ADOPTED LEVELS, GAMMAS for 106Pd

Authors: D. De Frenne and A. Negret |  Citation: Nucl. Data Sheets 109, 943 (2008) |  Cutoff date: 1-May-2007 

 Full ENSDF file | Adopted Levels (PDF version) 


Q(β-)=-2965 keV 3S(n)= 9561.0 keV 3S(p)= 9345.8 keV 24Q(α)= -3229.4 keV 16
Reference: 2012WA38

References:
  A  106Rh β- decay (30.07 S)  B  106Rh β- decay (131 M)
  C  106Ag ε decay (23.96 M)  D  106Ag ε decay (8.28 d)
  E  96Zr(13C,3nγ)  F  104Ru(α,2nγ)
  G  105Pd(n,γ),(n,E) E=THERMAL  H  105Pd(n,γ) E=resonance
  I  105Pd(n,γ) E=RES: AV  J  105Pd(n,γ) E=2 KEV RES
  K  105Pd(n,γ) E=24 KEV RES  L  105Pd(d,p)
  M  106Pd(γ,γ’)  N  106Pd(E,E’)
  O  106Pd(n,n’γ)  P  106Pd(p,p’),(d,d’)
  Q  106Pd(p,p’γ)  R  106Pd(α,α’)
  S  Coulomb Excitation  T  108Pd(p,t)
  U  109Ag(p,α)  V  106Cd 2β+ decay








E(level)
(keV)		XREFJπ(level) T1/2(level)E(γ)
(keV)		I(γ)M(γ)Final Levels
     0.0ABCDEFGHIJKLMNOP RSTUV 0+ STABLE      
   511.850 23 ABCDEFGHIJKLMNOP RSTUV 2+ 12.2 ps 4     511.842 28 
   100
E2
     0.0
0+
  1128.02 3 ABCDEFGHIJKL NOP RSTUV 2+ 3.12 ps 25     616.174 24 
  1128.00 6 
   100.0 24 
    54.4 8 
M1+E2+E0
E2
   511.850
     0.0
2+
0+
  1133.76 4 A C   GH JK   O  RST V 0+ 5.8 ps 13       6 1 
   621.94 3 
  1133.7 7 
 
   100.0 12 
 
[E2]
E2
E0
  1128.02
   511.850
     0.0
2+
2+
0+
  1220                    U         
  1229.30 4 ABCDEFGHIJKL NOP RST   4+ 1.31 ps 18     101 1 
   717.24 6 
 
   100
[E2]
E2
  1128.02
   511.850
2+
2+
  1557.68 4 AB DEFGHIJK   O        3+      328.460 20 
   429.64 5 
  1045.83 8 
     3.86 17 
    44.5 12 
   100 5 
E2(+M1)
M1+E2
M1+E2
  1229.30
  1128.02
   511.850
4+
2+
2+
  1562.25 3 A CD FGHIJKL  OP   TU  2+      333 1 
   428.56 9 
   434.25 21 
  1050.39 5 
  1562.24 5 
 
     4.53 13 
     1.30 13 
   100.0 17 
    10.43 12 

[E2]
[E2]
(M1+E2)

  1229.30
  1133.76
  1128.02
   511.850
     0.0
4+
0+
2+
2+
0+
  1700                    U         
  1706.44 5 A C   G IJK   OP   T   0+ 2.8 ps 5     578.38 9 
  1194.53 4 
    15.1 11 
   100.0 7 
E2
E2
  1128.02
   511.850
2+
2+
  1904.21 9       G                2-,3-      347.14 13 
   775.75 11 
  ≤198
   100 11 
E1

  1557.68
  1128.02
3+
2+
  1909.37 16 A C   GHIJKL  OP   T   2+      781.6 5 
  1397.4 2 
  1909.5 3 
     2.8 9 
   100.0 10 
    35 4 



  1128.02
   511.850
     0.0
2+
2+
0+
  1920                    U         
  1932.32 6  B DEFGHIJKL NOP   T   4+ 1.16 ps 16     374.46 13 
   703.11 7 
   804.34 13 
  1419.4 8 
     2.12 28 
    35.8 13 
   100 4 
     0.28 14 
M1(+E2)
M1+E2
E2

  1557.68
  1229.30
  1128.02
   511.850
3+
4+
2+
2+
E(level)
(keV)		XREFJπ(level) T1/2(level)E(γ)
(keV)		I(γ)M(γ)Final Levels
  2001.48 5 A C   GHIJK   OP   T   0+      439.19 26 
   873.48 4 
  1489.60 19 
  2002 1 
     2.9 5 
   100.0 12 
     0.75 13 
 

E2

E0
  1562.25
  1128.02
   511.850
     0.0
2+
2+
2+
0+
  2076.69 4      F HI     O        4+      847.270 20 
   949.52 25 
  1565.76 11 
   100 33 
    12.2 22 
     5.9 7 
E2


  1229.30
  1128.02
   511.850
4+
2+
2+
  2077.01 6  B DEFG  JK            6+ 0.49 ps 5     848.0 2 
   100
E2
  1229.30
4+
  2083.92 5  B DEFGHIJKL  OP RST   3- 1.2 ps 3     522.30 30 
   956.22 22 
  1572.35 15 
  2084.0 4 
     1.33 27 
     7.2 12 
   100 8 
     0.35 7 


E1
[E3]
  1562.25
  1128.02
   511.850
     0.0
2+
2+
2+
0+
  2229.20 21     EF                      999.9 2 
   100

  1229.30
4+
  2242.48 5 A C   GHIJKL  OP   TU  2+      680.22 8 
   684.80 20 
  1108.76 12 
  1114.48 5 
  1730.35 23 
  2242.46 12 
    78 14 
    42.8 16 
    47 4 
   100 7 
    17.9 13 
    15.8 7 
M1,E2


M1+E2


  1562.25
  1557.68
  1133.76
  1128.02
   511.850
     0.0
2+
3+
0+
2+
2+
0+
  2278.11 9 A C   G  JK   O        0+      715.90 20 
  1150.20 20 
  1766.20 10 
    29.2 12 
     8.9 6 
   100.0 18 

[E2]
E2
  1562.25
  1128.02
   511.850
2+
2+
2+
  2283.05 5    D  GHIJKL  OP R T   4+     1053.77 21 
  1771.1 3 
   100 15 
     4.2 7 
M1,E2

