Belle II Software development
spacePointTrackCand.cc
1/**************************************************************************
2 * basf2 (Belle II Analysis Software Framework) *
3 * Author: The Belle II Collaboration *
4 * *
5 * See git log for contributors and copyright holders. *
6 * This file is licensed under LGPL-3.0, see LICENSE.md. *
7 **************************************************************************/
8
9#include <framework/gearbox/Const.h>
10
11// google test framework
12#include <gtest/gtest.h>
13
14// class to be tested
15#include <tracking/spacePointCreation/SpacePointTrackCand.h>
16
17// stuff needed for setting up the tests
18
19using namespace std;
20
21namespace Belle2 {
30 class SpacePointTrackCandTest : public ::testing::Test {
31 public:
33 VXD::SensorInfoBase createSensorInfo(VxdID aVxdID, double width = 1., double length = 1., double width2 = -1.)
34 {
35 // (SensorType type, VxdID id, double width, double length, double thickness, int uCells, int vCells, double width2=-1, double splitLength=-1, int vCells2=0)
36 VXD::SensorInfoBase sensorInfoBase(VXD::SensorInfoBase::PXD, aVxdID, width, length, 0.3, 2, 4, width2);
37
38 TGeoRotation r1;
39 r1.SetAngles(45, 20, 30); // rotation defined by Euler angles
40 TGeoTranslation t1(-10, 10, 1);
41 TGeoCombiTrans c1(t1, r1);
42 TGeoHMatrix transform = c1;
43 sensorInfoBase.setTransformation(transform);
44
45 return sensorInfoBase;
46 }
47 protected:
48 };
49
53 TEST_F(SpacePointTrackCandTest, testConstructorFromVector)
54 {
55 // set up some SpacePoints and group them to a vector
56 VxdID aVxdID = VxdID(1, 1, 1);
57 VXD::SensorInfoBase aSensorInfoBase = createSensorInfo(aVxdID, 2.3, 4.2);
58 PXDCluster aCluster = PXDCluster(aVxdID, 0., 0., 0.1, 0.1, 0, 0, 1, 1, 1, 1, 1, 1);
59 const SpacePoint aPXDSpacePoint = SpacePoint(&aCluster, &aSensorInfoBase);
60
61 VxdID anotherVxdID = VxdID(3, 3, 3);
62 VXD::SensorInfoBase anotherSensorInfoBase = createSensorInfo(anotherVxdID, 2.3, 4.2);
63 SVDCluster aUCluster = SVDCluster(anotherVxdID, true, -0.23, 0.1, 0.01, 0.001, 1, 1, 1, 1.0);
64 SVDCluster aVCluster = SVDCluster(anotherVxdID, false, 0.42, 0.1, 0.01, 0.001, 1, 1, 1, 1.0);
65 std::vector<const SVDCluster*> a2HitCluster = { &aUCluster, &aVCluster };
66 const SpacePoint aSVDSpacePoint = SpacePoint(a2HitCluster, &anotherSensorInfoBase);
67
68 SVDCluster anotherUCluster = SVDCluster(anotherVxdID, true, 0.23, 0.1, 0.01, 0.001, 1, 1, 1, 1.0);
69 std::vector<const SVDCluster*> a1HitCluster = { &anotherUCluster };
70 const SpacePoint anotherSVDSpacePoint = SpacePoint(a1HitCluster, &anotherSensorInfoBase);
71
72 const std::vector<const Belle2::SpacePoint*> aSpacePointVec = { &aPXDSpacePoint, &aSVDSpacePoint, &anotherSVDSpacePoint };
73
74
75 // construct SpacePointTrackCand with (more or less arbitrary) values for pdg code, charge and MC-TrackID
76 SpacePointTrackCand aSpacePointTC = SpacePointTrackCand(aSpacePointVec, 11, -1, 23);
77
78 // do some checks
79 // check if all SpacePoints are actually in the TrackCand
80 EXPECT_EQ(aSpacePointTC.getNHits(), aSpacePointVec.size());
81 // check pdg, charge, etc...
