ADOPTED LEVELS, GAMMAS for 56Fe

Authors: Huo Junde, Huo Su, Yang Dong |  Citation: Nucl. Data Sheets 112, 1513 (2011) |  Cutoff date: 29-Oct-2009 

 Full ENSDF file | Adopted Levels (PDF version) 


Q(β-)=-4566.6 keV 5S(n)= 11197.10 keV 23S(p)= 10183.67 keV 16Q(α)= -7613.3 keV 4
Reference: 2012WA38

References:
  A  56Mn β- decay  B  56Co ε decay
  C  (HI,xnγ)  D  56Fe(p,p’),(pol p,p’)
  E  56Fe(p,p’γ)  F  54Fe(t,p)
  G  54Fe(α,2pγ)  H  57Fe(d,t), (pol d,t), (3He,α)
  I  55Mn(p,p), (p,γ) E=RES: IAR  J  56Fe(n,n’)
  K  59Co(p,α)  L  56Fe(γ,γ’), (pol γ,γ’)
  M  56Fe(E,E’)  N  56Fe(n,n’γ)
  O  52Cr(6Li,d)  P  54Cr(3He,n)
  Q  56Fe(d,d’)  R  56Fe(3He,3He’)
  S  56Fe(α,α’γ)  T  Coulomb Excitation
  U  54Fe(α,2p)  V  56Fe(α,α’)
  W  54Fe(α,2He)  X  58Fe(p,t)
  Y  58Ni(14C,16O)  Z  55Mn(α,t),(3He,d)
  a  60Ni(3He,7Be)  b  59Ni(n,α) E=THERMAL
  c  NI(π+,xγ), (π-,xγ), (K-,xγ)  d  60Ni(p,xγ), (E,E’αγ), (γ,α)
  e  56Fe(π,π’)  f  58Ni(μ-,NUPNG)
  g  GD(56Fe,56Fe’γ) 








E(level)
(keV)
XREFJπ(level) T1/2(level)E(γ)
(keV)
I(γ)M(γ)Final Levels
      0.0ABCDEFGHIJKLMNOPQRSTUVWXYZabcdefg 0+ STABLE      
    846.7778 19 ABCDEFGHIJKLMNO QRST V XYZabcdefg 2+ 6.07 ps 23      846.7638 19 
    100
E2
      0.0
0+
   2085.1045 25 ABCDEFGHIJK  NO Q S  V X Zabc efg 4+ 0.64 ps 12     1238.2736 22 
    100 2 
E2
    846.7778
2+
   2657.5894 25 AB DEF HIJK MNO QR   V   Z b  ef  2+ 21 fs 1     1810.757 4 
   2657.527 4 
    100.0 3 
      3.1 3 
M1+E2

    846.7778
      0.0
2+
0+
   2941.50 3    DEF HI K  N             b  e   0+ 0.45 ps +21-12     2094.9 3 
   2941S
    100
 
[E2]

    846.7778
      0.0
2+
0+
   2959.972 4 AB DEF HIJK MNO Q        Z b  e g 2+ 28 fs 3     2113.135 5 
   2959.92 1 
    100 2 
      2.16 8 
M1+E2

    846.7778
      0.0
2+
0+
   3076.2 4        HI   M        VW   a c     (3-)       991.51 3 
   2229
     47 13 
    100 13 


   2085.1045
    846.7778
4+
2+
   3120.11 5    DE   IJ   N                e   (1+) 19 fs 1      462
   2273.2
   3120
     <1.05
    100.0 7 
      4.82 7 



   2657.5894
    846.7778
      0.0
2+
2+
0+
   3122.970 3 ABCDEFGHI K  NO Q S  V   Za c e   4+ 47 fs 12     1037.8333 24 
   2276.131 4 
    100.0 4 
      0.85 5 
M1(+E2)
E2
   2085.1045
    846.7778
4+
2+
   3369.95 7 AB DEF HIJK MN  Q           c e g 2+ 17 fs 3     2523.06 5 
   3369.84 4 
    100.0 9 
     17 1 
M1+E2

    846.7778
      0.0
2+
0+
   3388.55 5   CD  GHI K  N    S  V   Z  cd    6+ 2.9 ps 2      265.5 2 
   1303.4 1 
      1.3 3 
    100 4 

E2
   3122.970
   2085.1045
4+
4+
   3445.348 3 AB DEF HI    N                    3+ 29 fs 5      787.743 5 
   1360.212 4 
   2598.500 4 
      1.83 2 
     25.63 8 
    100.0 4 
M1+E2
M1+E2
M1+E2
   2657.5894
   2085.1045
    846.7778
2+
4+
2+
   3448.41 6    DE  HI KL N                    1+ 8 fs 3      790
   2601
   3448
     <0.7
     33 3 
    100 3 



   2657.5894
    846.7778
      0.0
2+
2+
0+
   3600.21 7    DEF HIJ                a   e   (1,2+) < 59 fs     942
   1515
   2753
   3600
     <2.4
     <2.4
     20 4 
    100 4 




