CMS 3D CMS Logo

 All Classes Namespaces Files Functions Variables Typedefs Enumerations Enumerator Properties Friends Macros Pages
MuonScenarioBuilder.cc
Go to the documentation of this file.
1 
9 #include <string>
10 #include <iostream>
11 #include <sstream>
12 
13 // Framework
16 
17 // Alignment
18 
23 
24 //__________________________________________________________________________________________________
26 {
27 
28  theAlignableMuon = dynamic_cast<AlignableMuon*>( alignable );
29 
30  if ( !theAlignableMuon )
31  throw cms::Exception("TypeMismatch") << "Argument is not an AlignableMuon";
32 
33 }
34 
35 
36 //__________________________________________________________________________________________________
38 {
39  // Apply the scenario to all main components of Muon.
40  theScenario = scenario;
42 
43  // Seed is set at top-level, and is mandatory
44  if ( this->hasParameter_( "seed", theScenario ) )
45  theModifier.setSeed( static_cast<long>(theScenario.getParameter<int>("seed")) );
46  else
47  throw cms::Exception("BadConfig") << "No generator seed defined!";
48 
49 
50 
51  // DT Barrel
52  std::vector<Alignable*> dtBarrel = theAlignableMuon->DTBarrel();
53  this->decodeMovements_( theScenario, dtBarrel, "DTBarrel" );
54  // CSC Endcap
55  std::vector<Alignable*> cscEndcaps = theAlignableMuon->CSCEndcaps();
56  this->decodeMovements_( theScenario, cscEndcaps, "CSCEndcap" );
57 
60  this->moveMuon(theScenario);
61 
62  edm::LogInfo("TrackerScenarioBuilder")
63  << "Applied modifications to " << theModifierCounter << " alignables";
64 }
65 
66 
67 
69 {
70  double scale_ = 0, scaleError_ = 0, phiX_ = 0, phiY_ = 0, phiZ_ = 0;
71  double dX_ = 0, dY_ = 0, dZ_ = 0;
72  std::string distribution_;
73  std::ostringstream error;
74  edm::ParameterSet Parameters = this->getParameterSet_((std::string)blockId, pSet);
75  std::vector<std::string> parameterNames = Parameters.getParameterNames();
76  for ( std::vector<std::string>::iterator iParam = parameterNames.begin(); iParam != parameterNames.end(); iParam++ ) {
77  if ( (*iParam) == "scale" ) scale_ = Parameters.getParameter<double>( *iParam );
78  else if ( (*iParam) == "distribution" ) distribution_ = Parameters.getParameter<std::string>( *iParam );
79  else if ( (*iParam) == "scaleError" ) scaleError_ = Parameters.getParameter<double>( *iParam );
80  else if ( (*iParam) == "phiX" ) phiX_ = Parameters.getParameter<double>( *iParam );
81  else if ( (*iParam) == "phiY" ) phiY_ = Parameters.getParameter<double>( *iParam );
82  else if ( (*iParam) == "phiZ" ) phiZ_ = Parameters.getParameter<double>( *iParam );
83  else if ( (*iParam) == "dX" ) dX_ = Parameters.getParameter<double>( *iParam );
84  else if ( (*iParam) == "dY" ) dY_ = Parameters.getParameter<double>( *iParam );
85  else if ( (*iParam) == "dZ" ) dZ_ = Parameters.getParameter<double>( *iParam );
86  else if ( Parameters.retrieve( *iParam ).typeCode() != 'P' )
87  { // Add unknown parameter to list
88  if ( !error.str().length() ) error << "Unknown parameter name(s): ";
89  error << " " << *iParam;
90  }
91  }
92  align::Scalars param;
93  param.push_back(scale_); param.push_back(scaleError_);
94  param.push_back(phiX_); param.push_back(phiY_);
95  param.push_back(phiZ_); param.push_back(dX_);
96  param.push_back(dY_); param.push_back(dZ_);
97  if( distribution_ == "gaussian" )
98  param.push_back(0);
99  else if ( distribution_ == "flat" )
100  param.push_back(1);
101  else if ( distribution_ == "fix" )
102  param.push_back(2);
103 
104  return param;
105 }
106 
107 //_____________________________________________________________________________________________________
109 {
110  std::vector<Alignable *> DTchambers = theAlignableMuon->DTChambers();
111  //Take parameters
112  align::Scalars param = this->extractParameters(pSet, "DTSectors");
