
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for (Averager *averager : {&m_averager5Min, &m_averager30Min |
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m_averager30Min.push(point); |
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, &m_averager6Hour, &m_averager12Hour |
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m_averager6Hour.push(point); |
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, &m_averager24Hour}) |
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m_averager12Hour.push(point); |
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{ |
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m_averager24Hour.push(point); |
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if (averager->push(point)) |
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{ |
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if (m_currentAverager == averager) |
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viewport()->update(); |
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} |
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} |
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} |
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} |
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void SpeedPlotView::setPeriod(const TimePeriod period) |
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void SpeedPlotView::setPeriod(const TimePeriod period) |
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{ |
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{ |
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m_period = period; |
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switch (period) |
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switch (period) |
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{ |
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{ |
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case SpeedPlotView::MIN1: |
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case SpeedPlotView::MIN1: |
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m_viewablePointsCount = MIN1_SEC; |
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m_currentMaxDuration = 1min; |
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m_currentData = &m_data5Min; |
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m_currentAverager = &m_averager5Min; |
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break; |
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break; |
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case SpeedPlotView::MIN5: |
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case SpeedPlotView::MIN5: |
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m_viewablePointsCount = MIN5_SEC; |
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m_currentMaxDuration = 5min; |
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m_currentData = &m_data5Min; |
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m_currentAverager = &m_averager5Min; |
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break; |
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break; |
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case SpeedPlotView::MIN30: |
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case SpeedPlotView::MIN30: |
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m_viewablePointsCount = MIN30_BUF_SIZE; |
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m_currentMaxDuration = 30min; |
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m_currentData = &m_data30Min; |
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m_currentAverager = &m_averager30Min; |
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break; |
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case SpeedPlotView::HOUR3: |
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m_currentMaxDuration = 3h; |
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m_currentAverager = &m_averager6Hour; |
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break; |
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break; |
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case SpeedPlotView::HOUR6: |
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case SpeedPlotView::HOUR6: |
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m_viewablePointsCount = HOUR6_BUF_SIZE; |
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m_currentMaxDuration = 6h; |
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m_currentData = &m_data6Hour; |
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m_currentAverager = &m_averager6Hour; |
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break; |
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break; |
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case SpeedPlotView::HOUR12: |
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case SpeedPlotView::HOUR12: |
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m_viewablePointsCount = HOUR12_BUF_SIZE; |
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m_currentMaxDuration = 12h; |
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m_currentData = &m_data12Hour; |
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m_currentAverager = &m_averager12Hour; |
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break; |
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break; |
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case SpeedPlotView::HOUR24: |
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case SpeedPlotView::HOUR24: |
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m_viewablePointsCount = HOUR24_BUF_SIZE; |
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m_currentMaxDuration = 24h; |
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m_currentData = &m_data24Hour; |
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m_currentAverager = &m_averager24Hour; |
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break; |
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break; |
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} |
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} |
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viewport()->update(); |
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viewport()->update(); |
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} |
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} |
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void SpeedPlotView::replot() |
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const SpeedPlotView::DataCircularBuffer &SpeedPlotView::currentData() const |
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{ |
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if ((m_period == MIN1) |
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|| (m_period == MIN5) |
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|| ((m_period == MIN30) && m_averager30Min.isReady()) |
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|| ((m_period == HOUR6) && m_averager6Hour.isReady()) |
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|| ((m_period == HOUR12) && m_averager12Hour.isReady()) |
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|| ((m_period == HOUR24) && m_averager24Hour.isReady()) ) |
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viewport()->update(); |
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} |
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boost::circular_buffer<SpeedPlotView::PointData> &SpeedPlotView::getCurrentData() |
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{ |
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{ |
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return *m_currentData; |
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return m_currentAverager->data(); |
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} |