   2657.5894
   2085.1045
    846.7778
      0.0
2+
4+
2+
0+
E(level)
(keV)
XREFJπ(level) T1/2(level)E(γ)
(keV)
I(γ)M(γ)Final Levels
   3605.69 6    DE   I KLMN  Q             e   2+ 0.15 ps 4      948
   1521
   2759
   3606
     14.2 20 
     <1.4
    100 5 
     56 5 




   2657.5894
   2085.1045
    846.7778
      0.0
2+
4+
2+
0+
   3610.21 19         I    N                    0(+) 52 fs 21      952
   1525
   2763
   3610
     <1.5
     <0.7
    100.0
     <7.0




   2657.5894
   2085.1045
    846.7778
      0.0
2+
4+
2+
0+
   3744.13 24    D   HI                         2+      2897
    100

    846.7778
2+
   3755.57 4   C   G I K  N    S  V            6+ 0.13 ps 2      367.0 1 
    632.6?
   1670.8 4 
     22 1 
     ≤2
    100 4 
M1+E2

E2
   3388.55
   3122.970
   2085.1045
6+
4+
4+
   3759.6 10 ?   D    I                Z  c   g        
   3829.77 9    DEF HIJK MN  Q                 2+ 39 fs 5     1172
   2983
   3830
     58 10 
    100 10 
     35 4 



   2657.5894
    846.7778
      0.0
2+
2+
0+
   3856.495 3  B DE  HI    N                    3+ 25 fs 3      411.145 4 
    486.55 11 
    733.514 4 
    896.510 6 
   1198.888 5 
   1771.357 4 
   3009.645 4 
      0.17 1 
      0.38 2 
      1.24 3 
      0.46 1 
      0.28 2 
    100.0 3 
      6.42 14 


M1


M1(+E2)
M1+E2
   3445.348
   3369.95
   3122.970
   2959.972
   2657.5894
   2085.1045
    846.7778
3+
2+
4+
2+
2+
4+
2+
   4048.888 6  B DEF HI K  N           Z   d    3+ 7 fs 3     1088.894 9 
   1963.741 8 
   3202.029 8 
      1.7 1 
     22.0 1 
    100.0 4 
M1+E2
M1+E2
M1+E2
   2959.972
   2085.1045
    846.7778
2+
4+
2+
   4085.93 17         I                         (1,2+)      3239
   4086
    100 8 
     33 8 


    846.7778
      0.0
2+
0+
   4100.363 3  B D F HI K  N  Q                 4+ 43 fs 5      655.003 5 
    977.372 5 
   1140.368 6 
   1442.746 6 
   2015.215 5 
   3253.503 4 
      0.45 10 
     18.05 9 
      1.68 5 
      2.29 5 
     38.3 5 
    100.0 4 

M1(+E2)


M1+E2
E2
   3445.348
   3122.970
   2959.972
   2657.5894
   2085.1045
    846.7778
3+
4+
2+
2+
4+
2+
E(level)
(keV)
XREFJπ(level) T1/2(level)E(γ)
(keV)
I(γ)M(γ)Final Levels
   4119.936 3  B D   HIJK  N                e   3+ 0.14 ps 4      263.434 5 
    674.579 5 
    996.948 5 
   1159.944 6 
   1462.322 6 
   2034.791 5 
   3273.079 4 
      0.30 3 
      0.45 6 
      1.50 8 
      1.14 4 
      1.00 1 
    100.0 4 
     23.97 12 


M1+E2
M1+E2

M1+E2
M1+E2
   3856.495
   3445.348
   3122.970
   2959.972
   2657.5894
   2085.1045
    846.7778
3+
3+
4+
2+
2+
4+
2+
   4298.096 3  B D F HI K  N                    4+ 110 fs 50      852.732 4 
   1175.101 4 
   1640.475 5 
   2212.948 4 
   3451.232 4 
      2.18 13 
    100.0 4 
      2.76 9 
     17.1 2 
     41.9 3 

M1+E2

M1+E2
E2
   3445.348
   3122.970
   2657.5894
   2085.1045
    846.7778
3+
4+
2+
4+
2+
   4302.0 10      F       N                    0+      3455.0
    100

    846.7778
2+
   4320        I                         2+        
   4368.13 25 ?        I            V            3-        
   4394.93 5  B D   HI K  N                    3+ 35 fs 17     1271.92 6 
   3548.05 6 
     10.3 4 
    100.0 8 

M1+E2
   3122.970
    846.7778
4+
2+
   4401.27 5    D F  IJ   N           Z b de   2+ 56 fs +48-22      955.8
   1031
   1441
   1459.3
   2316
   3554.2
     46 3 
     <2.0
     11.7 23 
      7.7
     <6.3
    100 3 