82 EXPECT_EQ(aSpacePointTC.getPdgCode(), Const::electron.getPDGCode());
83 EXPECT_DOUBLE_EQ(aSpacePointTC.getChargeSeed(), -1);
84 EXPECT_EQ(aSpacePointTC.getMcTrackID(), 23);
85
86 // get SpacePoints and compare them with the original vector
87 const std::vector<const SpacePoint*> returnSPVector = aSpacePointTC.getHits();
88 for (unsigned int i = 0; i < aSpacePointTC.getNHits(); i++) {
89 EXPECT_TRUE(returnSPVector[i] == aSpacePointVec[i]);
90 }
91 }
92
96 TEST_F(SpacePointTrackCandTest, testEqualityOperator)
97 {
98 // set up some set up some space points and add them to SpacePointTrackCands
99 // many parts copied from spacePoint.cc (tracking/tests/)
100
101 VxdID aVxdID = VxdID(1, 1, 1);
102 VXD::SensorInfoBase sensorInfoBase = createSensorInfo(aVxdID, 2.3, 4.2);
103 PXDCluster aCluster = PXDCluster(aVxdID, 0., 0., 0.1, 0.1, 0, 0, 1, 1, 1, 1, 1, 1);
104 const SpacePoint aPXDSpacePoint = SpacePoint(&aCluster, &sensorInfoBase);
105
106 VxdID anotherVxdID = VxdID(3, 3, 3);
107 VXD::SensorInfoBase anotherSensorInfoBase = createSensorInfo(anotherVxdID, 2.3, 4.2);
108 SVDCluster aUCluster = SVDCluster(anotherVxdID, true, -0.23, 0.1, 0.01, 0.001, 1, 1, 1, 1.0);
109 SVDCluster aVCluster = SVDCluster(anotherVxdID, false, 0.42, 0.1, 0.01, 0.001, 1, 1, 1, 1.0);
110 std::vector<const SVDCluster*> a2HitCluster = { &aUCluster, &aVCluster };
111 const SpacePoint aSVDSpacePoint = SpacePoint(a2HitCluster, &anotherSensorInfoBase);
112
113 SVDCluster anotherUCluster = SVDCluster(anotherVxdID, true, 0.23, 0.1, 0.01, 0.001, 1, 1, 1, 1.0);
114 std::vector<const SVDCluster*> a1HitCluster = { &anotherUCluster };
115 const SpacePoint anotherSVDSpacePoint = SpacePoint(a1HitCluster, &anotherSensorInfoBase);
116
117 const std::vector<const Belle2::SpacePoint*> aSpacePointVec = { &aPXDSpacePoint, &aSVDSpacePoint };
118 const std::vector<const Belle2::SpacePoint*> sameSpacePointVec = { &aPXDSpacePoint, &aSVDSpacePoint };
119 const std::vector<const Belle2::SpacePoint*> anotherSpacePointVec = { &aPXDSpacePoint, &anotherSVDSpacePoint };
120
121 // set up two SpacePointTrackCands from the SpacePoint* vectors above
122 Belle2::SpacePointTrackCand aSpacePointTC = SpacePointTrackCand(aSpacePointVec, 1);
123 Belle2::SpacePointTrackCand anotherSpacePointTC = SpacePointTrackCand(sameSpacePointVec);
124
125 // getting undefined reference here!
126 EXPECT_TRUE(aSpacePointTC == anotherSpacePointTC);
127
128 // change pdg code and compare again (should not have any influence)
129 anotherSpacePointTC.setPdgCode(-Const::electron.getPDGCode());
130 EXPECT_TRUE(aSpacePointTC == anotherSpacePointTC);
131
132 // add a space point with arbitrary sorting parameter and compare again, should now give false
133 anotherSpacePointTC.addSpacePoint(&anotherSVDSpacePoint, 1.0);
134
135 EXPECT_FALSE(aSpacePointTC == anotherSpacePointTC);
136
137 // create another TC with different SVD SpacePoint and compare again with the previously created TCs.