  1229.30
   511.850
4+
2+
  2305.62 5  B DEFGHIJK   O    T   4- 2.0 ns 5     221.701 10 
   228.630 20 
   748.44 7 
  1077.2 5 
  1178.07 21 
  1794.01 27 
    32.3 11 
    10.2 5 
   100.0 26 
     0.26 9 
     0.94 13 
     0.18 7 
M1+E2

E1

[M2]
[M2]
  2083.92
  2077.01
  1557.68
  1229.30
  1128.02
   511.850
3-
6+
3+
4+
2+
2+
E(level)
(keV)		XREFJπ(level) T1/2(level)E(γ)
(keV)		I(γ)M(γ)Final Levels
  2308.82 5 A C   GHIJKL  O     U  2+      751.30 20 
  1180.72 6 
  1796.97 7 
  2309.30 20 
     3.9 8 
    52.6 13 
   100.0 15 
    ≤9.0

M1+E2
M1+E2

  1557.68
  1128.02
   511.850
     0.0
3+
2+
2+
0+
  2350.86 5  B D FG IJKL  O    T   4+      418.71 28 
   793.30 25 
  1121.60 18 
  1222.88 12 
  1839.05 10 
     5.2 10 
    83 4 
     8.1 9 
   100 5 
    29 4 

M1+E2

E2
E2
  1932.32
  1557.68
  1229.30
  1128.02
   511.850
4+
3+
4+
2+
2+
  2366.01 5    DEFGH JK   O        5+      433.9 4 
   808.37 10 
  1136.85 19 
     2.2 9 
   100 5 
     5.7 7 

(M1+E2)

  1932.32
  1557.68
  1229.30
4+
3+
4+
  2397.41 25    DE G    L   P R TU  (5)-     1168.25 25 
   100
E1+M2
  1229.30
4+
  2400.84 25       GHIJK   O        2-,3-     1272.4 3 
  1889.7 4 
   100 12 
    52 12 


  1128.02
   511.850
2+
2+
  2439.10 7 A C   G IJKL  O    T   2+     1209.80 20 
  1305.20 20 
  1927.27 10 
  2439.07 12 
     2.9 7 
     8.7 9 
   100.0 26 
    30.1 13 


[M1+E2]
[E2]
  1229.30
  1133.76
   511.850
     0.0
4+
0+
2+
0+
  2472.26 10       G I  L  O        1+,2+      471.5 2 
   765.67 12 
  1960.17 20 
 
    83 8 
   100 17 



  2001.48
  1706.44
   511.850
0+
0+
2+
  2484.66 20 A     GHIJK   O        (1-)     1973.5 10 
  2484.60 20 
    20 11 
   100 7 


   511.850
     0.0
2+
0+
  2495 1                P R     1-        
  2500 4 A     G            TU  2+        
  2500.31 8   C    HI  L  O        2-      942.6 4 
  1372.30 30 
  1988.44 8 
     2.2 5 
     7.9 7 
   100.0 8 


E1+M2
  1557.68
  1128.02
   511.850
3+
2+
2+
  2578.56 24    DEFGHI  L  OP   TU  (5-)     1020.7 3 
  1349.5 6 
    50 8 
   100 11 


  1557.68
  1229.30
3+
4+
E(level)
(keV)		XREFJπ(level) T1/2(level)E(γ)
(keV)		I(γ)M(γ)Final Levels
  2591.6 4        HI  L  O        (2,3)+      659.3 3 
   100

  1932.32
4+
  2624.40 5 A C   G       O        0+     1062.14 5 
  1496.33 13 
  2112.54 6 
    92.9 12 
    64.5 18 
   100 5 


[E2]
  1562.25
  1128.02
   511.850
2+
2+
2+
  2626.84 9       G I  L           (2,3)+     1064.60 11 
  1498.80 20 
  2114.95 13 
    12 2 
  ≤100
    49 7 



  1562.25
  1128.02
   511.850
2+
2+
2+
  2648.9 5         I  L  OP R T   4+     1086.5 5 
   100

  1562.25
2+
  2699.37 15     EF     L           (6)- 0.5 ns 1     301.99 10 
   393.36 20 
   100 3 
    14 2 
M1+E2
E2
  2397.41
  2305.62
(5)-
4-
  2705.30 8 A C     I     O        (1)+      702.8 10 
  1572.40 20 
  1577.20 20 
  2193.30 10 
  2705.02 18 
     6 4 
     3.8 4 
    22 4 
   100 6 
    50.5 20 



M1+E2

  2001.48
  1133.76
  1128.02
   511.850
     0.0
0+
0+
2+
2+
0+
  2712 5                P       (4+)        
  2713.89 8 A     G I  L           2+,3+     1156.28 12 
  1484.49 11 
  2202.07 15 
   100 13 
    50 7 
    30 5 



  1557.68
  1229.30
   511.850
3+
4+
2+
  2717.59 21 A                          1159.90 20 
   100

  1557.68
3+
  2737           L       T          
  2741.0 5       G       OP       4+     2229.5 10 
  2740.9 5 
    51 13 
   100 28 


   511.850
     0.0
2+
0+
  2748.2 4        HI     O    T   2,3-     2236.3 4 
   100

   511.850
2+
  2757.06 4  B D F     L     R     5+ < 3.6 ns    178.2 5 
   391.039 30 
   406.17 3 
   450.97 3 
   474.060 30 
   680.420 10 
   824.79 15 
  1199.39 10 
  1527.65 19 
     0.19 6 
    13.3 5 
    47.6 11 
   100.0 22 
     3.31 19 
     5.50 28 
    54.7 14 
    40.0 19 
    58 15 

E2(+M1)
M1+E2
E1
M1+E2
M1,E2
M1+E2
E2
M1+E2
  2578.56
  2366.01
  2350.86
  2305.62
  2283.05
  2076.69
  1932.32
  1557.68
  1229.30
(5-)
5+
4+
4-
4+
4+
4+
3+
4+
E(level)
(keV)		XREFJπ(level) T1/2(level)E(γ)
(keV)		I(γ)M(γ)Final Levels
  2775.9 8       G            T   (4+)      533.53 12 
  1218.26 14 
  1546.64 16 
  2263.84 17 
    64 8 
   100 17 
    36 6 
    64 11 




  2242.48
  1557.68
  1229.30
   511.850
2+
3+
4+
2+
  2783.74 21 A     G I  L  OP   T   2+     1554.50 15 
  1655.66 17 
  2271.84 15 
     3.7 10 
     7.3 10 
   100 16 