   3445.348
   3369.95
   2959.972
   2941.50
   2085.1045
    846.7778
3+
2+
2+
0+
4+
2+
   4447.7 4  B                                     3600.8 4 
    100

    846.7778
2+
   4458.532 11  B D F HI K  N                    4+ 26 fs +12-8     1335.40 3 
   2373.24 3 
   3611.53 3 
    100.0 13 
     64 5 
      6.8 3 



   3122.970
   2085.1045
    846.7778
4+
4+
2+
   4509.56 8    D F HIJK MNO QR   V      cde   3- 83 fs 28      754.35 18 
   1064.6
   1139.66 10 
   1386.3 3 
   1852.09 4 
   2424.93 15 
   3662.67 10 
    <21
      6 4 
     39 17 
     28 15 
    100
     20 8 
     98 18 







   3755.57
   3445.348
   3369.95
   3122.970
   2657.5894
   2085.1045
    846.7778
6+
3+
2+
4+
2+
4+
2+
E(level)
(keV)
XREFJπ(level) T1/2(level)E(γ)
(keV)
I(γ)M(γ)Final Levels
   4539.5 6    D   HI K  NO             cde   1+,2+ 25 fs +20-14     1579.5
   1881.9
   4539.5
    100 14 
     52.6 88 
     22.8 53 



   2959.972
   2657.5894
      0.0
2+
2+
0+
   4554.77 9        HI    N                    4+ 94 fs +43-24      799.02 5 
    810.60 8 
   1108.6
   1165.74 11 
   1431.58 5 
   1897.8 3 
   2469.71 3 
   3708.6 5 
     14 5 
     10 6 
     10 6 
     16 4 
     34 8 
     11 4 
    100
      7 3 








   3755.57
   3744.13
   3445.348
   3388.55
   3122.970
   2657.5894
   2085.1045
    846.7778
6+
2+
3+
6+
4+
2+
4+
2+
   4608.56 11         I                         2+ 47 fs +33-18     1485.60 5 
   1667.07 15 
   1949.9 5 
   2523.09 12 
   3761.5 4 
     19 8 
     10 5 
      9 4 
    100
     47 7 





   3122.970
   2941.50
   2657.5894
   2085.1045
    846.7778
4+
0+
2+
4+
2+
   4610.82 18    D F HI K  N                    4+ 27 fs +45-15      756.2 4 
    781.20 11 
   1651.0 4 
   1954.11 16 
   2525.75 23 
   3763.4 4 
     <7
     35 8 
     15 8 
     33 8 
     77 28 
    100






   3856.495
   3829.77
   2959.972
   2657.5894
   2085.1045
    846.7778
3+
2+
2+
2+
4+
2+
   4620 4    D                                     
   4658.26 7    D   HI K  N                    2+,3+,4+ 49 fs +8-7     1213
   1288
   1698
   2000
   2573
   3811
   4658
     <3.3
     <3.3
     <5
     <3.3
    100 5 
     67 5 
     <3.3







   3445.348
   3369.95
   2959.972
   2657.5894
   2085.1045
    846.7778
      0.0
3+
2+
2+
2+
4+
2+
0+
E(level)
(keV)
XREFJπ(level) T1/2(level)E(γ)
(keV)
I(γ)M(γ)Final Levels
   4673.41 19    D    I                                
   4683.04 5    D   HI K  N                e   (2+),3+ 66 fs +63-25     1312.58 4 
   1559.53 11 
   1724.7
   2525.75 23 
   3836.21 11 
    <48
     24 10 
 
     77 28 
    100





   3369.95
   3122.970
   2959.972
   2085.1045
    846.7778
2+
4+
2+
4+
2+
   4692.32 4         I                         4+ 33 fs +10-7      936.58 4 
    948.6 4 
   1569.42 8 
   2034.76 2 
   2607.22 3 
   3844.0 4 
     25 4 
      3 1 
     16 5 
     51 13 
    100
     17 3 






   3755.57
   3744.13
   3122.970
   2657.5894
   2085.1045
    846.7778
6+
2+
4+
2+
4+
2+
   4700.63 13   C   G I         S               7+ 0.083 ps +82-14      944.7 2 
   1312.2 1 
     19 2 
    100 5 

M1+E2
   3755.57
   3388.55
6+
6+
   4728.14 18    D    I   M                 e   2+ 63 fs +57-20     3881
   4728
    100 3 
     11 3 


    846.7778
      0.0
2+
0+
   4730.0 10      F       N P                  0+      3883.1
    100

    846.7778
2+
   4737.33 4    D   HI K  N           Z        2+ 32 fs +7-6      617.36 8 
   1616.6
   2079.80 3 
   3889.6 3 
   4736.3 6 
     18 7 
     25
    100
     27 6 
     40 15 





   4119.936
   3120.11
   2657.5894
    846.7778
      0.0
3+
(1+)
2+
2+
0+
   4784.12 25         I                         (1,2+)      1664
   3937
   4784
     22 6 
    100 9 
     96 9 