138 Belle2::SpacePointTrackCand changedSVDSpacePointTC = SpacePointTrackCand(anotherSpacePointVec, 2, 3, 4);
139
140 EXPECT_FALSE(aSpacePointTC == changedSVDSpacePointTC);
141 EXPECT_FALSE(changedSVDSpacePointTC == anotherSpacePointTC);
142
143 // create an empty TC and add SpacePoints by hand and compare again with the other TCs
144 Belle2::SpacePointTrackCand newSpacePointTC;
145 newSpacePointTC.addSpacePoint(&aPXDSpacePoint, 1.0);
146 newSpacePointTC.addSpacePoint(&aSVDSpacePoint, 1.1);
147
148 EXPECT_TRUE(newSpacePointTC == aSpacePointTC);
149
150 newSpacePointTC.addSpacePoint(&anotherSVDSpacePoint, 1.2);
151
152 EXPECT_TRUE(newSpacePointTC == anotherSpacePointTC);
153
154 }
155
159 TEST_F(SpacePointTrackCandTest, testSetPdgCode)
160 {
161 SpacePointTrackCand aSpacePointTC;
162
163 // electron
164 aSpacePointTC.setPdgCode(Const::electron.getPDGCode());
165 EXPECT_DOUBLE_EQ(aSpacePointTC.getChargeSeed(), -1);
166 // positron
167 aSpacePointTC.setPdgCode(-Const::electron.getPDGCode());
168 EXPECT_DOUBLE_EQ(aSpacePointTC.getChargeSeed(), 1);
169
170 // B+ Meson
171 aSpacePointTC.setPdgCode(521);
172 EXPECT_DOUBLE_EQ(aSpacePointTC.getChargeSeed(), 1);
173 }
174
178 TEST_F(SpacePointTrackCandTest, testGetHitsInRange)
179 {
180 SpacePointTrackCand fullTrackCand;
181
182 // set up some SpacePoints and add them to a SpacePointTrackCand
183 VxdID aVxdID1 = VxdID(1, 1, 1);
184 VXD::SensorInfoBase sensorInfoBase1 = createSensorInfo(aVxdID1, 2.3, 4.2);
185 PXDCluster aCluster = PXDCluster(aVxdID1, 0., 0., 0.1, 0.1, 0, 0, 1, 1, 1, 1, 1, 1);
186 const SpacePoint aPXDSpacePoint = SpacePoint(&aCluster, &sensorInfoBase1);
187 fullTrackCand.addSpacePoint(&aPXDSpacePoint, 1.23); // add a SpacePoint with an arbitrary sorting parameter
188
189 VxdID aVxdID2 = VxdID(2, 2, 2);
190 VXD::SensorInfoBase sensorInfoBase2 = createSensorInfo(aVxdID2, 2.3, 4.2);
191 SVDCluster aUCluster = SVDCluster(aVxdID2, true, -0.23, 0.1, 0.01, 0.001, 1, 1, 1, 1.0);
192 SVDCluster aVCluster = SVDCluster(aVxdID2, false, 0.42, 0.1, 0.01, 0.001, 1, 1, 1, 1.0);
193 std::vector<const SVDCluster*> UVClusterVec1 = { &aUCluster, &aVCluster };
194 std::vector<const SVDCluster*> VClusterVec = { &aVCluster };
195 std::vector<const SVDCluster*> UClusterVec = { &aUCluster };
196 const SpacePoint SVDSpacePoint1 = SpacePoint(UVClusterVec1, &sensorInfoBase2);
197 const SpacePoint SVDSpacePoint2 = SpacePoint(VClusterVec, &sensorInfoBase2);
198 const SpacePoint SVDSpacePoint3 = SpacePoint(UClusterVec, &sensorInfoBase2);
199 fullTrackCand.addSpacePoint(&SVDSpacePoint1, 2.34);
200 fullTrackCand.addSpacePoint(&SVDSpacePoint2, 3.45);
201 fullTrackCand.addSpacePoint(&SVDSpacePoint3, 4.56);
202
203 VxdID aVxdId3 = VxdID(3, 3, 3);
204 VXD::SensorInfoBase sensorInfoBase3 = createSensorInfo(aVxdId3, 2.3, 4.2);
205 SVDCluster aUCluster2 = SVDCluster(aVxdId3, true, -0.23, 0.1, 0.01, 0.001, 1, 1, 1, 1.0);
206 SVDCluster aVCluster2 = SVDCluster(aVxdId3, false, 0.42, 0.1, 0.01, 0.001, 1, 1, 1, 1.0);
207 std::vector<const SVDCluster*> UVClusterVec2 = { &aUCluster2, &aVCluster2 };
208 std::vector<const SVDCluster*> VClusterVec2 = { &aVCluster2 };
209 std::vector<const SVDCluster*> UClusterVec2 = { &aUCluster2 };
210 const SpacePoint SVDSpacePoint4 = SpacePoint(UVClusterVec2, &sensorInfoBase3);
