29-Cu- 65

 29-CU- 65 NAIG,MAPI  EVAL-MAR87 N.YAMAMURO,T.KAWAKITA            
                      DIST-SEP89 REV2-SEP93                       
----JENDL-3.2         MATERIAL 2931                               
-----INCIDENT NEUTRON DATA                                        
------ENDF-6 FORMAT                                               
HISTORY                                                           
87-03  EVALUATION WAS PERFORMED FOR JENDL-3.                      
87-05  COMPILED BY K.SHIBATA (JAERI).                             
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/.   
     -------------------------------------------------------------
                                                                  
                                                                  
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     14.073 B             -                          
      CAPTURE      2.168 B           2.22  B                      
      TOTAL       16.242 B             -                          
                                                                  
MF=3          NEUTRON CROSS SECTIONS                              
  MT=1      TOTAL                                                 
        50 TO 250 KEV : BASED ON THE MEASURED DATA OF ROHR ET     
                        AL./5/  THE DATA WERE SMOOTHED WITH 5%    
                        RESOLUTION.                               
        0.3 TO 3 MEV  : BASED ON THE EXPERIMENTAL DATA OF NATURAL 
                        ELEMENT/6,7/.                             
        3 TO 20 MEV   : OPTICAL-MODEL CALCULATION WITH CASTHY/8/. 
              THE OPTICAL POTENTIAL PARAMETERS USED ARE AS        
              FOLLOWS/9/ (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=2      ELASTIC SCATTERING                                    
        (TOTAL) - (REACTION CROSS SECTION)                        
                                                                  
  MT=4,51-70,91 INELASTIC SCATTERING                              
        STATISTICAL MODEL CALCULATIONS WERE MADE WITH CASTHY/8/   
        BELOW 3 MEV BY TAKING ACCOUNT OF COMPETING PROCESSES, AND 
        WITH GNASH/10/ ABOVE 3 MEV INCLUDING PREEQUILIBRIUM       
        EFFECTS.  THE DIRECT-PROCESS COMPONENT WAS CONSIDERED FOR 
        THE LEVELS OF MT=51-54,64,91 BY THE DWBA CALCULATIONS WITH
        DWUCK/11/.  THE LEVEL SCHEME WAS TAKEN FROM REF./12/.     
          NO.    ENERGY(MEV) SPIN-PARITY                          
          G.S.   0.0        3/2 -                                 
           1.    0.7706     1/2 -                                 
           2.    1.1160     5/2 -                                 
           3.    1.4820     7/2 -                                 
           4.    1.6230     5/2 -                                 
           5.    1.7250     3/2 -                                 
           6.    2.0940     7/2 -                                 
           7.    2.1070     5/2 -                                 
           8.    2.2130     1/2 -                                 
           9.    2.2780     7/2 -                                 
          10.    2.3290     3/2 -                                 
          11.    2.4070     9/2 -                                 
          12.    2.5260     9/2 +                                 
          13.    2.5330     5/2 -                                 
          14.    2.5340     7/2 +                                 
          15.    2.5930     1/2 -                                 
          16.    2.6440     9/2 -                                 
          17.    2.6500     5/2 -                                 
          18.    2.6550     5/2 -                                 
          19.    2.6690     5/2 -                                 
          20.    2.7530     9/2 +                                 
                                                                  
        LEVELS ABOVE 2.80 MEV WERE ASSUMED TO BE OVERLAPPING.     
                                                                  
  MT=16,22,28,32,103,104,107 (N,2N),(N,N'A),(N,N'P),(N,N'D),(N,P) 
     (N,D) AND (N,A) CROSS SECTIONS                               
        CALCULATED WITH GNASH/10/.                                
        OPTICAL POTENTIAL PARAMETERS FOR PROTON, ALPHA-PARTICLES  
        AND DEUTERON WERE AS FOLLOWS/13,14,15/.                   
     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                       
        BELOW 1.505 MEV, CALCULATION WITH CASTHY WAS ADOPTED.  A  
        VALUE OF 0.001 WAS EMPLOYED FOR THE GAMMA-RAY STRENGTH    
        FUNCTION FOR S-WAVE NEUTRONS.  ABOVE THIS ENERGY, CROSS   
        SECTION CURVE WAS BASED ON THE EXPERIMENTAL DATA/16, 17,  
        18/.  0.5MB WAS ASSUMED AT 14 MEV.                        
                                                                  
  MT=251    MU-BAR                                                
        CALCULATED WITH CASTHY.                                   
                                                                  
MF=4          ANGULAR DISTRIBUTIONS OF SECONDARY NEUTRONS         
  MT=2,51-70                                                      
        CALCULATED WITH CASTHY FOR EQUILIBRIUM PROCESS.  THE      
        COMPONENTS OF THE DIRECT PROCESS WERE ADDED TO THE LEVELS 
        OF MT=51-54,64 BY USING THE DWUCK CODE /11/.              
  MT=16, 22, 28, 32, 91                                           
        TAKEN FROM JENDL FUSION FILE.                             
                                                                  
MF=5          ENERGY DISTRIBUTIONS OF SECONDARY NEUTRONS          
  MT=16, 22, 28, 32, 91                                           
        TAKEN FROM JENDL FUSION FILE.                             
                                                                  
MF=12         PHOTON PRODUCTION MULTIPLICITIES                    
  MT=16,22,28,32,91,103,104,107                                   
        CALCULATED WITH GNASH.                                    
  MT=51-70                                                        
        TRANSITION PROBABILITIES ARE GIVEN.                       
  MT=102                                                          
        OBTAINED FROM ENERGY BALANCE.                             
                                                                  
MF=14         PHOTON ANGULAR DISTRIBUTIONS                        
  MT=16,22,28,32,51-70,91,102,103,104,107                         
        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/NNDL.       
 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. ET AL.: ANL-7710, 12 (1971).                      
 8) IGARASI S. AND FUKAHORI T.: JAERI 1321 (1991).                
 9) 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).           
10) 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).               
11) KUNZ P.D.: UNIV. COLORADO (1974).                             
12) WARD N.J. AND TULI J.K.: NUCL. DATA SHEETS, 47, 135 (1986).   
13) PEREY F.G.: PHYS. REV. 131, 745 (1963).                       
14) MCFADDEN L. AND SATCHLER G.R.: NUCL. PHYS. 84, 177 (1966).    
15) LOHR J.M. AND HAEBERLI W.: NUCL. PHYS. A232, 381 (1974).      
16) ZAIKIN G.G. ET AL.: ATOM. ENERGIJA, 10, 508(1961). EXFOR40248 
17) JOHNSRUD A.E. ET AL.: PHYS. REV., 116, 927 (1959). EXFOR11675 
18) VOIGNIER J. ET AL.: NUCL. SCI. ENG., 93, 43(1986). EXFOR22006