   3120.11
    846.7778
      0.0
(1+)
2+
0+
   4802 5    D                                     
   4812.68 10         I                         4+,5+       692.65 14 
   1057.8 3 
   1368.3 3 
 
 
 



   4119.936
   3755.57
   3445.348
3+
6+
3+
   4820     F H  K                              
E(level)
(keV)
XREFJπ(level) T1/2(level)E(γ)
(keV)
I(γ)M(γ)Final Levels
   4847.9 3         I  L              a       (2+) 64 fs 27     2190.0 4 
   2763.24 19 
   4847 3 
 
 
 



   2657.5894
   2085.1045
      0.0
2+
4+
0+
   4866.52 3    D    I                         (1,2+) 9.7 fs 20     1267
   1419
   1422
   1497
   1747
   1907
   2209
   2782
   4020
   4867
      1.0 4 
     16.0 6 
      1.8 6 
      7.8 4 
      2.2 6 
     54.9 16 
      6 1 
     <0.78
    100.0 23 
      5 1 










   3600.21
   3448.41
   3445.348
   3369.95
   3120.11
   2959.972
   2657.5894
   2085.1045
    846.7778
      0.0
(1,2+)
1+
3+
2+
(1+)
2+
2+
4+
2+
0+
   4878.0 6    D F HI K  N                e   2+      1918.0
   2793
   4031
   4878
     58
     81 12 
    100 16 
     57 16 




   2959.972
   2085.1045
    846.7778
      0.0
2+
4+
2+
0+
   4881.7 6         I                                
   4887.1 12           K  N                         1055.0
    100

   3829.77
2+
   5023.49 3    D    I    N                    (1,2)+ 6 fs 3      903
   1191.7
   1575
   1653
   1903
   2063
   2365
   4176
   5023
      7.9 24 
 
     63.5 24 
     66 3 
     <2.65
    100 4 
     <2.12
      7.1 13 
     19.6 21 









   4119.936
   3829.77
   3448.41
   3369.95
   3120.11
   2959.972
   2657.5894
    846.7778
      0.0
3+
2+
1+
2+
(1+)
2+
2+
2+
0+
   5026.7 8    D    I K                              
   5033.02 7         I                         (4,5)+ 10 fs +3-2     1277.00 10 
   1643.9 5 
   2947.86 11 
   4188.2 5 
     32 8 
    <17
    100
     42 28 




   3755.57
   3388.55
   2085.1045
    846.7778
6+
6+
4+
2+
E(level)
(keV)
XREFJπ(level) T1/2(level)E(γ)
(keV)
I(γ)M(γ)Final Levels
   5038.49 12    D F HI   M        V        e   4+ 78 fs +36-22     1915.10 18 
 

   3122.970
4+
   5055.87 8        HI                  b  ef  4+,(3+) 66 fs +63-25      757.75 6 
   2971.04 16 
    100
     68 22 


   4298.096
   2085.1045
4+
4+
   5122.11 10    D         N        W       e   5-      3036.9
    100

   2085.1045
4+
   5131.66 10    D    I K                       3+,4+,(2+) 73 fs +28-17      673.02 8 
   1082.83 12 
   1686.41 5 
   2008.80 11 
   4284.6 3 
     30 8 
     23 6 
    100
     60 7 
     39 7 





   4458.532
   4048.888
   3445.348
   3122.970
    846.7778
4+
3+
3+
4+
2+
   5149.54 11      F    K  N            a   ef  2+      2026.6 3 
   3064.04 8 
     27 15 
    100


   3122.970
   2085.1045
4+
4+
   5184.3 6   CD                              8(+)      1427.8 3 
    100 5 

   3755.57
6+
   5186.82 10    D F  I    NO  R       Z b  e   2+      1137.5
   3101.2 13 
 
 


   4048.888
   2085.1045
3+
4+
   5194.80 18         I                         (1,2+)      1585
   2075
   2253
   2537
   4348
     23 5 
     23 5 
     46 5 
     64 5 
    100 8 





   3610.21
   3120.11
   2941.50
   2657.5894
    846.7778
0(+)
(1+)
0+
2+
2+
   5219 10 ?   D                                     
   5227.3 20    D       L                      1 12.3 fs 20     5227 2 
 

      0.0
0+
   5232.57 6         I K MN                    2+,(3+) 8 fs +6-5     1132.13 16 
   1183.39 6 
   1783.4 3 
   1787.18 11 
   3147.7 3 
   4385.87 9 
      9 2 
     29 10 
      6 2 
     28 3 
     16 2 
    100






   4100.363
   4048.888
   3448.41
   3445.348
   2085.1045
    846.7778
4+
3+
1+
3+
4+
2+
   5235.89 8         I                         4+ 104 fs +55-28      543.39 6 
    777.14 5 
    936.58 4 
   1135.68 10 
   1186.29 25 
   1480.4 3 
   1790.44 13 
   1847.49 6 
   2276.3 3 
   2578.56 9 
   3150.70 9 
     17 6 
     23 3 
     16 3 
     34 4 
      6 2 
      5 2 
     17 3 
     33 5 
    <12
    <25
    100