211 const SpacePoint SVDSpacePoint5 = SpacePoint(VClusterVec2, &sensorInfoBase3);
212 const SpacePoint SVDSpacePoint6 = SpacePoint(UClusterVec2, &sensorInfoBase3);
213 fullTrackCand.addSpacePoint(&SVDSpacePoint4, 5.67);
214 fullTrackCand.addSpacePoint(&SVDSpacePoint5, 6.78);
215 fullTrackCand.addSpacePoint(&SVDSpacePoint6, 7.89);
216
217 // set up some 'shorter' SpacePointTrackCands
218 SpacePointTrackCand shortTC1;
219 shortTC1.addSpacePoint(&aPXDSpacePoint, 1.23);
220 shortTC1.addSpacePoint(&SVDSpacePoint1, 2.34);
221 shortTC1.addSpacePoint(&SVDSpacePoint2, 3.45);
222
223 SpacePointTrackCand shortTC2;
224 shortTC2.addSpacePoint(&SVDSpacePoint2, 3.45);
225 shortTC2.addSpacePoint(&SVDSpacePoint3, 4.56);
226 shortTC2.addSpacePoint(&SVDSpacePoint4, 5.67);
227 shortTC2.addSpacePoint(&SVDSpacePoint5, 6.78);
228
229 SpacePointTrackCand subTrackCand1 = SpacePointTrackCand(fullTrackCand.getHitsInRange(0, 3));
230 EXPECT_TRUE(subTrackCand1 == shortTC1);
231 std::vector<double> sortParams1 = { 1.23, 2.34, 3.45 };
232 std::vector<double> sortParamsTC1 = fullTrackCand.getSortingParametersInRange(0, 3);
233 EXPECT_EQ(sortParams1.size(), sortParamsTC1.size());
234 for (unsigned int i = 0; i < sortParamsTC1.size(); ++i) { EXPECT_DOUBLE_EQ(sortParams1.at(i), sortParamsTC1.at(i)); }
235
236 SpacePointTrackCand subTrackCand2 = SpacePointTrackCand(fullTrackCand.getHitsInRange(2, 6));
237 EXPECT_TRUE(subTrackCand2 == shortTC2);
238 std::vector<double> sortParams2 = { 3.45, 4.56, 5.67, 6.78 };
239 std::vector<double> sortParamsTC2 = fullTrackCand.getSortingParametersInRange(2, 6);
240 EXPECT_EQ(sortParams2.size(), sortParamsTC2.size());
241 for (unsigned int i = 0; i < sortParamsTC2.size(); ++i) { EXPECT_DOUBLE_EQ(sortParams2.at(i), sortParamsTC2.at(i)); }
242
243 // test throwing of exceptions
244 unsigned int nHits = fullTrackCand.getNHits();
245 ASSERT_THROW(fullTrackCand.getHitsInRange(0, nHits + 1),
246 SpacePointTrackCand::SPTCIndexOutOfBounds); // throw due to too high final index
247 ASSERT_NO_THROW(fullTrackCand.getHitsInRange(nHits - 2, nHits));
248 ASSERT_THROW(fullTrackCand.getHitsInRange(-1, 3),
249 SpacePointTrackCand::SPTCIndexOutOfBounds); // throw due to negative starting index
250 ASSERT_THROW(fullTrackCand.getHitsInRange(0, 10), SpacePointTrackCand::SPTCIndexOutOfBounds); // throw due to too high final index
251 ASSERT_THROW(fullTrackCand.getHitsInRange(10, 0),
252 SpacePointTrackCand::SPTCIndexOutOfBounds); // throw due to too high starting index
253 ASSERT_THROW(fullTrackCand.getHitsInRange(2, -1), SpacePointTrackCand::SPTCIndexOutOfBounds); // throw due to too low final index
254 ASSERT_THROW(fullTrackCand.getSortingParametersInRange(-1, 2),
255 SpacePointTrackCand::SPTCIndexOutOfBounds); // throw due to negative starting index
256 ASSERT_THROW(fullTrackCand.getSortingParametersInRange(0, nHits + 1),
257 SpacePointTrackCand::SPTCIndexOutOfBounds); // throw due to too high final index
258 ASSERT_THROW(fullTrackCand.getSortingParametersInRange(12, 3),
259 SpacePointTrackCand::SPTCIndexOutOfBounds); // throw due to too high starting index
260 ASSERT_THROW(fullTrackCand.getSortingParametersInRange(2, -2),
261 SpacePointTrackCand::SPTCIndexOutOfBounds); // throw due to too low final index
