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Split the giant test binaries into smaller unit tests
This is an intermediate step to have smaller unit tests. It is a trade off between having many many test executables compared to a few bigger ones. But this comes a lot closer to what QtTest is meant to be used.
This commit is contained in:
Roland Winklmeier
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/* Copyright (C) 2015
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* swift project Community / Contributors
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*
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* This file is part of swift project. It is subject to the license terms in the LICENSE file found in the top-level
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* directory of this distribution and at http://www.swift-project.org/license.html. No part of swift project,
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* including this file, may be copied, modified, propagated, or distributed except according to the terms
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* contained in the LICENSE file.
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*/
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//! \cond PRIVATE_TESTS
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//! \file
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//! \ingroup testblackmisc
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#include "blackmisc/simulation/interpolator.h"
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#include "blackmisc/simulation/interpolatorlinear.h"
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#include "blackmisc/simulation/remoteaircraftproviderdummy.h"
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#include "blackmisc/aviation/aircraftengine.h"
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#include "blackmisc/aviation/aircraftenginelist.h"
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#include "blackmisc/aviation/aircraftlights.h"
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#include "blackmisc/aviation/aircraftpartslist.h"
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#include "blackmisc/aviation/aircraftsituationlist.h"
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#include "blackmisc/aviation/altitude.h"
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#include "blackmisc/aviation/callsign.h"
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#include "blackmisc/aviation/heading.h"
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#include "blackmisc/geo/coordinategeodetic.h"
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#include "blackmisc/geo/latitude.h"
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#include "blackmisc/geo/longitude.h"
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#include "blackmisc/pq/angle.h"
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#include "blackmisc/pq/length.h"
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#include "blackmisc/pq/physicalquantity.h"
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#include "blackmisc/pq/speed.h"
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#include "blackmisc/pq/units.h"
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#include "blackmisc/compare.h"
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#include "test.h"
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#include <QCoreApplication>
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#include <QDebug>
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#include <QEventLoop>
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#include <QScopedPointer>
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#include <QTest>
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#include <QTime>
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#include <QtDebug>
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using namespace BlackMisc;
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using namespace BlackMisc::Aviation;
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using namespace BlackMisc::Geo;
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using namespace BlackMisc::PhysicalQuantities;
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using namespace BlackMisc::Simulation;
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namespace BlackMiscTest
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{
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//! Interpolator classes basic tests
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class CTestInterpolatorLinear : public QObject
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{
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Q_OBJECT
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private slots:
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//! Basic unit tests for interpolator
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void basicInterpolatorTests();
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private:
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//! Test situation for testing
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static BlackMisc::Aviation::CAircraftSituation getTestSituation(const BlackMisc::Aviation::CCallsign &callsign, int number, qint64 ts, qint64 deltaT, qint64 offset);
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//! Test parts
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static BlackMisc::Aviation::CAircraftParts getTestParts(int number, qint64 ts, qint64 deltaT);
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};
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void CTestInterpolatorLinear::basicInterpolatorTests()
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{
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const CCallsign cs("SWIFT");
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CRemoteAircraftProviderDummy provider;
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CInterpolatorLinear interpolator(cs, nullptr, nullptr, &provider);
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interpolator.markAsUnitTest();
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// fixed time so everything can be debugged
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const qint64 ts = 1425000000000; // QDateTime::currentMSecsSinceEpoch();
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const qint64 deltaT = 5000; // ms
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const qint64 offset = 5000;
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for (int i = IRemoteAircraftProvider::MaxSituationsPerCallsign - 1; i >= 0; i--)
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{
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const CAircraftSituation s(getTestSituation(cs, i, ts, deltaT, offset));
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// check height above ground
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CLength hag = (s.getAltitude() - s.getGroundElevation());
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QVERIFY2(s.getHeightAboveGround() == hag, "Wrong elevation");
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provider.insertNewSituation(s);
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}
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constexpr int partsCount = 10;
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for (int i = partsCount - 1; i >= 0; i--)
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{
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const CAircraftParts p(getTestParts(i, ts, deltaT));
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provider.insertNewAircraftParts(cs, p, false);
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}
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// make sure signals are processed, if the interpolator depends on those signals
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QCoreApplication::processEvents(QEventLoop::AllEvents, 1000);
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// interpolation functional check
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const CInterpolationAndRenderingSetupPerCallsign setup;
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double latOld = 360.0;
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double lngOld = 360.0;
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for (qint64 currentTime = ts - 2 * deltaT + offset; currentTime < ts + offset; currentTime += (deltaT / 20))
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{
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// This will use time range