   4692.32
   4458.532
   4298.096
   4100.363
   4048.888
   3755.57
   3445.348
   3388.55
   2959.972
   2657.5894
   2085.1045
4+
4+
4+
4+
3+
6+
3+
6+
2+
2+
4+
E(level)
(keV)
XREFJπ(level) T1/2(level)E(γ)
(keV)
I(γ)M(γ)Final Levels
   5249 5    D                              4+        
   5255.7 4   C   G           S               8+ 0.35 ps 4     1499.5 3 
   1866.8 3 
     39 2 
    100 5 
E2
E2
   3755.57
   3388.55
6+
6+
   5256.9 3      F  I KL                      2+ 20 fs 4     4410
   5257 3 
    100 20 
    100 20 


    846.7778
      0.0
2+
0+
   5283.90 20    D    I                                
   5296 5    D F    K                       0+        
   5302.94 6         I                         4+ 28 fs +15-9      757.75 4 
   1005.1 3 
   1915.10 18 
   2180.12 6 
   3217.61 10 
   4456.9 8 
    <28
     18 9 
     40 10 
     27 7 
    100
    <40






   4539.5
   4298.096
   3388.55
   3122.970
   2085.1045
    846.7778
1+,2+
4+
6+
4+
4+
2+
   5307.81 22         I K  N                         1010
   1919.69 6 
   3220
 
 
 



   4298.096
   3388.55
   2085.1045
4+
6+
4+
   5386 7    D                              0+        
   5402.3 10      F     L N P                  GE 1 17 fs 4     2460.3
   5404 3 
    100
 


   2941.50
      0.0
0+
0+
   5451.60 8    D    I K                  de   4+ 98 fs +40-28     1151.84 16 
   1153.78 25 
   1402.79 17 
   1696.17 16 
   2063.25 8 
   4604.9 4 
     57 16 
     57 16 
     41 20 
    100
     96 30 
     10 6 






   4298.096
   4298.096
   4048.888
   3755.57
   3388.55
    846.7778
4+
4+
3+
6+
6+
2+
   5479.15 11    D F  I                         (4+) 25 fs +24-9     3394.10 19 
 

   2085.1045
4+
   5488.24 10    D    I K                       2,3,4 3 fs 2     1120.27 4 
   1368.41 9 
   2042.65 6 
   3401.2 4 
     46 11 
    <50
     69 18 
    100




   4368.13
   4119.936
   3445.348
   2085.1045
3-
3+
3+
4+
E(level)
(keV)
XREFJπ(level) T1/2(level)E(γ)
(keV)
I(γ)M(γ)Final Levels
   5502.94 6    D    I                         (2,3,4)+ 5 fs 2     1101.80 6 
   1402.79 17 
   2058.2 4 
   2133.13 13 
   2845.96 16 
   3418.69 11 
    <20
     25 15 
    <30
     54 16 
     67 9 
    100






   4401.27
   4100.363
   3445.348
   3369.95
   2657.5894
   2085.1045
2+
4+
3+
2+
2+
4+
   5511.6 10    D F  I K  N                    2+      2141.8
    100

   3369.95
2+
   5528 5    D                                     
   5538.07 18         I                         (1,2+)      2168
   2880
   4691
   5538
     34 5 
     71 5 
     58 5 
    100 8 




   3369.95
   2657.5894
    846.7778
      0.0
2+
2+
2+
0+
   5562.38 10    D    I K                              
   5573.51 11    D F  I K               a   e   2+      4726.1 4 
 

    846.7778
2+
   5590.06 21         I                         1+,2,3+      2142
   2145
   2220
   2932
   4743
     50 10 
     33 10 
     28 8 
    100 10 
     40 10 





   3448.41
   3445.348
   3369.95
   2657.5894
    846.7778
1+
3+
2+
2+
2+
   5618.36 10    D F  I                     e   4+ 76 fs +51-24     1223.46 5 
   2173.89 7 
   2230.0 3 
   2658.19 11 
   3535.0 5 
   4772.5 4 
    <12
   <100
     15 10 
     27 15 
     88 30 
    100






   4394.93
   3445.348
   3388.55
   2959.972
   2085.1045
    846.7778
3+
3+
6+
2+
4+
2+
   5623.86 10         I                         (4,5)+ 19 fs +14-10     1523.26 22 
   1575.21 6 
   1867.89 25 
   2500.52 25 
   3539.14 21 
     54 28 
    <15
     83 27 
     36 11 
    100





