29-Cu- 63

 29-CU- 63 NAIG,MAPI  EVAL-MAR87 N.YAMAMURO,T.KAWAKITA            
                      DIST-MAR02 REV3-JUL01            20010713   
----JENDL-3.3         MATERIAL 2925                               
-----INCIDENT NEUTRON DATA                                        
------ENDF-6 FORMAT                                               
                                                                  
HISTORY                                                           
87-03  Evaluation was performed for JENDL-3.                      
87-05  Compiled by K.Shibata.                                     
93-09  JENDL-3.2.                                                 
         (3,1),(3,2),(3,102)  modified by T.Nakagawa(jaeri)       
         (12,102),(15,102)    modified by S.Igarasi(nedac)        
       Compiled by T.Nakagawa (ndc/jaeri)                         
                                                                  
     *****   Modified parts for JENDL-3.2   ********************  
      (2,151)              Upper boundary energy changed to 50 keV
      (3,1),(3,2)          50 keV - 153 keV                       
      (3,102)              50 keV - 20 MeV                        
      (4,16-32),(4,91)     Taken from JENDL fusion file           
      (5,16-91)            Taken from JENDL fusion file           
      (12,102),(15,102)                                           
     ***********************************************************  
                                                                  
     -------------------------------------------------------------
      JENDL fusion file /1/  (as of Sep. 1993)                    
        Evaluated by B.Yu(ciae) and S.Chiba (ndc/jaeri)           
        Compiled by B.Yu                                          
                                                                  
          Cross sections were taken from JENDL-3.1.  mf=6 (ddx's) 
        of mt=16, 22, 28, 32 and 91 were created with f15tob      
        program /1/.  Modified Kumabe's systematics/1/ was used.  
        The precompound/compound ratio was calculated by the      
        sincros-II code system/2/.                                
          Optical-model, level density and other parameters used  
        in the sincros-II calculation are described in ref./2/.   
        Level schemes were determined on the basis of ENSDF/3/.   
     -------------------------------------------------------------
                                                                  
00-10  Revised for JENDL-3.3 by K. Shibata (jaeri).               
                                                                  
     *****   Modified parts for JENDL-3.3 ************************
      (1,451)              Comments modified                      
      (3,1)                Above 50 keV                           
      (3,2)                Re-calculated.                         
      (3,203-207)          Calculated.                            
      (3,251)              Deleted.                               
      (4,2)                Transformation matrix deleted.         
      (4,16-32),(4,91)     Deleted.                               
      (5,16-32),(5,91)     Deleted.                               
      (6,16-32),(6,91)     Taken from JENDL fusion file           
      (6,203-207)          Taken form JENDL fusion file.          
     *************************************************************
                                                                  
                                                                  
mf=1          General information                                 
  mt=451    Descriptive data and dictionary                       
                                                                  
mf=2          Resonance parameters                                
  mt=151    Resolved resonance parameters for MLBW formula        
     parameters were mainly taken from the work of Mughabghab     
     et al./4/                                                    
     Resonance region : 1.0e-5 eV to 50 keV.                      
         Upper boundary of the resonance region was changed from  
         153 keV of JENDL-3.1 to 50 keV because serious level     
         missing was found above 50 keV.                          
     Scattering radius: 6.70 fm                                   
     Calculated 2200-m/s cross sections and res. integrals        
                  2200-m/s         res. integ.                    
      elastic     5.102 b             -                           
      capture     4.506 b           5.01  b                       
      total       9.608 b             -                           
                                                                  
mf=3          Neutron cross sections                              
                                                                  
  mt=1      Total                                                 
        50 to 140 keV   : Based on the measured data of Rohr et   
                          al./5/                                  
        0.140 to 1.4 MeV: Based on the experimental data of       
                          natural element /6/                     
        1.4 to 20 MeV   : Least-squares fit to the experimental   
                          data of natural element /6,7,8,9,       
                          10/.                                    
                                                                  
  mt=2      Elastic scattering                                    
        (total) - (reaction cross sections)                       
                                                                  
  mt=4,51-67,91 Inelastic scattering                              
        Statistical model calculations were made with casthy/11/  
        below 3 MeV by taking account of competing processes, and 
        with gnash/12/ above 3 MeV including preequilibrium       
        effects.  The direct-process components were considered   
        for the levels of mt=51-54,65,91 by the DWBA calculations 
        with dwuck/13/.  The level scheme was taken from ref/14/  
                                                                  
          no.    energy(MeV) spin-parity                          
          g.s.      0.0        3/2 -                              
           1.       0.6697     1/2 -                              
           2.       0.9621     5/2 -                              
           3.       1.3270     7/2 -                              
           4.       1.4120     5/2 -                              
           5.       1.5470     3/2 -                              
           6.       1.8610     7/2 -                              
           7.       2.0110     3/2 -                              
           8.       2.0620     1/2 -                              
           9.       2.0810     5/2 -                              
          10.       2.0930     7/2 -                              
          11.       2.2080     9/2 -                              
          12.       2.3370     5/2 -                              
          13.       2.4050     7/2 -                              
          14.       2.4970     3/2 -                              
          15.       2.5050     9/2 +                              
          16.       2.5120     1/2 -                              
          17.       2.5360     5/2 -                              
                                                                  
        Levels above 2.54 MeV were assumed to be overlapping.     
                                                                  