113  double scale_ = param[0]; double scaleError_ = param[1];
114  double phiX_ = param[2]; double phiY_ = param[3]; double phiZ_ = param[4];
115  double dX_ = param[5]; double dY_ = param[6]; double dZ_ = param[7];
116  double dist_ = param[8];
117 
118  double dx = scale_*dX_; double dy = scale_*dY_; double dz = scale_*dZ_;
119  double phix = scale_*phiX_; double phiy = scale_*phiY_; double phiz = scale_*phiZ_;
120  double errorx = scaleError_*dX_; double errory = scaleError_*dY_; double errorz = scaleError_*dZ_;
121  double errorphix = scaleError_*phiX_; double errorphiy = scaleError_*phiY_; double errorphiz = scaleError_*phiZ_;
122  align::Scalars errorDisp;
123  errorDisp.push_back(errorx); errorDisp.push_back(errory); errorDisp.push_back(errorz);
124  align::Scalars errorRotation;
125  errorRotation.push_back(errorphix); errorRotation.push_back(errorphiy); errorRotation.push_back(errorphiz);
126 
127  int index[5][4][14];
128  int counter = 0;
129  //Create and index for the chambers in the Alignable vector
130  for(std::vector<Alignable *>::iterator iter = DTchambers.begin(); iter != DTchambers.end(); ++iter) {
131  DTChamberId myId((*iter)->geomDetId().rawId());
132  index[myId.wheel()+2][myId.station()-1][myId.sector()-1] = counter;
133  counter++;
134  }
135  for(int wheel = 0; wheel < 5; wheel++) {
136  for(int sector = 0; sector < 12; sector++) {
137  align::Scalars disp;
139  if( dist_ == 0 ) {
140  const std::vector<float> disp_ = theMuonModifier.gaussianRandomVector(dx, dy, dz);
141  const std::vector<float> rotation_ = theMuonModifier.gaussianRandomVector(phix, phiy, phiz);
142  disp.push_back(disp_[0]); disp.push_back(disp_[1]); disp.push_back(disp_[2]);
143  rotation.push_back(rotation_[0]); rotation.push_back(rotation_[1]); rotation.push_back(rotation_[2]);
144  } else if (dist_ == 1) {
145  const std::vector<float> disp_ = theMuonModifier.flatRandomVector(dx, dy, dz);
146  const std::vector<float> rotation_ = theMuonModifier.flatRandomVector(phix, phiy, phiz);
147  disp.push_back(disp_[0]); disp.push_back(disp_[1]); disp.push_back(disp_[2]);
148  rotation.push_back(rotation_[0]); rotation.push_back(rotation_[1]); rotation.push_back(rotation_[2]);
149  } else {
150  disp.push_back(dx); disp.push_back(dy); disp.push_back(dz);
151  rotation.push_back(phix); rotation.push_back(phiy); rotation.push_back(phiz);
152  }
153  for(int station = 0; station < 4; station++) {
154  Alignable *myAlign = DTchambers.at(index[wheel][station][sector]);
155  this->moveChamberInSector(myAlign, disp, rotation, errorDisp, errorRotation);
156  if(sector == 3 && station == 3) {
157  Alignable *myAlignD = DTchambers.at(index[wheel][station][12]);
158  this->moveChamberInSector(myAlignD, disp, rotation, errorDisp, errorRotation);
159  } else if(sector == 9 && station == 3) {
160  Alignable *myAlignD = DTchambers.at(index[wheel][station][13]);
161  this->moveChamberInSector(myAlignD, disp, rotation, errorDisp, errorRotation);
162  }
163  }
164  }
165  }
166 }
167 
168 
169 //______________________________________________________________________________________________________
171 {
172  std::vector<Alignable *> CSCchambers = theAlignableMuon->CSCChambers();
173  //Take Parameters
174  align::Scalars param = this->extractParameters(pSet, "CSCSectors");
175  double scale_ = param[0]; double scaleError_ = param[1];
176  double phiX_ = param[2]; double phiY_ = param[3]; double phiZ_ = param[4];
177  double dX_ = param[5]; double dY_ = param[6]; double dZ_ = param[7];
178  double dist_ = param[8];
179 
180  double dx = scale_*dX_; double dy = scale_*dY_; double dz = scale_*dZ_;
181  double phix = scale_*phiX_; double phiy = scale_*phiY_; double phiz = scale_*phiZ_;
182  double errorx = scaleError_*dX_; double errory = scaleError_*dY_; double errorz = scaleError_*dZ_;