   4100.363
   4048.888
   3755.57
   3122.970
   2085.1045
4+
3+
6+
4+
4+
E(level)
(keV)
XREFJπ(level) T1/2(level)E(γ)
(keV)
I(γ)M(γ)Final Levels
   5626.84 16   CD  G I K       S       ab  ef  8+ 0.069 ps +21-14      926.2 1 
   1871.3
   2238 2 
    100 2 
      5 5 
      9 2 
M1+E2
E2
E2
   4700.63
   3755.57
   3388.55
7+
6+
6+
   5661.18 17    D    I                         < 14 fs    5661.2 6 
 

      0.0
0+
   5670.33 8    D    I K                       (2,3,4)+ 16 fs +8-6     2711.0 4 
   3585.25 14 
   4822.9 4 
     40 12 
    100
     48 7 



   2959.972
   2085.1045
    846.7778
2+
4+
2+
   5684 5    D                                     
   5697.98 13    D F    K                       (2+) 85 fs +42-33     1293.73 12 
 

   4401.27
2+
   5705.43 7         I                         2+ 3 fs 2      977.29 5 
   2259.92 11 
   2584.73 25 
   2744.88 17 
   3619.6 5 
   4857.4 6 
    <27
     74 20 
     35 15 
     60 20 
    100
     88 26 






   4728.14
   3445.348
   3120.11
   2959.972
   2085.1045
    846.7778
2+
3+
(1+)
2+
4+
2+
   5725 5    D                                     
   5737 10    D      K                              
   5774.00 13    D    I                     efg (4+) 12 fs +9-6     1326.2 3 
   3116.2 3 
     34 11 
    100


   4447.7
   2657.5894

2+
   5795.2 10    D      K  N               de g      4948.2
    100

    846.7778
2+
   5801.34 18         I                              1972.8 4 
   2859.4 4 
 
 


   3829.77
   2941.50
2+
0+
   5806.3 4         I                              4958.2 4 
 

    846.7778
2+
   5817.22 17    D F  I                              2447.5 5 
 

   3369.95
2+
   5824.3 8 ?        I K                              
   5853 2 ?           L                      19 fs 5     5853 2 ?
 

      0.0
0+
   5861.5 4    D F  I                         4+      2902.6 5 
 

   2959.972
2+
   5871.26 11         I K  N            a       (2,3,4) 12 fs +27-10     1551.2 3 
   2127.34 24 
   2750
   3786.4 6 
 
 
 
 




   4320
   3744.13
   3120.11
   2085.1045
2+
2+
(1+)
4+
E(level)
(keV)
XREFJπ(level) T1/2(level)E(γ)
(keV)
I(γ)M(γ)Final Levels
   5874.1 5         I                                
   5882.7 8         I                                
   5913.51 12    D    I                         2+        
   5914.53 14         I                         (2,3,4)+ 22 fs +14-8     1222.38 25 
   1312.42 8 
   1455.5 3 
   1519.6 4 
   1615.91 16 
   2058.2 4 
   2792.65 16 
   2794.13 16 
   3829.64 14 
   5068.0 8 
     15 6 
    <30
    <17
     12 9 
     24 12 
    <29
    <39
    <39
    100
     67 21 










   4692.32
   4608.56
   4458.532
   4394.93
   4298.096
   3856.495
   3122.970
   3120.11
   2085.1045
    846.7778
4+
2+
4+
3+
4+
3+
4+
(1+)
4+
2+
   5921.4 8         I K                              
   5936.17 10    D F  I                         2+      2080
   5089
     49 3 
    100 3 


   3856.495
    846.7778
3+
2+
   5941.48 19    D    I K                              
   5965.81 20    D F  I                     e g      2359.8 4 
 

   3605.69
2+
   5986.86 15    D    I K  N                    (1+ TO 3+)      1447
   2542
   5140
     42 6 
    100 6 
     67 8 



   4539.5
   3445.348
    846.7778
1+,2+
3+
2+
   6002 7    D                                     
   6013 10    D      K                              
   6021.11 10    D    I                              5174.6 5 
 

    846.7778
2+
   6031.68 20         I                                
   6041 8    D      K         U W           (7-)        
   6047.53 13         I                              1508.31 12 
   5200.8 8 
 
 


   4539.5
    846.7778
1+,2+
2+
   6055 8    D F                            2+        
   6061.79 6         I                         4+      1612.96 18 
   1667.07 15 
   1842.53 13 
   2305.6 5 
   2460.2 3 
   3101.22 13 
   3975.4 3 
   5214.6 8 
     46 25 
    <20
     56 24 
     25 14 
     42 16 
    <30
    100
     52 25 








   4447.7
   4394.93
   4298.096
   3755.57
   3600.21
   2959.972
   2085.1045
    846.7778

3+
4+
6+
(1,2+)
2+
4+
2+
E(level)
(keV)
XREFJπ(level) T1/2(level)E(γ)
(keV)
I(γ)M(γ)Final Levels
   6071.6 6    D    I K                       6+        
   6078 3 ?           L                      16 fs 3     6078 3 ?
 