  1229.30
  1128.02
   511.850
4+
2+
2+
  2793.67 16     EF     L           (7-)      396.26 5 
   717.1 4 
   100 2 
    81 5 
(E2)
(E1)
  2397.41
  2077.01
(5)-
6+
  2820.97 9 A     G    L  OP       2+     1258.80 20 
  1687.40 30 
  1693.20 30 
  2309.00 10 
  2821.10 30 
    13.3 19 
    13 3 
    15 3 
   100.0 29 
    28 1 





  1562.25
  1133.76
  1128.02
   511.850
     0.0
2+
0+
2+
2+
0+
  2828.29 9 A C   G    L       T   0+     1266.00 20 
  2316.42 9 
    16.3 16 
   100.0 9 

E2
  1562.25
   511.850
2+
2+
  2847 5         I      P       (4+)        
  2850.6 5       G    L  O        2+,3+     1621.3 4 
   100

  1229.30
4+
  2861.4 4       G I     O        (+)     1303.4 4 
  1631.7 6 
   100 28 
    52 12 


  1557.68
  1229.30
3+
4+
  2877.92 7 A C   G I              0+     1315.70 20 
  2366.04 7 
    14.9 9 
   100.0 9 
[E2]
[E2]
  1562.25
   511.850
2+
2+
  2879 5            L   P       (1-)        
  2886.5 7       G I     O        (-)     2374.6 7 
   100

   511.850
2+
  2898.1 7       G I     O        (1-,4-)     1668.8 7 
   100

  1229.30
4+
  2902.48 10 A     G    L  O        2+     1774.5 7 
  2390.60 10 
  2902.5 8 
    19 3 
   100.0 22 
     1.0 3 

(M1+E2)

  1128.02
   511.850
     0.0
2+
2+
0+
  2908.7 7       G I     OP       (1-)     2396.8 7 
   100

   511.850
2+
  2917.86 8 A     G I  L  O    T   2+     1355.70 30 
  1360.20 30 
  1784.10 30 
  2405.96 9 
  2917.90 30 
     4.4 10 
    15.4 4 
     3.0 8 
   100.0 28 
     6.34 28 



M1+E2

  1562.25
  1557.68
  1133.76
   511.850
     0.0
2+
3+
0+
2+
0+
E(level)
(keV)		XREFJπ(level) T1/2(level)E(γ)
(keV)		I(γ)M(γ)Final Levels
  2930 5       G        P       4+        
  2936.0 6         I     O        (2-,3-)     2424.1 6 
   100

   511.850
2+
  2951.84 6  B D       L           5+ < 2.0 ns    195.06 15 
   585.97 10 
   601.17 7 
   646.02 5 
   874.81 18 
  1019.9 3 
  1394.35 14 
  1722.76 18 
    19.5 20 
    28.2 26 
   100 4 
    90 4 
    20.7 27 
    66 5 
    93 11 
    74 14 
M1(+E2)
M1(+E2)
M1+E2
E1

M1,E2
[E2]
(M1+E2)
  2757.06
  2366.01
  2350.86
  2305.62
  2077.01
  1932.32
  1557.68
  1229.30
5+
5+
4+
4-
6+
4+
3+
4+
  2963.0 4     EF                 8+ 0.33 ps 7     886.0 3 
   100
E2
  2077.01
6+
  2968.68 21 A     GHI     OP   T   3-     2456.8 2 
   100

   511.850
2+
  2977.4 20         I  L           +        
  2977.93 21     E               U  (7-)      901.1 2 
   100
(E1)
  2077.01
6+
  2998.77 16     EF                 (8-) < 0.2 ns    205.11 5 
   299.39 10 
   100 6 
    96 10 
(M1+E2)
(E2)
  2793.67
  2699.37
(7-)
(6)-
  3026 3            L           +        
  3037.32 17 A     G       O        1,2     1909.30 20 
  2525.2 6 
  3037.30 30 
   100 7 
    14.3 29 
    71.4 29 



  1128.02
   511.850
     0.0
2+
2+
0+
  3042.7 25         I  L   P       4+        
  3054.97 9 A     G I  L  O        1+     1498.80 20 
  2542.70 10 
  3055.0 4 
   100 6 
    44 2 
     5 1 

[M1+E2]

  1557.68
   511.850
     0.0
3+
2+
0+
  3069 5            L   P       2+        
  3069.9 6       G I     O        (2,3)-     2558.0 6 
   100

   511.850
2+
  3083.91 18 A          L  OP       0     1954.6 4 
  2571.10 20 
    12.7 28 
   100 4 

Q
  1128.02
   511.850
2+
2+
  3097 3            L           (1-,2+)        
  3120.0 10            L  O        2+,3+     2608.1 10 
   100

   511.850
2+
E(level)
(keV)		XREFJπ(level) T1/2(level)E(γ)
(keV)		I(γ)M(γ)Final Levels
  3123 5                P       (6+)        
  3144 3            L           2+,3+        
  3161.0 5            L  O        2+     1602.2 12 
  2649.3 5 
    23 12 
   100 18 

Q
  1557.68
   511.850
3+
2+
  3163.7 3 A             OP       (1,2+)     2651.7 3 
  3165.4 13 
 
 


   511.850
     0.0
2+
0+
  3173.8 6       G    L  O        (2+,3+)     1616.4 6 
  2045.1 9 
    93 28 
   100 23 


  1557.68
  1128.02
3+
2+
  3176.77 20     EF                 (8-)      199.0 3 
   383.11 20 
   477.0 3 
    46 8 
   100 12 
    62 12 
(D+Q)
D+Q

  2977.93
  2793.67
  2699.37
(7-)
(7-)
(6)-
  3217 5                P   T   3-        
  3221.37 25 A     G                0+     2093.3 4 
  2709.5 3 
     9.8 22 
   100 27 
[E2]
[E2]
  1128.02
   511.850
2+
2+
  3249.9 5 A              P   T   2+     3249.8 5 
   100

     0.0
0+
  3252.0 4 A                      2+     2740.1 4 
   100

   511.850
2+
  3273.5 7 A                      1,2     3273.4 7 
   100

     0.0
0+
  3275 5                P       3-        
  3289.65 16     EF                 (9-) 0.2 ns 1     290.89 10 
   495.97 5 
    63 2 
   100 5 
D+Q
E2
  2998.77
  2793.67
(8-)
(7-)
  3299.2 7 A                          2787.3 7 
   100