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// from: ts - 2 * deltaT + offset
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// to: ts + offset
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const CInterpolationResult result = interpolator.getInterpolation(currentTime, setup);
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const CAircraftSituation currentSituation(result);
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QVERIFY2(result.getInterpolationStatus().isInterpolated(), "Value was not interpolated");
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const double latDeg = currentSituation.getPosition().latitude().valueRounded(CAngleUnit::deg(), 5);
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const double lngDeg = currentSituation.getPosition().longitude().valueRounded(CAngleUnit::deg(), 5);
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QVERIFY2(latDeg < latOld && lngDeg < lngOld, QString("Values shall decrease: %1/%2 %3/%4").arg(latDeg).arg(latOld).arg(lngDeg).arg(lngOld).toLatin1());
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QVERIFY2(latDeg >= 0 && latDeg <= IRemoteAircraftProvider::MaxSituationsPerCallsign, "Values shall be in range");
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latOld = latDeg;
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lngOld = lngDeg;
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}
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QTime timer;
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timer.start();
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int interpolationNo = 0;
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const qint64 startTimeMsSinceEpoch = ts - 2 * deltaT;
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// Pseudo performance test:
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// Those make not completely sense, as the performance depends on the implementation of
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// the dummy provider, which is different from the real provider
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// With one callsign in the lists (of dummy provider) it is somehow expected to be roughly the same performance
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interpolator.resetLastInterpolation();
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interpolator.markAsUnitTest();
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for (int loops = 0; loops < 20; loops++)
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{
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for (qint64 currentTime = startTimeMsSinceEpoch + offset; currentTime < ts + offset; currentTime += (deltaT / 20))
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{
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// This will use range
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// from: ts - 2* deltaT + offset
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// to: ts + offset
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const CInterpolationResult result = interpolator.getInterpolation(currentTime, setup);
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const CAircraftSituation currentSituation(result);
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QVERIFY2(result.getInterpolationStatus().isInterpolated(), "Not interpolated");
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QVERIFY2(!currentSituation.getCallsign().isEmpty(), "Empty callsign");
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QVERIFY2(currentSituation.getCallsign() == cs, "Wrong callsign");
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const double latDeg = currentSituation.getPosition().latitude().valueRounded(CAngleUnit::deg(), 5);
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const double lngDeg = currentSituation.getPosition().longitude().valueRounded(CAngleUnit::deg(), 5);
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Q_UNUSED(latDeg);
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Q_UNUSED(lngDeg);
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interpolationNo++;
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}
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}
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// check on time just to learn if interpolation suddenly gets very slow
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// this is a risky test as in some situations the values can be exceeded
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int timeMs = timer.elapsed();
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QVERIFY2(timeMs < interpolationNo * 1.5, "Interpolation > 1.5ms");
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qDebug() << timeMs << "ms" << "for" << interpolationNo << "interpolations";
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int fetchedParts = 0;
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timer.start();
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for (qint64 currentTime = ts - 2 * deltaT; currentTime < ts; currentTime += 250)
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{
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const CInterpolationResult result = interpolator.getInterpolation(currentTime, setup);
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fetchedParts++;
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QVERIFY2(result.getPartsStatus().isSupportingParts(), "Parts not supported");
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}
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timeMs = timer.elapsed();
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qDebug() << timeMs << "ms" << "for" << fetchedParts << "fetched parts";
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}
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CAircraftSituation CTestInterpolatorLinear::getTestSituation(const CCallsign &callsign, int number, qint64 ts, qint64 deltaT, qint64 offset)
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{
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const CAltitude alt(number, CAltitude::MeanSeaLevel, CLengthUnit::m());
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const CLatitude lat(number, CAngleUnit::deg());
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const CLongitude lng(180.0 + number, CAngleUnit::deg());
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const CHeading heading(number * 10, CHeading::True, CAngleUnit::deg());
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const CAngle bank(number, CAngleUnit::deg());
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const CAngle pitch(number, CAngleUnit::deg());
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const CSpeed gs(number * 10, CSpeedUnit::km_h());
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const CAltitude gndElev({ 0, CLengthUnit::m() }, CAltitude::MeanSeaLevel);
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const CCoordinateGeodetic c(lat, lng, alt);
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CAircraftSituation s(callsign, c, heading, pitch, bank, gs);
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s.setGroundElevation(gndElev, CAircraftSituation::Test);
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s.setMSecsSinceEpoch(ts - deltaT * number); // values in past
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s.setTimeOffsetMs(offset);
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return s;
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}
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CAircraftParts CTestInterpolatorLinear::getTestParts(int number, qint64 ts, qint64 deltaT)
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{
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CAircraftLights l(true, false, true, false, true, false);
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CAircraftEngineList e({ CAircraftEngine(1, true), CAircraftEngine(2, false), CAircraftEngine(3, true) });
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CAircraftParts p(l, true, 20, true, e, false);
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p.setMSecsSinceEpoch(ts - deltaT * number); // values in past
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return p;
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}
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} // namespace
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//! main
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BLACKTEST_APPLESS_MAIN(BlackMiscTest::CTestInterpolatorLinear);
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#include "testinterpolatorlinear.moc"
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//! \endcond
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