      0.0
0+
   6092.2 6    D F    K  N                 f  (3-)      2643.0
   2722.1
   4007.2
 
 
 



   3448.41
   3369.95
   2085.1045
1+
2+
4+
   6102.21 15         I                         (0 TO 3+)      2496
   2654
   5255
     54 6 
    100 6 
     38 8 



   3605.69
   3448.41
    846.7778
2+
1+
2+
   6110.6 4      F  I                              4026.3 5 
 

   2085.1045
4+
   6115.7 7   CD                                    860.0 5 
    100

   5255.7
8+
   6131.24 10    D F  I K                       2+ 5 fs +4-3     2010.77 25 
   3171.0 4 
   5284.61 25 
     67 25 
     43 20 
    100



   4119.936
   2959.972
    846.7778
3+
2+
2+
   6146.35 13         I                                
   6174 7    D                                     
   6201 10    D      K                              
   6219 3 ?   D      KL                      13 fs 3     6219 3 ?
 

      0.0
0+
   6250.78 24    D F  I  L                      1 8.1 fs 15     5404 3 
   6251 3 
     64 27 
    100 27 


    846.7778
      0.0
2+
0+
   6265 8    D F    K                bc  fg 4+        
   6289 10    D                                     
   6312.75 20    D    I                              1863.83 11 
 

   4447.7

   6316 8    D      K                              
   6327.6 6      F  I                                
   6351 8    D                                     
   6363 7    D F    K                              
   6386.99 18    D    I                              2286.5 4 
 

   4100.363
4+
   6397 8    D      K                              
   6434.8 4    D F  I K                              
   6437.08 16         I                                
E(level)
(keV)
XREFJπ(level) T1/2(level)E(γ)
(keV)
I(γ)M(γ)Final Levels
   6439.50 25         I                                
   6442.91 20         I                                
   6446.92 20    D    I                         2+,3+ 11 fs +7-4     2618
   2842
   2848
   3328
     22 10 
     30 10 
     59 10 
    100 19 




   3829.77
   3605.69
   3600.21
   3120.11
2+
2+
(1,2+)
(1+)
   6454.4 3    D    I K                            5607.8 5 
 

    846.7778
2+
   6472.5 5         I                              2352.2 3 
 

   4119.936
3+
   6489 10    D                              (2+)        
   6512.4 4    D    I K    P                  0+        
   6527 10    D                                     
   6543 10    D                                     
   6555 10    D      K                              
   6566.81 25    D F  I                         0+        
   6593 12    D                                     
   6613 10    D F    K                              
   6621.94 23         I                                
   6625.10 18    D    I                         (0 TO 3+)      3025
   3180
   3665
    100 11 
     47 7 
     76 11 



   3600.21
   3445.348
   2959.972
(1,2+)
3+
2+
   6652 10    D                                     
   6666.62 15    D F  I                         3-        
   6670 12    D      K                              
   6698 1    D       L                      1 0.65 fs 10     5853 2 ?
   6698 3 
 
 


    846.7778
      0.0
2+
0+
   6700 12    D F                            0+        
   6715.90 21    D    I K                              
   6725 15    D                                     
   6742 15    D      K                              
   6767.41 21    D    I                                
E(level)
(keV)
XREFJπ(level) T1/2(level)E(γ)
(keV)
I(γ)M(γ)Final Levels
   6781 15    D F    K                       3-        
   6800 15    D F                            0+        
   6807.8 5    D    I K                bc  f         
   6843 15    D                                     
   6850.9 6   CD      K                   ef  9(+)      1221.7 3 
    100 5 

   5626.84
8+
   6854.67 20         I                              1798.62 13 
 

   5055.87
4+,(3+)
   6869.73 17    D F  I K    P               fg (3-)        
   6883.13 16         I                                
   6889.98 22         I                              3949.0 6 
 

   2941.50
0+
   6916 15    D                                     
   6926 2    D       L                      1- 1.10 eV 29     6926 2 
  (100)

      0.0
0+
   6940 15    D F    K                              
   6978.0 4    D    I K                              
   6981.68 20    D F  I                         (0 TO 3+)      4324
   6135
     86 19 
    100 19 


   2657.5894
    846.7778
2+
2+
   6994 15    D                                     
   7008.00 25         I                              4923.8 7 
 

   2085.1045
4+
   7010.8 4    D    I K                       (>3-)      3935.3 4 
 

   3076.2
(3-)
   7029.8 4    D    I                         (>3-)        
   7055 15    D      K                              
   7061.6 4      F  I  L                      1+ 0.41 fs 8       
   7071.37 22    D    I K                            4986.8 4 
 

   2085.1045
4+
   7084.6 12   C                                     968.9
    100

   6115.7

   7090 15 ?   D                                     
   7102 15    D      K                              
   7124 15    D F                W           0+        
   7135 3            L                      1 8.1 fs 15     7135 3 
 

      0.0
0+
   7154 15    D                                     
   7167.27 24    D F  I KL                      1 5.1 fs 9     6320
   7167 3 
     54 12 
    100 12 