183  double errorphix = scaleError_*phiX_; double errorphiy = scaleError_*phiY_; double errorphiz = scaleError_*phiZ_;
184  align::Scalars errorDisp;
185  errorDisp.push_back(errorx); errorDisp.push_back(errory); errorDisp.push_back(errorz);
186  align::Scalars errorRotation;
187  errorRotation.push_back(errorphix); errorRotation.push_back(errorphiy); errorRotation.push_back(errorphiz);
188 
189  int index[2][4][4][36];
190  int sector_index[2][4][4][36];
191  int counter = 0;
192  //Create an index for the chambers in the alignable vector
193  for(std::vector<Alignable *>::iterator iter = CSCchambers.begin(); iter != CSCchambers.end(); ++iter) {
194  CSCDetId myId((*iter)->geomDetId().rawId());
195  index[myId.endcap()-1][myId.station()-1][myId.ring()-1][myId.chamber()-1] = counter;
196  sector_index[myId.endcap()-1][myId.station()-1][myId.ring()-1][myId.chamber()-1] = CSCTriggerNumbering::sectorFromTriggerLabels(CSCTriggerNumbering::triggerSectorFromLabels(myId),CSCTriggerNumbering::triggerSubSectorFromLabels(myId) , myId.station());
197  counter++;
198  }
199  for(int endcap = 0; endcap < 2; endcap++) {
200  for(int ring = 0; ring < 2; ring++) {
201  for(int sector = 1; sector < 7; sector++) {
202  align::Scalars disp;
204  if( dist_ == 0 ) {
205  const std::vector<float> disp_ = theMuonModifier.gaussianRandomVector(dx, dy, dz);
206  const std::vector<float> rotation_ = theMuonModifier.gaussianRandomVector(phix, phiy, phiz);
207  disp.push_back(disp_[0]); disp.push_back(disp_[1]); disp.push_back(disp_[2]);
208  rotation.push_back(rotation_[0]); rotation.push_back(rotation_[1]); rotation.push_back(rotation_[2]);
209  } else if (dist_ == 1) {
210  const std::vector<float> disp_ = theMuonModifier.flatRandomVector(dx, dy, dz);
211  const std::vector<float> rotation_ = theMuonModifier.flatRandomVector(phix, phiy, phiz);
212  disp.push_back(disp_[0]); disp.push_back(disp_[1]); disp.push_back(disp_[2]);
213  rotation.push_back(rotation_[0]); rotation.push_back(rotation_[1]); rotation.push_back(rotation_[2]);
214  } else {
215  disp.push_back(dx); disp.push_back(dy); disp.push_back(dz);
216  rotation.push_back(phix); rotation.push_back(phiy); rotation.push_back(phiz);
217  }
218  //Different cases are considered in order to fit endcap geometry
219  for(int station = 0; station < 4; station++) {
220  if(station == 0) {
221  int r_ring[2];
222  if(ring == 0) {
223  r_ring[0] = 0; r_ring[1] = 3;
224  } else {
225  r_ring[0] = 1; r_ring[1] = 2;
226  }
227  for(int r_counter = 0; r_counter < 2; r_counter++) {
228  for(int chamber = 0; chamber < 36; chamber++) {
229  if(sector == (sector_index[endcap][station][r_ring[r_counter]][chamber]+1)/2) {
230  Alignable *myAlign = CSCchambers.at(index[endcap][station][r_ring[r_counter]][chamber]);
231  this->moveChamberInSector(myAlign, disp, rotation, errorDisp, errorRotation);
232  }
233  }
234  }
235  } else if(station == 3 && ring == 1) {
236  continue;
237  } else {
238  for(int chamber = 0; chamber < 36; chamber++) {
239  if(ring == 0 && chamber > 17) continue;
240  if(sector == sector_index[endcap][station][ring][chamber]) {
241  Alignable *myAlign = CSCchambers.at(index[endcap][station][ring][chamber]);
242  this->moveChamberInSector(myAlign, disp, rotation, errorDisp, errorRotation);
243  }
244  }
245  }
246  }
247  }
248  }
249  }
250 }
251 
252 
253 //______________________________________________________________________________________________________
255 {
256  std::vector<Alignable *> DTbarrel = theAlignableMuon->DTBarrel();
257  std::vector<Alignable *> CSCendcaps = theAlignableMuon->CSCEndcaps();
258  //Take Parameters
259  align::Scalars param = this->extractParameters(pSet, "Muon");
260  double scale_ = param[0]; double scaleError_ = param[1];
261  double phiX_ = param[2]; double phiY_ = param[3]; double phiZ_ = param[4];
