iCSA08
- Results before calibration, expect 5% extra smearing and 10% shift up with respect to ideal case
- Calibration in ideal case tunned for 50 GeV pions. According to TB2006 results, the ratio of response at 20 to 50 GeV is 0.806/0.839 = 0.96 for mip events in ecal for pi-.
- Using the isotrack sample from CSA08 (not full events), and using the mean of the Gauss fits, we find the ratio of response at 20 to 50 GeV is 0.932/1.033
- PLOTS Using the the calibration constants from the previous step (i.e. consts from phi-symmetry)
- c1_number_of_tracks.png --------- c1_p_trk_endcap.png ----------------- c1_ptrk_barrel.png
- c1_ecal_cluster_20.png ------------------ c1_ecal_cluster_50.png
- c1_banana_20.png: --------------------- c1_banana_50.png
- c1_mipresp_20.png --------------------- c1_mipresp_20_eta_gt_1_lt_1p3.png ------------- c1_mipresp_20_eta_lt_1.png
- c1_mipresp_50.png -------------------- c1_mipresp_50_eta_gt_1_lt_1p3.png --------------- c1_mipresp_50_eta_lt_1.png
- PLOTS Using the the calibration constants from the previous step x L3 (i.e. consts from phi-symmetry X L3)
- c2_mipresp_20.png -------------------- c2_mipresp_20_eta_gt_1_lt_1p3.png --------------- c2_mipresp_20_eta_lt_1.png
- c2_mipresp_50.png -------------------- c2_mipresp_50_eta_gt_1_lt_1p3.png --------------- c2_mipresp_50_eta_lt_1.png
- PLOTS Using the the calibration constants from the previous step x L3 x 20_50GeV Scale (i.e. consts from phi-symmetry X L3 X 0.9 )
- (20/50 GeV scaling factor is obtained from the previous plots above)
- c3_mipresp_20.png -------------------- c3_mipresp_20_eta_gt_1_lt_1p3.png --------------- c3_mipresp_20_eta_lt_1.png
- c3_mipresp_50.png -------------------- c3_mipresp_50_eta_gt_1_lt_1p3.png --------------- c3_mipresp_50_eta_lt_1.png
- Trk Eta vs P for events only has single iso-track.
- c1_trk_eta_p.png --------------------------------- tracks_eta_vs_p_wo_mip_cut.png
- track_eta_vs_pt.png ---------------------------------- track_eta_vs_pt_wo_mip_cut.png
- HE_resp_vs_ptrk.png:
- HE5b5_25_40_mip_resp.png, HE5b5_40_50_mip_resp.png, HE5b5_50_60_mip_resp.png, HE5b5_60_80_mip_resp.png, HE5b5_80_110_mip_resp.png, :
- *Constants for HB and HE
- HB_consts.png (3x3, 20 GeV before rescaling to 50 GeV (rescaling factor is 1.0/1.1) ------------------- HE_consts.png (5x5, at 50 GeV)
- S156_coefficients_plot.png:
- ratio.png:
- HE_minus_dijet_iso_compare.png ----------- HE_plus_dijet_iso_compare.png
- all_combibed_before_multiplication_by_phi_symmetry.png:
- all_combibed_unzoom_before_multiplication_by_phi_symmetry.png:
- HE_Validation_Plot.png:
- S156_FINAL.png: HB from phi-symmetry, HE up to ieta<26 isotrack, HE>25 and HF dijet. Scaled up by: ....
Submitting to CAF using CRAB
Now edit crab.cfg:
- Type the CMSSW cfg file into the crab.cfg.
- Write the output filename. The output filename should be same both in crab.cfg and CMSSW cfg.
- You need to give the right datasetpath which you will discover from DBS,
- If you are running on real data, you need to select the runs you will run on and modify runselection,
- and modify storage_path to something like
- /castor/cern.ch/user/......
- (do not forget to create this directory in castor with rfmkdir
- Then you are ready to create and submit the jobs to CAF like this:
crab -create
crab -submit -c
to check the status of the jobs:
bjobs
to see the output of one job:
bpeek <JOBID>
--
MainEfeYazgan - 31 Jul 2008