262 ASSERT_NO_THROW(fullTrackCand.getSortingParametersInRange(0, nHits));
263 }
264
268 TEST_F(SpacePointTrackCandTest, testRefereeStatus)
269 {
270 SpacePointTrackCand trackCand; // default constructor -> should initialize the referee status to c_initialState
271
272 // currently c_isActive is the initialState:
275
276 unsigned short int initialStatus = trackCand.getRefereeStatus();
277 EXPECT_EQ(initialStatus, SpacePointTrackCand::c_initialState);
278
279 // design an arbitrary status and set it, then test if the returned status is the set status
280 unsigned short int newStatus = 0;
283 trackCand.setRefereeStatus(newStatus);
284 EXPECT_EQ(trackCand.getRefereeStatus(), newStatus);
285
286 // clear the status and test if its 0
287 trackCand.clearRefereeStatus();
288 EXPECT_EQ(trackCand.getRefereeStatus(), 0);
289
290 // reset the status and test if it's the initial state
291 trackCand.resetRefereeStatus();
293
294
295 trackCand.clearRefereeStatus(); // enforce empty refereeStatus
296 // add several statuses one by one and test if the overall status is as expected (once with 'overall status' and once with status one by one)
302
306 EXPECT_EQ(trackCand.getRefereeStatus(), expectedStatus);
307
308
309 // remove one status and test if it actually gets removed
311 expectedStatus -= SpacePointTrackCand::c_checkedClean;
312 EXPECT_EQ(trackCand.getRefereeStatus(), expectedStatus);
314 trackCand.removeRefereeStatus(SpacePointTrackCand::c_checkedClean); // remove again and check if nothing changes
315 EXPECT_EQ(trackCand.getRefereeStatus(), expectedStatus);
316
317 EXPECT_TRUE(trackCand.hasRefereeStatus(expectedStatus));
318
319 // test if the status that remains is still set
321 EXPECT_TRUE(trackCand.hasHitsOnSameSensor()); // echeck the wrapper function
322
323
324 // check if adding of the same status twice works
325 trackCand.clearRefereeStatus();
329 EXPECT_TRUE(trackCand.checkedSameSensors());
330
332 EXPECT_TRUE(trackCand.isCurling());
333
334
335 trackCand.clearRefereeStatus();
336 // test that at least n bits are present for storing stuff in the m_refereeStatus (update this test if you add a new flag to the RefereeStatusBit)
337 // WARNING: hardcoded -> make sure to keep this thing up to date!
338 int n = 13;
339 int maxUsedStatus = pow(2, n);
340 trackCand.addRefereeStatus(maxUsedStatus);
341 EXPECT_TRUE(trackCand.hasRefereeStatus(maxUsedStatus));
342
343 int maxN = 15; // unsigned short int has 2 bytes (-> 16 bits) to store information
344 int maxPossibleStatus = pow(2, maxN); // maximum possible status to store
345 trackCand.addRefereeStatus(maxPossibleStatus);
346 EXPECT_TRUE(trackCand.hasRefereeStatus(maxPossibleStatus));
347
348 int impossibleStatus = maxPossibleStatus * 2; // create an integer that is too big to be stored in a unsigned short integer
349 trackCand.clearRefereeStatus();
350 trackCand.setRefereeStatus(impossibleStatus); // this should lead to an overflow in SpacePointTrackCand::m_refereeStatus
351 EXPECT_NE(trackCand.getRefereeStatus(), impossibleStatus); // -> overflow leads this test to fail
352
353 trackCand.clearRefereeStatus();
354 int wrongStatus = 7; // set a wrong status, that causes some of the checks to be true although they shouldn't
355 trackCand.addRefereeStatus(wrongStatus);
356 EXPECT_TRUE(trackCand.hasRefereeStatus(1));
