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1 | #ifndef ALIRICHRESPONSEV0_H |
| 2 | #define ALIRICHRESPONSEV0_H |
| 3 | |
| 4 | |
| 5 | /* Copyright(c) 1998-1999, ALICE Experiment at CERN, All rights reserved. * |
| 6 | * See cxx source for full Copyright notice */ |
| 7 | |
| 8 | /* $Id$ */ |
| 9 | |
| 10 | |
| 11 | #include "AliRICHResponse.h" |
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12 | class AliSegmentation; |
| 13 | |
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14 | |
| 15 | class AliRICHResponseV0 : //Mathieson response |
| 16 | public AliRICHResponse { |
| 17 | public: |
| 18 | AliRICHResponseV0(){} |
| 19 | virtual ~AliRICHResponseV0(){} |
| 20 | // |
| 21 | // Configuration methods |
| 22 | // |
| 23 | // Number of sigmas over which cluster didintegration is performed |
| 24 | virtual void SetSigmaIntegration(Float_t p1) {fSigmaIntegration=p1;} |
| 25 | virtual Float_t SigmaIntegration() {return fSigmaIntegration;} |
| 26 | // charge slope in ADC/e |
| 27 | virtual void SetChargeSlope(Float_t p1) {fChargeSlope=p1;} |
| 28 | virtual Float_t ChargeSlope() {return fChargeSlope;} |
| 29 | // sigma of the charge spread function |
| 30 | virtual void SetChargeSpread(Float_t p1, Float_t p2) |
| 31 | {fChargeSpreadX=p1; fChargeSpreadY=p2;} |
| 32 | virtual Float_t ChargeSpreadX() {return fChargeSpreadX;} |
| 33 | virtual Float_t ChargeSpreadY() {return fChargeSpreadY;} |
| 34 | // Adc-count saturation value |
| 35 | virtual void SetMaxAdc(Float_t p1) {fMaxAdc=p1;} |
| 36 | virtual Float_t MaxAdc() {return fMaxAdc;} |
| 37 | // anode cathode Pitch |
| 38 | virtual Float_t Pitch() {return fPitch;} |
| 39 | virtual void SetPitch(Float_t p1) {fPitch=p1;}; |
| 40 | // alpha feedback |
| 41 | virtual void SetAlphaFeedback(Float_t alpha) {fAlphaFeedback=alpha;} |
| 42 | virtual Float_t AlphaFeedback() {return fAlphaFeedback;} |
| 43 | // ionisation enrgy |
| 44 | virtual void SetEIonisation(Float_t e) {fEIonisation=e;} |
| 45 | virtual Float_t EIonisation() {return fEIonisation;} |
| 46 | // Mathieson parameters |
| 47 | virtual void SetSqrtKx3(Float_t p1) {fSqrtKx3=p1;}; |
| 48 | virtual void SetKx2(Float_t p1) {fKx2=p1;}; |
| 49 | virtual void SetKx4(Float_t p1) {fKx4=p1;}; |
| 50 | virtual void SetSqrtKy3(Float_t p1) {fSqrtKy3=p1;}; |
| 51 | virtual void SetKy2(Float_t p1) {fKy2=p1;}; |
| 52 | virtual void SetKy4(Float_t p1) {fKy4=p1;}; |
| 53 | // |
| 54 | // Chamber response methods |
| 55 | // Pulse height from scored quantity (eloss) |
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56 | virtual Float_t IntPH(Float_t eloss, Float_t yhit); |
| 57 | virtual Float_t IntPH(Float_t yhit); |
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58 | // Charge disintegration |
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59 | virtual Float_t IntXY(AliSegmentation * segmentation); |
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60 | virtual Int_t FeedBackPhotons(Float_t *source, Float_t qtot); |
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61 | // Wire sag |
| 62 | virtual void SetWireSag(Int_t p1) {fWireSag=p1;}; |
| 63 | virtual void SetVoltage(Int_t p1) {fVoltage=p1;}; |
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64 | protected: |
| 65 | Float_t fChargeSlope; // Slope of the charge distribution |
| 66 | Float_t fChargeSpreadX; // Width of the charge distribution in x |
| 67 | Float_t fChargeSpreadY; // Width of the charge distribution in y |
| 68 | Float_t fSigmaIntegration; // Number of sigma's used for charge distribution |
| 69 | Float_t fAlphaFeedback; // Feedback photons coefficient |
| 70 | Float_t fEIonisation; // Mean ionisation energy |
| 71 | Float_t fMaxAdc; // Maximum ADC channel |
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72 | Float_t fSqrtKx3; // Mathieson parameters for x |
| 73 | Float_t fKx2; // Mathieson parameters for x |
| 74 | Float_t fKx4; // Mathieson parameters for x |
| 75 | Float_t fSqrtKy3; // Mathieson parameters for y |
| 76 | Float_t fKy2; // Mathieson parameters for y |
| 77 | Float_t fKy4; // Mathieson parameters for y |
| 78 | Float_t fPitch; // Anode-cathode pitch |
| 79 | Int_t fWireSag; // Flag to turn on/off (0/1) wire sag |
| 80 | Int_t fVoltage; // Working voltage (2000, 2050, 2100, 2150) |
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81 | ClassDef(AliRICHResponseV0,1) |
| 82 | }; |
| 83 | #endif |
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