        The neutorn optical potential parameters used are as      
        follows /15/ (in the units of MeV and fm):                
          V  = 51.725 - 0.447*E   r0 = 1.221    a0  = 0.683       
          Ws = 8.44 + 0.055*E     rs = 1.223    as  = 0.507       
                                (derivative Woods-Saxon form)     
          Vso= 8.0                rso= 1.221    aso = 0.683       
                                                                  
  mt=16,22,28,32,103,104 (n,2n),(n,n'a),(n,n'p),(n,n'd),(n,p)     
     (n,d) cross sections                                         
        Calculated with gnash/12/.                                
        Optical potential parameters for proton, alpha-particle   
        and deuteron were as follows /16,17,18/.                  
     proton                                                       
        V  = 59.11 - 0.55*E    r0 = 1.25    a0 = 0.65             
        Ws = 10.4              rs = 1.25    as = 0.47             
        Vso= 7.5               rso= 1.25    aso= 0.47             
     alpha-particle                                               
        V  = 164.7             r0 = 1.442   a0 = 0.52             
        Wv = 22.4              rv = 1.442   av = 0.52             
                               rc = 1.30                          
     deuteron                                                     
        V  = 106.69            r0 = 1.05    a0 = 0.86             
        Ws = 13.92             rs = 1.43    as = 0.704            
        Vso= 7.0               rso= 0.75    aso= 0.5              
                               rc = 1.3                           
                                                                  
  mt=102    Radiative capture cross section                       
        Taken from JENDL activation cross section file.  The cross
        section was calculated by N.Yamamuro/19/ with sincros-II. 
                                                                  
  mt=107    (n,a) cross section                                   
        Calculated cross sections were normalized to the          
        experimental data/20/ at 10 MeV.  Above 12 MeV, the       
        excitation function follows the data of Paulsen/21/.      
                                                                  
  mt=203    Total proton production                               
        Sum of mt=28 and 103.                                     
                                                                  
  mt=204    Total deuteron production                             
        Sum of mt=32 and 104.                                     
                                                                  
  mt=207    Total alpha production                                
        Sum of mt=22 and 107.                                     
                                                                  
mf=4          Angular distributions of secondary neutrons         
  mt=2,51-67                                                      
        Calculated with casthy for equilibrium process.  The      
        components of the direct process were added to the levels 
        of mt=51-54,65 by using the dwuck code /16/.              
                                                                  
mf=6          Energy-angle distributions of secondary particles   
  mt=16, 22, 28, 32, 91, 203, 204, 207                            
        Taken from JENDL fusion file.                             
                                                                  
mf=12         Photon production multiplicities                    
  mt=16,22,28,32,91,103,104,107                                   
        Calculated with gnash.                                    
  mt=51-67                                                        
        Ttransition probabilities are given.                      
  mt=102                                                          
        Obtained from energy balance.                             
                                                                  
mf=14         Photon angular distributions                        
  mt=16,22,28,32,51-67,91,102,103,104,107                         
        Assumed to be isotropic.                                  
                                                                  
mf=15         Photon energy distributions                         
  mt=16,22,28,32,91,103,104,107                                   
        Calculated with gnash.                                    
  mt=102                                                          
        Calculated with casthy.                                   
                                                                  
References                                                        
 1) Chiba S. et al.: JAERI-M 92-027, p.35 (1992).                 
 2) Yamamuro N.: JAERI-M 90-006 (1990).                           
 3) ENSDF: Evaluated Nuclear Structure Data File, BNL/NNDC.       
 4) Mughabghab S.F., Divadeenam M. and Holden N.E.: "Neutron Cross
    Sections, Vol. 1, Part A", Academic Press (1981).             
 5) Rohr G. et al.: EANDC(E)-89, p.1 (1968), EXFOR 20151003.      
 6) Foster Jr., D.G. and Glasgow D.W.: Phys. Rev., C3, 576 (1971).
 7) Whalen J.F. and Meadows J.W. : ANL-7710, 12 (1971).           
 8) Guenther P.T., Smith D.L., Smith A.B. and Whalen J.F.: Nucl.  
    Phys. A448, 280 (1986).                                       
 9) Finlay R.W., Abfalterer W.P., Fink G., Moneti E., Adami T.,   
    Lisowski P.W., Morgan G.L. and Haight R.C.: Phys. Rev. C47,   
    237 (1993).                                                   
10) Larson D.C.: Proc. Symp. Neutron Cross-Sections from 10 to    
    50 MeV, BNL-NCS-51245, p.277 (1980).                          
11) Igarasi S. and Fukahori T.: JAERI 1321 (1991).                
12) Young P.G. and Arthur E.D.: "GNASH, A Preequilibrium,         
    Statistical Nuclear-Model Code for Calculation of Cross       
    Sections and Emission Spectra", LA-6974 (1977).               
13) Kunz P.D.: Univ. Colorado (1974).                             
14) Auble R.L.: Nucl. Data Sheets 28, 559 (1979).                 
15) Hetrick D.M., Fu C.Y. and Larson D.C.: "Calculated Neutron-   
    Induced Cross Sections for Cu-63, 65 from 1 to 20 MeV and     
    Comparisons with Experiments", ORNL/TM-9083 (1984).           
16) Perey F.G.: Phys. Rev. 131, 745 (1963).                       
17) McFadden L. and Satchler G.R.: Nucl. Phys. 84, 177 (966).     
18) Lohr J.M. and Haeberli W.: Nucl. Phys. a232, 381 (1974).      
19) Yamamuro N.: Private communication.                           
20) Winkler G., Smith D.L. and Meadows J.W.: Nucl. Sci. Eng. 76,  
    30 (1980).                                                    
21) Paulsen A.: Nucleonik, 10, 91 (1967)