357 EXPECT_TRUE(trackCand.hasRefereeStatus(2));
358 EXPECT_TRUE(trackCand.hasRefereeStatus(4));
359 wrongStatus = 15;
360 trackCand.addRefereeStatus(wrongStatus);
361 EXPECT_TRUE(trackCand.hasRefereeStatus(8));
362 }
363
367 TEST_F(SpacePointTrackCandTest, testRemoveSpacePoints)
368 {
369 // set up SpacePointTrackCand
370 SpacePointTrackCand fullTrackCand;
371
372 // set up some SpacePoints and add them to a SpacePointTrackCand
373 VxdID aVxdID1 = VxdID(1, 1, 1);
374 VXD::SensorInfoBase sensorInfoBase1 = createSensorInfo(aVxdID1, 2.3, 4.2);
375 PXDCluster aCluster = PXDCluster(aVxdID1, 0., 0., 0.1, 0.1, 0, 0, 1, 1, 1, 1, 1, 1);
376 const SpacePoint aPXDSpacePoint = SpacePoint(&aCluster, &sensorInfoBase1);
377 fullTrackCand.addSpacePoint(&aPXDSpacePoint, 1.23); // add a SpacePoint with an arbitrary sorting parameter
378
379 VxdID aVxdID2 = VxdID(2, 2, 2);
380 VXD::SensorInfoBase sensorInfoBase2 = createSensorInfo(aVxdID2, 2.3, 4.2);
381 SVDCluster aUCluster = SVDCluster(aVxdID2, true, -0.23, 0.1, 0.01, 0.001, 1, 1, 1, 1.0);
382 SVDCluster aVCluster = SVDCluster(aVxdID2, false, 0.42, 0.1, 0.01, 0.001, 1, 1, 1, 1.0);
383 std::vector<const SVDCluster*> UVClusterVec1 = { &aUCluster, &aVCluster };
384 std::vector<const SVDCluster*> VClusterVec = { &aVCluster };
385 std::vector<const SVDCluster*> UClusterVec = { &aUCluster };
386 const SpacePoint SVDSpacePoint1 = SpacePoint(UVClusterVec1, &sensorInfoBase2);
387 const SpacePoint SVDSpacePoint2 = SpacePoint(VClusterVec, &sensorInfoBase2);
388 const SpacePoint SVDSpacePoint3 = SpacePoint(UClusterVec, &sensorInfoBase2);
389 fullTrackCand.addSpacePoint(&SVDSpacePoint1, 2.34);
390 fullTrackCand.addSpacePoint(&SVDSpacePoint2, 3.45);
391 fullTrackCand.addSpacePoint(&SVDSpacePoint3, 4.56);
392
393 // set up a second TC, but omit one SpacePoint
394 SpacePointTrackCand expectedTC;
395 expectedTC.addSpacePoint(&aPXDSpacePoint, 1.23);
396 expectedTC.addSpacePoint(&SVDSpacePoint2, 3.45);
397 expectedTC.addSpacePoint(&SVDSpacePoint3, 4.56);
398
399 // remove SpcePoint from first TrackCand amd compare it with the expected TrackCand
400 fullTrackCand.removeSpacePoint(1);
401 EXPECT_TRUE(expectedTC == fullTrackCand);
402
403 std::vector<double> expectedSortParams = { 1.23, 3.45, 4.56 };
404 std::vector<double> sortParams = fullTrackCand.getSortingParameters();
405 EXPECT_EQ(expectedSortParams.size(), sortParams.size());
406 for (unsigned int i = 0; i < sortParams.size(); ++i) { EXPECT_DOUBLE_EQ(sortParams.at(i), expectedSortParams.at(i)); }
407
408 // try to remove a SpacePoint that is out of bounds
409 ASSERT_THROW(fullTrackCand.removeSpacePoint(fullTrackCand.getNHits()), SpacePointTrackCand::SPTCIndexOutOfBounds);
410 }
411
415 TEST_F(SpacePointTrackCandTest, testGetSortedHits)
416 {
417 // set up some SpacePoints and add them to a SpacePointTrackCand
418 VxdID aVxdID1 = VxdID(1, 1, 1);
419 VXD::SensorInfoBase sensorInfoBase1 = createSensorInfo(aVxdID1, 2.3, 4.2);
420 PXDCluster aCluster = PXDCluster(aVxdID1, 0., 0., 0.1, 0.1, 0, 0, 1, 1, 1, 1, 1, 1);
421 const SpacePoint aPXDSpacePoint = SpacePoint(&aCluster, &sensorInfoBase1);
422
423 VxdID aVxdID2 = VxdID(2, 2, 2);
424 VXD::SensorInfoBase sensorInfoBase2 = createSensorInfo(aVxdID2, 2.3, 4.2);