   511.850
2+
  3320.5 3 A     G                0+     2185.7 5 ?
  2809.00 30 
    35 9 
   100 6 

[E2]
  1133.76
   511.850
0+
2+
  3321 5                P       5-        
  3359 5                P       (5-,6+)        
  3397 5 A              P       4+        
  3414 5                P       3-        
  3449 5                P       2+        
  3461.89 20     EF                 9(-) 0.25 ns 10     285.0 5 
   463.03 20 
   484.2 3 
   668.1 3 
    27 9 
    64 9 
    41 9 
   100 14 
D+Q
D+Q


  3176.77
  2998.77
  2977.93
  2793.67
(8-)
(8-)
(7-)
(7-)
E(level)
(keV)		XREFJπ(level) T1/2(level)E(γ)
(keV)		I(γ)M(γ)Final Levels
  3490 5                P       2+        
  3532 5                P       (5-)        
  3533.5 4     EF                 10+      570.47 5 
   100
E2
  2963.0
8+
  3575 5                P       5-        
  3607 5                P       (3-)        
  3647 5                P       2+        
  3654.16 20     EF                 10(-)      655.40 15 
   100
(E2)
  2998.77
(8-)
  3708 5                P       (5-)        
  3761 5                P       3-        
  3805 5                P       (3-)        
  3825 5                P       3-        
  3874.80 12     E                  (10-)      412.8 3 
   697.96 20 
   876.3 3 
    30 8 
   100 8 
    44 26 

(Q)

  3461.89
  3176.77
  2998.77
9(-)
(8-)
(8-)
  3879 5                P       3-        
  3903 5                P       3-        
  3938 5                P       2+        
  3949.1 5     EF                 (10+)      986.1 3 
   100
(E2)
  2963.0
8+
  3998 5                P       4+        
  4021.73 11     EF                 11(-)      367.6 2 
   732.07 10 
     8 2 
   100 6 

(Q)
  3654.16
  3289.65
10(-)
(9-)
  4042 5                P       4+        
  4054 5                P       2+        
  4088.7 1     E                  12+      555.2 2 
   100 5 
E2
  3533.5
10+
  4106 5                P       4+        
  4134 5                P       3-        
  4156 5                P       3-        
  4193 5                P              
  4224 5                P       4+        
  4259.8 4     E                  (11-)      797.9 3 
   100 15 

  3461.89
9(-)
E(level)
(keV)		XREFJπ(level) T1/2(level)E(γ)
(keV)		I(γ)M(γ)Final Levels
  4640.2 4     E                  (12-)      986.1 3 
   100

  3654.16
10(-)
  4721.8 4     E                  12(+)      633.1 3 
  1188.3 2 
   100 25 
   100 17 

Q
  4088.7
  3533.5
12+
10+
  4752.3 4     E                  (12-)      877.5 3 
   100

  3874.80
(10-)
  4893.8 3     E                  14+      805.1 2 
   100
E2
  4088.7
12+
  4990.1 4     E                  (13-)      968.4 3 
   100
(Q)
  4021.73
11(-)
  5106.6 6     E                  (12+)     1017.9 4 
   100
(D+Q)
  4088.7
12+
  5404.0 5     E                  (14+)      682.2 2 
  1315.3 3 
   100 12 
    76 12 
(Q)
(Q)
  4721.8
  4088.7
12(+)
12+
  5895.0 6     E                  (16+)     1001.2 3 
   100

  4893.8
14+

M(γ): From α(K)exp, K:L1:L2:L3, γ(θ) and γγ(θ) data

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Band Transitions:

E(level)
(keV)		Jπ(level) T1/2(level)E(γ)I(γ)M(γ)Final Levels
Band 1 - possible MEMBER OF ΔJ=2 band BUILT ON γ.S.
     0.0 0+ STABLE      
   511.850 23  2+ 12.2 ps 4     511.842 28 
   100
E2
     0.0
0+
  1229.30 4  4+ 1.31 ps 18     101 1 
   717.24 6 
 
   100
[E2]
E2
  1128.02
   511.850
2+
2+
  2077.01 6  6+ 0.49 ps 5     848.0 2 
   100
E2
  1229.30
4+

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Additional Gamma Data:















E(level)
(keV)		Jπ(level)T1/2(level)E(γ)
(keV)		MultipolarityMixing
Ratio		Conversion
Coefficient		Additional Data
   511.850 2+ 12.2 ps 4     511.842 28 E2 B(E2)(W.u.)=44.3 15
  1128.02 2+ 3.12 ps 25     616.174 24 M1+E2+E0-9.4 20B(E2)(W.u.)=44 4, B(M1)(W.u.)=0.00022 10
2+ 3.12 ps 25    1128.00 6 E2 B(E2)(W.u.)=1.17 10
  1133.76 0+ 5.8 ps 13     621.94 3 E2 B(E2)(W.u.)=35 8
  1229.30 4+ 1.31 ps 18     717.24 6 E2 B(E2)(W.u.)=76 11
  1557.68 3+      429.64 5 M1+E2-7.9 8 
3+     1045.83 8 M1+E2-3.8 4 
  1562.25 2+     1050.39 5 (M1+E2)+0.24 1 
  1706.44 0+ 2.8 ps 5     578.38 9 E2 B(E2)(W.u.)=14 3
0+ 2.8 ps 5    1194.53 4 E2 B(E2)(W.u.)=2.4 5
  1932.32 4+ 1.16 ps 16     703.11 7 M1+E2-2.30 2B(E2)(W.u.)=21 3, B(M1)(W.u.)=0.0022 4
4+ 1.16 ps 16     804.34 13 E2 B(E2)(W.u.)=35 6
  2077.01 6+ 0.49 ps 5     848.0 2 E2 B(E2)(W.u.)=88 9
  2083.92 3- 1.2 ps 3    1572.35 15 E1 B(E1)(W.u.)=5.9E-5 17
3- 1.2 ps 3    2084.0 4 [E3] B(E3)(W.u.)=29 10
  2242.48 2+     1114.48 5 M1+E2+1.5 +3-2 
  2305.62 4- 2.0 ns 5     221.701 10 M1+E2-0.11 2B(E2)(W.u.)=0.048 21, B(M1)(W.u.)=0.00022 6
4- 2.0 ns 5     748.44 7 E1 B(E1)(W.u.)=2.5E-7 7
4- 2.0 ns 5    1178.07 21 [M2] B(M2)(W.u.)=0.0020 6
4- 2.0 ns 5    1794.01 27 [M2] B(M2)(W.u.)=4.7×10-5 22
  2308.82 2+     1180.72 6 M1+E2-0.06 12 
2+     1796.97 7 M1+E2+0.25 2 
  2350.86 4+      793.30 25 M1+E2-7.5 15 
  2366.01 5+      808.37 10 (M1+E2)+1.0 8 
  2397.41 (5)-     1168.25 25 E1+M2-0.04 2 
E(level)
(keV)		Jπ(level)T1/2(level)E(γ)
(keV)		MultipolarityMixing
Ratio		Conversion
Coefficient		Additional Data
  2439.10 2+     1927.27 10 [M1+E2]-0.07 +3-7 
  2500.31 2-     1988.44 8 E1+M2-0.05 +3-5 
  2699.37 (6)- 0.5 ns 1     301.99 10 M1+E2+0.64 22B(E2)(W.u.)=3.9 21, B(M1)(W.u.)=0.0010 3
(6)- 0.5 ns 1     393.36 20 E2 B(E2)(W.u.)=0.50 13
  2705.30 (1)+     2193.30 10 M1+E2-0.17 6 
  2757.06 5+ < 3.6 ns    391.039 30 E2(+M1) B(E2)(W.u.)>0.012, B(M1)(W.u.)>2.1E-6
5+ < 3.6 ns    406.17 3 M1+E2-3.2 2B(E2)(W.u.)>0.063, B(M1)(W.u.)>1.1E-6
5+ < 3.6 ns    450.97 3 E1 B(E1)(W.u.)>2.8E-7
5+ < 3.6 ns    474.060 30 M1+E2-4.0 +9-6B(E2)(W.u.)>0.0021, B(M1)(W.u.)>2.0E-8
5+ < 3.6 ns    824.79 15 M1+E2-6.5 6B(E2)(W.u.)>0.0023, B(M1)(W.u.)>3.5E-8
5+ < 3.6 ns   1199.39 10 E2 B(E2)(W.u.)>0.00026
5+ < 3.6 ns   1527.65 19 M1+E2-2.46 9B(E2)(W.u.)>9.7E-5, B(M1)(W.u.)>4.1E-8
  2902.48 2+     2390.60 10 (M1+E2)-0.10 +7-10 
  2917.86 2+     2405.96 9 M1+E2-0.05 +2-5 
  2951.84 5+ < 2.0 ns    195.06 15 M1(+E2)0.13 +22-130.061α=0.061
5+ < 2.0 ns    585.97 10 M1(+E2)0.13 +22-13 
5+ < 2.0 ns    601.17 7 M1+E2-3.0 7B(E2)(W.u.)>0.021, B(M1)(W.u.)>6.0E-7
5+ < 2.0 ns    646.02 5 E1 B(E1)(W.u.)>1.0E-7
5+ < 2.0 ns   1394.35 14 [E2] B(E2)(W.u.)>0.00034
5+ < 2.0 ns   1722.76 18 (M1+E2)-2.5 14B(E2)(W.u.)>6.9E-5, B(M1)(W.u.)>1.5E-9
  2963.0 8+ 0.33 ps 7     886.0 3 E2 B(E2)(W.u.)=105 23
  2998.77 (8-) < 0.2 ns    205.11 5 (M1+E2)+0.21 2B(E2)(W.u.)>4.6, B(M1)(W.u.)>0.0062
(8-) < 0.2 ns    299.39 10 (E2) B(E2)(W.u.)>19
  3054.97 1+     2542.70 10 [M1+E2]+0.07 7 
  3289.65 (9-) 0.2 ns 1     290.89 10 D+Q+0.36 4 
(9-) 0.2 ns 1     495.97 5 E2 B(E2)(W.u.)=1.9 10
E(level)
(keV)		Jπ(level)T1/2(level)E(γ)
(keV)		MultipolarityMixing
Ratio		Conversion
Coefficient		Additional Data
  3461.89 9(-) 0.25 ns 10     285.0 5 D+Q-0.9 5 
9(-) 0.25 ns 10     463.03 20 D+Q-0.9 5 
  5106.6 (12+)     1017.9 4 (D+Q)-0.36 30 

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Additional Level Data and Comments:

E(level)Jπ(level)T1/2(level)Comments
     0.00+ STABLE rms charge radius: 4.5322 fm 28 (2004An14).
E(level): possible MEMBER OF ΔJ=2 band BUILT ON γ.S.
   511.8502+ 12.2 ps 4  μ=0.74 3, Q=-0.51 7
E(level): possible MEMBER OF ΔJ=2 band BUILT ON γ.S.
  1133.760+ 5.8 ps 13  B(E2)[2+(511 keV) to 0+(1133 keV)]=0.021 4: weighted average of 0.0184 (1969Ro05) and 0.026 5(1995Sv01) in Coul. ex.
E(level): B(E2)[2+(511 keV) to 0+(1133 keV)]=0.021 4: weighted average of 0.0184 (1969Ro05) and 0.026 5(1995Sv01) in Coul. ex.
  1229.304+ 1.31 ps 18  B(E2)[2+ (511 keV) to 4+(1229 keV)]=0.38 3 weighted average of B(E2)[2+ (511 keV) to 4+(1229 keV)]=0.39 5 (1969Ro05) and 0.38 4 (1995Sv01). Other: 0.51 9 (1962Ec03).
E(level): possible MEMBER OF ΔJ=2 band BUILT ON γ.S.
  1909.372+   E(level): From 105Pd(n,γ)(n,e). From 106Pd(n,n’γ).
  2077.016+ 0.49 ps 5  E(level): possible MEMBER OF ΔJ=2 band BUILT ON γ.S.
  2400.842-,3-   E(level): From 105Pd(n,γ).
  2472.261+,2+   E(level): From 105Pd(n,γ)(n,e). From 106Pd(n,n’γ).
  2578.56(5-)   E(level): From 105Pd(n,γ)(n,e). From 106Pd(n,n’γ).
  2591.6(2,3)+   E(level): From 105Pd(n,γ)(n,e). From 106Pd(n,n’γ).
  2626.84(2,3)+   Discrepancies exist for branching ratios of the 2626 and 3054 keV levels in (n,γ) and (n,n’γ) reactions due to unresolved doublet of 1498γ deexciting both levels.
  2648.94+   E(level): From 105Pd(n,γ)(n,e). From 106Pd(n,n’γ).
  2699.37(6)- 0.5 ns 1  E(level): From 96Zr(13C,3nγ).
  2713.892+,3+   E(level): From 105Pd(n,γ).
  2741.04+   XREF: p(2746).
E(level): From 105Pd(n,γ)(n,e). From 106Pd(n,n’γ).
  2748.22,3-   E(level): From 105Pd(n,γ)(n,e). From 106Pd(n,n’γ).
  2775.9(4+)   E(level): From 105Pd(n,γ)(n,e). From 106Pd(n,n’γ).
  2793.67(7-)   E(level): From 96Zr(13C,3nγ).
  2847(4+)   L(p,p’)=(4).
  2850.62+,3+   E(level): From 105Pd(n,γ)(n,e). From 106Pd(n,n’γ).
  2861.4(+)   E(level): From 105Pd(n,γ)(n,e). From 106Pd(n,n’γ).
  2886.5(-)   E(level): From 105Pd(n,γ)(n,e). From 106Pd(n,n’γ).
  2898.1(1-,4-)   E(level): From 105Pd(n,γ)(n,e). From 106Pd(n,n’γ).
  2908.7(1-)   E(level): From 105Pd(n,γ)(n,e). From 106Pd(n,n’γ).
  2936.0(2-,3-)   E(level): From 105Pd(n,γ)(n,e). From 106Pd(n,n’γ).
E(level)Jπ(level)T1/2(level)Comments
  2963.08+ 0.33 ps 7  E(level): From 96Zr(13C,3nγ); possible member of ΔJ=2 band built on g.s.
  2977.4+   E(level): From 105Pd(n,γ).
  2977.93(7-)   E(level): From 96Zr(13C,3nγ).
  2998.77(8-) < 0.2 ns E(level): From 96Zr(13C,3nγ).
  3026+   E(level): From 105Pd(d,p).
  3042.74+   E(level): From 105Pd(n,γ).
  3069.9(2,3)-   E(level): From 105Pd(n,γ)(n,e). From 106Pd(n,n’γ).
  3097(1-,2+)   E(level): From 105Pd(d,p).
  3120.02+,3+   E(level): From 105Pd(n,γ)(n,e). From 106Pd(n,n’γ).
  31442+,3+   E(level): From 105Pd(d,p).
  3173.8(2+,3+)   E(level): From 105Pd(n,γ)(n,e). From 106Pd(n,n’γ).
  3176.77(8-)   E(level): From 96Zr(13C,3nγ).
  3289.65(9-) 0.2 ns 1  E(level): From 96Zr(13C,3nγ).
  3461.899(-) 0.25 ns 10  E(level): From 96Zr(13C,3nγ).
  3533.510+   E(level): From 96Zr(13C,3nγ).
  3874.80(10-)   E(level): From 96Zr(13C,3nγ).
  3949.1(10+)   E(level): From 96Zr(13C,3nγ); possible member of ΔJ=2 band built on g.s.
  4021.7311(-)   E(level): From 96Zr(13C,3nγ).
  4088.712+   E(level): From 96Zr(13C,3nγ).
  4259.8(11-)   E(level): From 96Zr(13C,3nγ).
  4640.2(12-)   E(level): From 96Zr(13C,3nγ).
  4721.812(+)   E(level): From 96Zr(13C,3nγ).
  4893.814+   E(level): From 96Zr(13C,3nγ).
  4990.1(13-)   E(level): From 96Zr(13C,3nγ).
  5106.6(12+)   E(level): From 96Zr(13C,3nγ).
E(level)Jπ(level)T1/2(level)Comments
  5404.0(14+)   E(level): From 96Zr(13C,3nγ).
  5895.0(16+)   E(level): From 96Zr(13C,3nγ).

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Additional Gamma Comments:

E(level)E(gamma)Comments
  1133.76     6E(γ): Deduced from level scheme in Coul. ex. (1995Sv01)
  1229.30   101E(γ): calculated from level scheme in (1995Sv01)
  1557.68   328.460M(γ): No δ given in 106Rh β- decay (131 min)
  1562.25   333E(γ): Deduced by evaluators from level scheme in Coul. ex. (1995Sv01)
  1706.44  1194.53M(γ): from α(K)exp in (n,γ). M1 excluded if Jπ for the initial and final states are correct
  1904.21   347.14E(γ): No final level within 0.48 keV
M(γ): from α(K)exp=0.0041 10 for the 346.59+347.14 γ transitions
  1909.37   781.6E(γ): From 106Pd(n,n’γ)
I(γ): From 106Pd(n,n’γ)
  1397.4E(γ): From 106Pd(n,n’γ)
I(γ): From 106Pd(n,n’γ)
  1909.5E(γ): From 106Pd(n,n’γ)
I(γ): From 106Pd(n,n’γ)
  2001.48  2002M(γ): from conversion data in 105Pd(n,γ)(n,e)
  2076.69   949.52E(γ): No final level within 0.79 keV
  1565.76E(γ): No final level within 0.48 keV
  2242.48   680.22M(γ): from α(K)exp in (n,γ). α(K)exp also consistent with E1+M2 with δ=0.4
  2278.11  1766.20M(γ): from α(K)exp in 105Pd(n,γ)(n,e)
  2283.05  1053.77M(γ): from α(K)exp in (n,γ)
  2305.62   228.630E(γ): No final level within 0.13 keV
   748.44E(γ): no final level within 0.33 keV
  2308.82   751.30I(γ): From 106Rh β- decay
  1180.72I(γ): From 106Rh β- decay
  1796.97I(γ): From 106Rh β- decay
  2309.30I(γ): taken from 106Rh β- decay using the ratio Iγ(2309 from 2309) /Iγ(1180γ+1797γ)|<0.051 8 from ε decay but taking into account the division of the I(2309γ) of the doublet of 2309γ between 2308 and 2821 levels. From 106Rh β- decay
  2366.01   808.37M(γ): deduced under the assumption Jπ(2365)=4+. γγ(θ) also consistent with mult(808γ)=E2 and Jπ(2365)=5+. M1 fraction impossible if Jπ(2566)=5+ and Jπ(1557)=3+
  2472.26   471.5E(γ): From 106Pd(n,n’γ)
I(γ): From 106Pd(n,n’γ)
   765.67E(γ): From 105Pd(n,γ)(n,e). From 106Pd(n,n’γ)
I(γ): From 105Pd(n,γ)(n,e)
  1960.17E(γ): From 105Pd(n,γ)(n,e). From 106Pd(n,n’γ)
I(γ): From 105Pd(n,γ)(n,e)
E(level)E(gamma)Comments
  2578.56  1020.7E(γ): From 106Pd(n,n’γ)
I(γ): From 106Pd(n,n’γ)
  1349.5E(γ): From 106Pd(n,n’γ)
I(γ): From 106Pd(n,n’γ)
  2591.6   659.3E(γ): From 106Pd(n,n’γ)
I(γ): From 106Pd(n,n’γ)
  2626.84  1064.60E(γ): From 105Pd(n,γ)(n,e). From 106Pd(n,n’γ). From 105Pd(d,p)
I(γ): From 105Pd(n,γ)(n,e). The 1498γ is doubly placed in (n,γ),(n,n’γ); however, the branchings in these data sets are not consistent if one assumes that the 2626 level is not fed in β- decay. These branchings can be made consistent if part of 1498γ intensity in β- decay is placed from the 2626 level. The 2114 level, which also deexcites 2626 level is not seen in β- decay, but would be masked by strong 2112.5 γ.
  1498.80E(γ): From 105Pd(n,γ)(n,e). From 106Pd(n,n’γ). From 105Pd(d,p)
I(γ): From 105Pd(n,γ)(n,e). The 1498γ is doubly placed in (n,γ),(n,n’γ); however, the branchings in these data sets are not consistent if one assumes that the 2626 level is not fed in β- decay. These branchings can be made consistent if part of 1498γ intensity in β- decay is placed from the 2626 level. The 2114 level, which also deexcites 2626 level is not seen in β- decay, but would be masked by strong 2112.5 γ.
  2114.95E(γ): From 105Pd(n,γ)(n,e). From 106Pd(n,n’γ). From 105Pd(d,p)
I(γ): From 105Pd(n,γ)(n,e). The 1498γ is doubly placed in (n,γ),(n,n’γ); however, the branchings in these data sets are not consistent if one assumes that the 2626 level is not fed in β- decay. These branchings can be made consistent if part of 1498γ intensity in β- decay is placed from the 2626 level. The 2114 level, which also deexcites 2626 level is not seen in β- decay, but would be masked by strong 2112.5 γ.
  2648.9  1086.5E(γ): From 106Pd(n,n’γ)
I(γ): From 106Pd(n,n’γ)
  2699.37   301.99E(γ): From 96Zr(13C,3nγ)
I(γ): From 96Zr(13C,3nγ)
   393.36E(γ): From 96Zr(13C,3nγ)
I(γ): From 96Zr(13C,3nγ)
  2705.30  1572.40E(γ): No final level within 0.68 keV
  2713.89  1156.28E(γ): From 105Pd(n,γ)(n,e). From 106Pd(n,n’γ)
I(γ): From 105Pd(n,γ)(n,e)
  1484.49E(γ): From 105Pd(n,γ)(n,e). From 106Pd(n,n’γ)
I(γ): From 105Pd(n,γ)(n,e)
  2202.07E(γ): From 105Pd(n,γ)(n,e). From 106Pd(n,n’γ)
I(γ): From 105Pd(n,γ)(n,e)
  2741.0  2229.5E(γ): From 106Pd(n,n’γ)
I(γ): From 106Pd(n,n’γ)
  2740.9E(γ): From 106Pd(n,n’γ)
I(γ): From 106Pd(n,n’γ)
  2748.2  2236.3E(γ): From 106Pd(n,n’γ)
I(γ): From 106Pd(n,n’γ)
  2775.9   533.53E(γ): From 105Pd(n,γ)(n,e). From 106Pd(n,n’γ)
I(γ): From 105Pd(n,γ)(n,e)
  1218.26E(γ): From 105Pd(n,γ)(n,e). From 106Pd(n,n’γ)
I(γ): From 105Pd(n,γ)(n,e)
  1546.64E(γ): From 105Pd(n,γ)(n,e). From 106Pd(n,n’γ)
I(γ): From 105Pd(n,γ)(n,e)
  2263.84E(γ): From 105Pd(n,γ)(n,e). From 106Pd(n,n’γ)
I(γ): From 105Pd(n,γ)(n,e)
  2783.74  1554.50E(γ): From 105Pd(n,γ)(n,e). From 106Pd(n,n’γ)
I(γ): From 105Pd(n,γ)(n,e)
  1655.66E(γ): From 105Pd(n,γ)(n,e). From 106Pd(n,n’γ)
I(γ): From 105Pd(n,γ)(n,e)
  2271.84E(γ): From 105Pd(n,γ)(n,e). From 106Pd(n,n’γ)
I(γ): From 105Pd(n,γ)(n,e)
  2793.67   396.26E(γ): From 96Zr(13C,3nγ)
I(γ): From 96Zr(13C,3nγ)
   717.1E(γ): From 96Zr(13C,3nγ)
I(γ): From 96Zr(13C,3nγ)