262  double dX_ = param[5]; double dY_ = param[6]; double dZ_ = param[7];
263  double dist_ = param[8];
264  double dx = scale_*dX_; double dy = scale_*dY_; double dz = scale_*dZ_;
265  double phix = scale_*phiX_; double phiy = scale_*phiY_; double phiz = scale_*phiZ_;
266  double errorx = scaleError_*dX_; double errory = scaleError_*dY_; double errorz = scaleError_*dZ_;
267  double errorphix = scaleError_*phiX_; double errorphiy = scaleError_*phiY_; double errorphiz = scaleError_*phiZ_;
268  //Create an index for the chambers in the alignable vector
269  align::Scalars disp;
271  if( dist_ == 0 ) {
272  const std::vector<float> disp_ = theMuonModifier.gaussianRandomVector(dx, dy, dz);
273  const std::vector<float> rotation_ = theMuonModifier.gaussianRandomVector(phix, phiy, phiz);
274  disp.push_back(disp_[0]); disp.push_back(disp_[1]); disp.push_back(disp_[2]);
275  rotation.push_back(rotation_[0]); rotation.push_back(rotation_[1]); rotation.push_back(rotation_[2]);
276  } else if (dist_ == 1) {
277  const std::vector<float> disp_ = theMuonModifier.flatRandomVector(dx, dy, dz);
278  const std::vector<float> rotation_ = theMuonModifier.flatRandomVector(phix, phiy, phiz);
279  disp.push_back(disp_[0]); disp.push_back(disp_[1]); disp.push_back(disp_[2]);
280  rotation.push_back(rotation_[0]); rotation.push_back(rotation_[1]); rotation.push_back(rotation_[2]);
281  } else {
282  disp.push_back(dx); disp.push_back(dy); disp.push_back(dz);
283  rotation.push_back(phix); rotation.push_back(phiy); rotation.push_back(phiz);
284  }
285  for(std::vector<Alignable *>::iterator iter = DTbarrel.begin(); iter != DTbarrel.end(); ++iter) {
286  theMuonModifier.moveAlignable( *iter, false, true, disp[0], disp[1], disp[2] );
287  theMuonModifier.rotateAlignable( *iter, false, true, rotation[0], rotation[1], rotation[2] );
288  theMuonModifier.addAlignmentPositionError( *iter, errorx, errory, errorz );
289  theMuonModifier.addAlignmentPositionErrorFromRotation( *iter, errorphix, errorphiy, errorphiz );
290  }
291  for(std::vector<Alignable *>::iterator iter = CSCendcaps.begin(); iter != CSCendcaps.end(); ++iter) {
292  theMuonModifier.moveAlignable( *iter, false, true, disp[0], disp[1], disp[2] );
293  theMuonModifier.rotateAlignable( *iter, false, true, rotation[0], rotation[1], rotation[2] );
294  theMuonModifier.addAlignmentPositionError( *iter, errorx, errory, errorz );
295  theMuonModifier.addAlignmentPositionErrorFromRotation( *iter, errorphix, errorphiy, errorphiz );
296  }
297 }
298 
299 
300 //______________________________________________________________________________________________________
302 {
303  align::RotationType rotx( Basic3DVector<double>(1.0, 0.0, 0.0), rotation[0] );
304  align::RotationType roty( Basic3DVector<double>(0.0, 1.0, 0.0), rotation[1] );
305  align::RotationType rotz( Basic3DVector<double>(0.0, 0.0, 1.0), rotation[2] );
306  align::RotationType rot = rotz * roty * rotx;
308  align::GlobalPoint dispRot(pos.basicVector()-rot*pos.basicVector());
309  disp[0] += dispRot.x(); disp[1] += dispRot.y(); disp[2] += dispRot.z();
310  theMuonModifier.moveAlignable( chamber, false, true, disp[0], disp[1], disp[2] );
311  theMuonModifier.rotateAlignable( chamber, false, true, rotation[0], rotation[1], rotation[2] );
312  theMuonModifier.addAlignmentPositionError( chamber, dispError[0], dispError[1], dispError[2] );
313  theMuonModifier.addAlignmentPositionErrorFromRotation( chamber, rotationError[0], rotationError[1], rotationError[2] );
314 }
T getParameter(std::string const &) const
Entry const & retrieve(char const *) const
edm::ParameterSet theScenario
Misalignment scenario to apply (from config file)
AlignableModifier theMuonModifier
void setSeed(long seed)
Resets the generator seed according to the argument.