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} |
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quint64 SpeedPlotView::maxYValue() |
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quint64 SpeedPlotView::maxYValue() const |
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{ |
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{ |
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boost::circular_buffer<PointData> &queue = getCurrentData(); |
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const DataCircularBuffer &queue = currentData(); |
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quint64 maxYValue = 0; |
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quint64 maxYValue = 0; |
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for (int id = UP; id < NB_GRAPHS; ++id) |
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for (int id = UP; id < NB_GRAPHS; ++id) |
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@ -276,9 +267,14 @@ quint64 SpeedPlotView::maxYValue() |
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if (!m_properties[static_cast<GraphID>(id)].enable) |
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if (!m_properties[static_cast<GraphID>(id)].enable) |
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continue; |
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continue; |
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for (int i = static_cast<int>(queue.size()) - 1, j = 0; (i >= 0) && (j < m_viewablePointsCount); --i, ++j) |
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milliseconds duration {0ms}; |
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if (queue[i].y[id] > maxYValue) |
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for (int i = static_cast<int>(queue.size()) - 1; i >= 0; --i) |
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maxYValue = queue[i].y[id]; |
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{ |
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maxYValue = std::max(maxYValue, queue[i].data[id]); |
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duration += queue[i].duration; |
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if (duration >= m_currentMaxDuration) |
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break; |
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} |
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} |
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} |
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return maxYValue; |
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return maxYValue; |
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@ -350,12 +346,16 @@ void SpeedPlotView::paintEvent(QPaintEvent *) |
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painter.setRenderHints(QPainter::Antialiasing); |
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painter.setRenderHints(QPainter::Antialiasing); |
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// draw graphs
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// draw graphs
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rect.adjust(3, 0, 0, 0); // Need, else graphs cross left gridline
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// averager is duration based, it may go little above the maxDuration
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painter.setClipping(true); |
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painter.setClipRect(rect); |
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const double yMultiplier = (niceScale.arg == 0.0) ? 0.0 : (static_cast<double>(rect.height()) / niceScale.sizeInBytes()); |
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const DataCircularBuffer &queue = currentData(); |
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const double xTickSize = static_cast<double>(rect.width()) / (m_viewablePointsCount - 1); |
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boost::circular_buffer<PointData> &queue = getCurrentData(); |
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// last point will be drawn at x=0, so we don't need it in the calculation of xTickSize
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const milliseconds lastDuration {queue.empty() ? 0ms : queue.back().duration}; |
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const double xTickSize = static_cast<double>(rect.width()) / (m_currentMaxDuration - lastDuration).count(); |
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const double yMultiplier = (niceScale.arg == 0) ? 0 : (static_cast<double>(rect.height()) / niceScale.sizeInBytes()); |
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for (int id = UP; id < NB_GRAPHS; ++id) |
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for (int id = UP; id < NB_GRAPHS; ++id) |
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{ |
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{ |
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@ -363,18 +363,23 @@ void SpeedPlotView::paintEvent(QPaintEvent *) |
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continue; |
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continue; |
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QVector<QPoint> points; |
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QVector<QPoint> points; |
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for (int i = static_cast<int>(queue.size()) - 1, j = 0; (i >= 0) && (j < m_viewablePointsCount); --i, ++j) |
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milliseconds duration {0ms}; |
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{ |
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int newX = rect.right() - j * xTickSize; |
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int newY = rect.bottom() - queue[i].y[id] * yMultiplier; |
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for (int i = static_cast<int>(queue.size()) - 1; i >= 0; --i) |
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{ |
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const int newX = rect.right() - (duration.count() * xTickSize); |
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const int newY = rect.bottom() - (queue[i].data[id] * yMultiplier); |
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points.push_back(QPoint(newX, newY)); |
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points.push_back(QPoint(newX, newY)); |
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duration += queue[i].duration; |
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if (duration >= m_currentMaxDuration) |
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break; |
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} |
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} |
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painter.setPen(m_properties[static_cast<GraphID>(id)].pen); |
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painter.setPen(m_properties[static_cast<GraphID>(id)].pen); |
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painter.drawPolyline(points.data(), points.size()); |
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painter.drawPolyline(points.data(), points.size()); |
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} |
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} |
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painter.setClipping(false); |
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// draw legend
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// draw legend
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QPoint legendTopLeft(rect.left() + 4, fullRect.top() + 4); |
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QPoint legendTopLeft(rect.left() + 4, fullRect.top() + 4); |
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