E(level)E(gamma)Comments
  2820.97  1258.80I(γ): From 106Rh β- decay
  1687.40I(γ): From 106Rh β- decay
  1693.20I(γ): From 106Rh β- decay
  2309.00I(γ): taken from 106Rh β- decay using the ratio Iγ(2309 from 2309) /Iγ(1180γ+1797γ)|<0.051 8 from ε decay but taking into account the division of the I(2309γ) of the doublet of 2309γ between 2308 and 2821 levels. From 106Rh β- decay
  2821.10I(γ): From 106Rh β- decay
  2850.6  1621.3E(γ): From 106Pd(n,n’γ)
I(γ): From 106Pd(n,n’γ)
  2861.4  1303.4E(γ): From 106Pd(n,n’γ)
I(γ): From 106Pd(n,n’γ)
  1631.7E(γ): From 106Pd(n,n’γ)
I(γ): From 106Pd(n,n’γ)
  2886.5  2374.6E(γ): From 106Pd(n,n’γ)
I(γ): From 106Pd(n,n’γ)
  2898.1  1668.8E(γ): From 106Pd(n,n’γ)
I(γ): From 106Pd(n,n’γ)
  2908.7  2396.8E(γ): From 106Pd(n,n’γ)
I(γ): From 106Pd(n,n’γ)
  2936.0  2424.1E(γ): From 106Pd(n,n’γ)
I(γ): From 106Pd(n,n’γ)
  2951.84  1394.35E(γ): taken from 106Ag ε decay (8.46 d)
  2963.0   886.0E(γ): From 96Zr(13C,3nγ)
I(γ): From 96Zr(13C,3nγ)
  2968.68  2456.8E(γ): taken from 106Rh β- decay (29.8 s)
  2977.93   901.1E(γ): From 96Zr(13C,3nγ)
I(γ): From 96Zr(13C,3nγ)
  2998.77   205.11E(γ): From 96Zr(13C,3nγ)
I(γ): From 96Zr(13C,3nγ)
M(γ): from level scheme
   299.39E(γ): From 96Zr(13C,3nγ)
I(γ): From 96Zr(13C,3nγ)
  3054.97  1498.80E(γ): No final level within 0.89 keV. From 105Pd(d,p)
I(γ): From 106Rh β- decay. The 1498γ is doubly placed in (n,γ),(n,n’γ); however, the branchings in these data sets are not consistent if one assumes that the 2626 level is not fed in β- decay. These branchings can be made consistent if part of 1498γ intensity in β- decay is placed from the 2626 level. The 2114 level, which also deexcites 2626 level is not seen in β- decay, but would be masked by strong 2112.5 γ.
  2542.70E(γ): From 105Pd(d,p)
I(γ): From 106Rh β- decay. The 1498γ is doubly placed in (n,γ),(n,n’γ); however, the branchings in these data sets are not consistent if one assumes that the 2626 level is not fed in β- decay. These branchings can be made consistent if part of 1498γ intensity in β- decay is placed from the 2626 level. The 2114 level, which also deexcites 2626 level is not seen in β- decay, but would be masked by strong 2112.5 γ.
  3055.0E(γ): From 105Pd(d,p)
I(γ): From 106Rh β- decay. The 1498γ is doubly placed in (n,γ),(n,n’γ); however, the branchings in these data sets are not consistent if one assumes that the 2626 level is not fed in β- decay. These branchings can be made consistent if part of 1498γ intensity in β- decay is placed from the 2626 level. The 2114 level, which also deexcites 2626 level is not seen in β- decay, but would be masked by strong 2112.5 γ.
  3069.9  2558.0E(γ): From 106Pd(n,n’γ)
I(γ): From 106Pd(n,n’γ)
  3083.91  2571.10E(γ): No final level within 0.78 keV
  3120.0  2608.1E(γ): From 106Pd(n,n’γ)
I(γ): From 106Pd(n,n’γ)
  3161.0  1602.2E(γ): From 106Pd(n,n’γ)
I(γ): From 106Pd(n,n’γ)
  2649.3E(γ): From 106Pd(n,n’γ)
I(γ): From 106Pd(n,n’γ)
E(level)E(gamma)Comments
  3163.7  3165.4E(γ): From 106Pd(n,n’γ)
I(γ): From 106Pd(n,n’γ)
  3173.8  1616.4E(γ): From 106Pd(n,n’γ)
I(γ): From 106Pd(n,n’γ)
  2045.1E(γ): From 106Pd(n,n’γ)
I(γ): From 106Pd(n,n’γ)
  3176.77   199.0E(γ): From 96Zr(13C,3nγ)
I(γ): From 96Zr(13C,3nγ)
M(γ): no δ given in 96Zr(13C,3nγ).
   383.11E(γ): From 96Zr(13C,3nγ)
I(γ): From 96Zr(13C,3nγ)
   477.0E(γ): From 96Zr(13C,3nγ)
I(γ): From 96Zr(13C,3nγ)
  3289.65   290.89E(γ): From 96Zr(13C,3nγ)
I(γ): From 96Zr(13C,3nγ)
   495.97E(γ): From 96Zr(13C,3nγ)
I(γ): From 96Zr(13C,3nγ)
  3461.89   285.0E(γ): From 96Zr(13C,3nγ)
I(γ): From 96Zr(13C,3nγ)
   463.03E(γ): From 96Zr(13C,3nγ)
I(γ): From 96Zr(13C,3nγ)
   484.2E(γ): From 96Zr(13C,3nγ)
I(γ): From 96Zr(13C,3nγ)
   668.1E(γ): From 96Zr(13C,3nγ)
I(γ): From 96Zr(13C,3nγ)
  3533.5   570.47E(γ): From 96Zr(13C,3nγ)
I(γ): From 96Zr(13C,3nγ)
  3654.16   655.40E(γ): From 96Zr(13C,3nγ)
I(γ): From 96Zr(13C,3nγ)
  3874.80   412.8E(γ): From 96Zr(13C,3nγ)
I(γ): From 96Zr(13C,3nγ)
   697.96E(γ): From 96Zr(13C,3nγ)
I(γ): From 96Zr(13C,3nγ)
   876.3E(γ): From 96Zr(13C,3nγ)
I(γ): From 96Zr(13C,3nγ)
  3949.1   986.1E(γ): From 96Zr(13C,3nγ)
I(γ): From 96Zr(13C,3nγ)
  4021.73   367.6E(γ): From 96Zr(13C,3nγ)
I(γ): From 96Zr(13C,3nγ)
   732.07E(γ): From 96Zr(13C,3nγ)
I(γ): From 96Zr(13C,3nγ)
  4088.7   555.2E(γ): From 96Zr(13C,3nγ)
I(γ): From 96Zr(13C,3nγ)
  4259.8   797.9E(γ): From 96Zr(13C,3nγ)
I(γ): From 96Zr(13C,3nγ)
  4640.2   986.1E(γ): From 96Zr(13C,3nγ)
I(γ): From 96Zr(13C,3nγ)
  4721.8   633.1E(γ): From 96Zr(13C,3nγ)
I(γ): From 96Zr(13C,3nγ)
  1188.3E(γ): From 96Zr(13C,3nγ)
I(γ): From 96Zr(13C,3nγ)
E(level)E(gamma)Comments
  4893.8   805.1E(γ): From 96Zr(13C,3nγ)
I(γ): From 96Zr(13C,3nγ)
  4990.1   968.4E(γ): From 96Zr(13C,3nγ)
I(γ): From 96Zr(13C,3nγ)
  5106.6  1017.9E(γ): From 96Zr(13C,3nγ)
I(γ): From 96Zr(13C,3nγ)
  5404.0   682.2E(γ): From 96Zr(13C,3nγ)
I(γ): From 96Zr(13C,3nγ)
  1315.3E(γ): From 96Zr(13C,3nγ)
I(γ): From 96Zr(13C,3nγ)
  5895.0  1001.2E(γ): From 96Zr(13C,3nγ)
I(γ): From 96Zr(13C,3nγ)

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