align::Alignables CSCChambers()
void moveCSCSectors(const edm::ParameterSet &scenario)
this special method allows to move a CSCsector by a same amount
void addAlignmentPositionError(Alignable *alignable, float dx, float dy, float dz)
Add the AlignmentPositionError (in global frame) to Alignable.
AlignableMuon * theAlignableMuon
Pointer to alignable Muon object.
align::Alignables DTBarrel()
const std::vector< float > gaussianRandomVector(float sigmaX, float sigmaY, float sigmaZ) const
Return a vector of random numbers (gaussian distribution)
void moveChamberInSector(Alignable *, align::Scalars, align::Scalars, align::Scalars, align::Scalars)
void moveMuon(const edm::ParameterSet &scenario)
this special method allows to move the complete muon system by a same amount
void moveAlignable(Alignable *alignable, bool random, bool gaussian, float sigmaX, float sigmaY, float sigmaZ)
Move alignable in global space according to parameters.
align::Scalars extractParameters(const edm::ParameterSet &, const char *)
align::Alignables CSCEndcaps()
vector< ParameterSet > Parameters
static int sectorFromTriggerLabels(int TriggerSector, int TriggerSubSector, int station)
align::Alignables DTChambers()
std::vector< Scalar > Scalars
Definition: Utilities.h:22
MuonScenarioBuilder(Alignable *alignable)
Constructor.
std::vector< std::string > getParameterNames() const
const std::vector< float > flatRandomVector(float sigmaX, float sigmaY, float sigmaZ) const
Return a vector of random numbers (flat distribution)
void decodeMovements_(const edm::ParameterSet &pSet, const std::vector< Alignable * > &alignables)
Decode movements defined in given parameter set for given set of alignables.
void moveDTSectors(const edm::ParameterSet &scenario)
This special method allows to move a DTsector by a same amount.
void rotateAlignable(Alignable *alignable, bool random, bool gaussian, float sigmaPhiX, float sigmaPhiY, float sigmaPhiZ)
Rotate alignable in global space according to parameters.
AlignableModifier theModifier
Helper class for random movements.
static int triggerSectorFromLabels(int station, int ring, int chamber)
void addAlignmentPositionErrorFromRotation(Alignable *alignable, float phiX, float phiY, float phiZ)
Add alignment position error resulting from rotation in global frame.
static int triggerSubSectorFromLabels(int station, int chamber)
char typeCode() const
Definition: Entry.h:175
const PositionType & globalPosition() const
Return the global position of the object.
Definition: Alignable.h:129
int theModifierCounter
Counter for applied modification.
Constructor of the full muon geometry.
Definition: AlignableMuon.h:36
T x() const
Definition: PV3DBase.h:61
bool hasParameter_(const std::string &name, const edm::ParameterSet &pSet) const
Check if given parameter exists in parameter set.
const BasicVectorType & basicVector() const
Definition: PV3DBase.h:56
void applyScenario(const edm::ParameterSet &scenario)
Apply misalignment scenario to the Muon.
edm::ParameterSet getParameterSet_(const std::string &name, const edm::ParameterSet &pSet) const