425 SVDCluster aUCluster = SVDCluster(aVxdID2, true, -0.23, 0.1, 0.01, 0.001, 1, 1, 1, 1.0);
426 SVDCluster aVCluster = SVDCluster(aVxdID2, false, 0.42, 0.1, 0.01, 0.001, 1, 1, 1, 1.0);
427 std::vector<const SVDCluster*> UVClusterVec1 = { &aUCluster, &aVCluster };
428 std::vector<const SVDCluster*> VClusterVec = { &aVCluster };
429 std::vector<const SVDCluster*> UClusterVec = { &aUCluster };
430 const SpacePoint SVDSpacePoint1 = SpacePoint(UVClusterVec1, &sensorInfoBase2);
431 const SpacePoint SVDSpacePoint2 = SpacePoint(VClusterVec, &sensorInfoBase2);
432 const SpacePoint SVDSpacePoint3 = SpacePoint(UClusterVec, &sensorInfoBase2);
433
434 VxdID aVxdId3 = VxdID(3, 3, 3);
435 VXD::SensorInfoBase sensorInfoBase3 = createSensorInfo(aVxdId3, 2.3, 4.2);
436 SVDCluster aUCluster2 = SVDCluster(aVxdId3, true, -0.23, 0.1, 0.01, 0.001, 1, 1, 1, 1.0);
437 SVDCluster aVCluster2 = SVDCluster(aVxdId3, false, 0.42, 0.1, 0.01, 0.001, 1, 1, 1, 1.0);
438 std::vector<const SVDCluster*> UVClusterVec2 = { &aUCluster2, &aVCluster2 };
439 std::vector<const SVDCluster*> VClusterVec2 = { &aVCluster2 };
440 std::vector<const SVDCluster*> UClusterVec2 = { &aUCluster2 };
441 const SpacePoint SVDSpacePoint4 = SpacePoint(UVClusterVec2, &sensorInfoBase3);
442 const SpacePoint SVDSpacePoint5 = SpacePoint(VClusterVec2, &sensorInfoBase3);
443 const SpacePoint SVDSpacePoint6 = SpacePoint(UClusterVec2, &sensorInfoBase3);
444
445
446 SpacePointTrackCand unsortedConstructed;
447 // add a SpacePoint with sorting parameter
448 unsortedConstructed.addSpacePoint(&aPXDSpacePoint, 1.0);
449 // add some SVD SpacePoints in logical order
450 unsortedConstructed.addSpacePoint(&SVDSpacePoint1, 2.34);
451 unsortedConstructed.addSpacePoint(&SVDSpacePoint2, 3.45);
452 unsortedConstructed.addSpacePoint(&SVDSpacePoint3, 4.56);
453 // add some SpacePoints in 'wrong' order
454 unsortedConstructed.addSpacePoint(&SVDSpacePoint4, 5.67);
455 unsortedConstructed.addSpacePoint(&SVDSpacePoint6, 7.89);
456 unsortedConstructed.addSpacePoint(&SVDSpacePoint5, 6.78);
457
458 // set up a SpacePointTrackCands already properly sorted
459 SpacePointTrackCand sortedConstructed;
460 sortedConstructed.addSpacePoint(&aPXDSpacePoint, 1.23);
461 sortedConstructed.addSpacePoint(&SVDSpacePoint1, 2.34);
462 sortedConstructed.addSpacePoint(&SVDSpacePoint2, 3.45);
463 sortedConstructed.addSpacePoint(&SVDSpacePoint3, 4.56);
464 sortedConstructed.addSpacePoint(&SVDSpacePoint4, 5.67);
465 sortedConstructed.addSpacePoint(&SVDSpacePoint5, 6.78);
466 sortedConstructed.addSpacePoint(&SVDSpacePoint6, 7.89);
467
468 // test sorting
469 SpacePointTrackCand sorted = SpacePointTrackCand(unsortedConstructed.getSortedHits());
470 // == compares the spacepoints
471 EXPECT_TRUE(sorted == sortedConstructed);
472
473 SpacePointTrackCand nothingChanged = SpacePointTrackCand(sortedConstructed.getSortedHits());
474 EXPECT_TRUE(nothingChanged == sortedConstructed);
475
476
477 std::vector<double> sortParams1 = { 1.0, 2.0, 3.0, 4.0, 5.0, 7.0, 6.0};
478 sortedConstructed.setSortingParameters(sortParams1);
479
480 // verify that sorting changed according to new sortParams
481 SpacePointTrackCand unsorted = SpacePointTrackCand(sortedConstructed.getSortedHits());
482 EXPECT_TRUE(unsorted == unsortedConstructed);
483 }
485}
int getPDGCode() const
PDG code.
Definition: Const.h:473
static const ChargedStable electron
electron particle
Definition: Const.h:659
The PXD Cluster class This class stores all information about reconstructed PXD clusters The position...
Definition: PXDCluster.h:30
The SVD Cluster class This class stores all information about reconstructed SVD clusters.
Definition: SVDCluster.h:29
Test class for the SpacePointTrackCand class.
VXD::SensorInfoBase createSensorInfo(VxdID aVxdID, double width=1., double length=1., double width2=-1.)
this is a small helper function to create a sensorInfo to be used
Storage for (VXD) SpacePoint-based track candidates.
const std::vector< double > & getSortingParameters() const
get the sorting parameters
void setSortingParameters(const std::vector< double > &sortParams)
set the sorting parameters
unsigned int getNHits() const
get the number of hits (space points) in the track candidate
int getPdgCode() const
get pdg code
const std::vector< const Belle2::SpacePoint * > & getHits() const
get hits (space points) of track candidate
void removeSpacePoint(int indexInTrackCand)
remove a SpacePoint (and its sorting parameter) from the SpacePointTrackCand
unsigned short int getRefereeStatus(unsigned short int bitmask=USHRT_MAX) const
Return the referee status code of the SpacePointTrackCand.
bool checkedSameSensors() const
Check if the SpacePointTrackCand has been checked for consecutive hits on same sensor.
int getMcTrackID() const
get the MC Track ID
void clearRefereeStatus()
clear the referee status.
void removeRefereeStatus(unsigned short int bitmask)
remove a referee status
@ c_curlingTrack
bit 8: SPTC is curling (resp.
@ c_checkedTrueHits
bit 5: All SpacePoints of the SPTC have a relation to at least one TrueHit.
@ c_hitsLowDistance
bit 3: SPTC has two (or more) SpacePoints that are not far enough apart.
@ c_checkedClean
bit 1: SPTC shows no 'problematic' behaviour.
@ c_initialState
This is the initialState, which will always be set in the beginning and at reset.
@ c_isActive
bit 11: SPTC is active (i.e.
@ c_checkedSameSensors
bit 6: It has been checked, if two consecutive SpacePoints are on the same sensor for this SPTC.
@ c_checkedByReferee
bit 0: SPTC has been checked by a Referee (all possible tests).
@ c_hitsOnSameSensor
bit 2: SPTC has two (or more) SpacePoints on same sensor.
bool isCurling() const
get if the TrackCand is curling.
bool hasHitsOnSameSensor() const
Check if the SpacePointTrackCand contains consecutive SpacePoints that are on the same sensor WARNING...
void addSpacePoint(const SpacePoint *newSP, double sortParam)
add a new SpacePoint and its according sorting parameter to the track candidate
void setRefereeStatus(unsigned short int bitmask)
set referee status (resets the complete to the passed status!)
void resetRefereeStatus()
resets the referee status to the initial value
const std::vector< const Belle2::SpacePoint * > getHitsInRange(int firstInd, int lastInd) const
get hits (SpacePoints) in range (indices of SpacePoint inside SpacePointTrackCand) including first in...
bool hasRefereeStatus(unsigned int short bitmask) const
Check if the SpacePointTrackCand has the status characterized by the bitmask.
const std::vector< double > getSortingParametersInRange(int firstIndex, int lastIndex) const
get the sorting parameters in range (indices of SpacePoints inside SpacePointTrackCand) including fir...
double getChargeSeed() const
get charge
void addRefereeStatus(unsigned short int bitmask)
add a referee status
void setPdgCode(int pdgCode)
set a hypothesis for the particle by setting a pdgcode (will also set the appropriate charge)
const std::vector< const Belle2::SpacePoint * > getSortedHits() const
get hits (space points) sorted by their respective sorting parameter
SpacePoint typically is build from 1 PXDCluster or 1-2 SVDClusters.
Definition: SpacePoint.h:42
Base class to provide Sensor Information for PXD and SVD.
void setTransformation(const TGeoHMatrix &transform, bool reco=false)
Set the transformation matrix of the Sensor.
Class to uniquely identify a any structure of the PXD and SVD.
Definition: VxdID.h:33
Abstract base class for different kinds of events.
STL namespace.