    846.7778
      0.0
2+
0+
E(level)
(keV)
XREFJπ(level) T1/2(level)E(γ)
(keV)
I(γ)M(γ)Final Levels
   7177.2 16   C                               (10+)      1920.9 15 
    100 23 

   5255.7
8+
   7178.1 5         I                                
   7198.5 4    D    I K                              
   7204 15    D                                     
   7211.5 20    D    I  L                      1 0.77 eV 22     6364
   7211
    100
 


    846.7778
      0.0
2+
0+
   7220     F  I K                       0+      3619
   6372
     84 23 
    100 23 


   3600.21
    846.7778
(1,2+)
2+
   7248 2    D       L                      1 2.3 fs 3     7248 2 
 

      0.0
0+
   7254.19 20      F  I                  b    g 0+      3643.8 4 
 

   3610.21
0(+)
   7285.8 4 ?   D    I  L                      1.6 fs 7       
   7312 15    D                                     
   7398.5 4      F  I                                
   7422.67 22      F  I                         (1,2+)      6576
   7423
    100 17 
     17 8 


    846.7778
      0.0
2+
0+
   7446.5 20            L                      1 2.7 fs 8     7446 2 
 

      0.0
0+
   7468.5 20         I  L                      1 2.5 fs 4     7468 2 
 

      0.0
0+
   7475 15    D F                            (3-)        
   7503.6 6   C                               9(+)      2247.1 7 
   2319.3 3 
     16.3 23 
    100 5 


   5256.9
   5184.3
2+
8(+)
   7541.29 23         I                                
   7580     F                                   
   7630     F                            3-        
   7670     F                                   
   7720     F                                   
   7768.61 19      F  I                              3086.2 4 
   5683.2 5 
 
 


   4683.04
   2085.1045
(2+),3+
4+
   7820.6 6   C  F                       d  g 10(+)       969.6 3 
   2564.4 4 
     62 4 
     14 2 


   6850.9
   5255.7
9(+)
8+
   7875.8 3      F  I                         2+        
E(level)
(keV)
XREFJπ(level) T1/2(level)E(γ)
(keV)
I(γ)M(γ)Final Levels
   7886.54 23         I  L                      (1,2+) 1.6 fs 3     1951
   7887
     43 14 
    100 14 


   5936.17
      0.0
2+
0+
   8050     F                                   
   8110 30                P                  0+        
   8120     F                            2+        
   8128 2          J L                      1 3.55 eV 74     8128 2 
  (100)

      0.0
0+
   8138.22 26         I                                
   8219 4            L                      1.8 fs 3     8219 4 
 

      0.0
0+
   8239.7 20      F  IJ L                      1 5.75 eV 92     8239 2 
  (100)

      0.0
0+
   8247.76 29         I                         (0 TO 3+)      7401
    100

    846.7778
2+
   8309.59 24         I  L                      (1,2+) 1.9 fs 6     7463
   8310
    100 11 
     35 11 


    846.7778
      0.0
2+
0+
   8329.65 18         I                                
   8414.8 7   C                               (10+)      2785.7 4 
   3158.2 14 
     86 6 
     14 2 


   5626.84
   5256.9
8+
2+
   8447.87 23         I                         (0 TO 3+)      7601
    100

    846.7778
2+
   8535.95 22         IJ L                      1 4.92 eV 95       
   8679.9 7   C                               11(+)       265.1 3 
    859.2 3 
     14 1 
     86 4 


   8414.8
   7820.6
(10+)
10(+)
   8758.47 19         I                         (0 TO 3+)      3974
   5158
   5388
     91 46 
    100 46 
     91 46 



   4784.12
   3600.21
   3369.95
(1,2+)
(1,2+)
2+
   8767 3          J L                      1.1 fs 2     8767 3 
 

      0.0
0+
   8879 4          J L                      1.5 fs 4     8879 4 
 

      0.0
0+
   8909.9 3         I  L                      (1,2+) 0.97 fs 21     8910?
    100

      0.0
0+
   8962 4            L                      1.2 fs 2     8962 4 
 

      0.0
0+
   8989 4            L                      1.5 fs 3     8989 4 
 

      0.0
0+
   9107 4            L                      0.53 fs 11     9107 4 
 

      0.0
0+
   9140.3 6            L                      1- 1.28 eV 17     9139.5 6 
 
E1
      0.0
0+
   9154 4            L                      0.47 fs 15     8307 4 
   9154 5 
 
 


    846.7778
      0.0
2+
0+
E(level)
(keV)
XREFJπ(level) T1/2(level)E(γ)
(keV)
I(γ)M(γ)Final Levels
   9200 30                P                  0+        
   9280 50                     U W           (8+)        
   9287 3            L                      0.61 fs 14     9287 3 
 

      0.0
0+
   9311 4            L                      0.71 fs 14     9311 4 
 

      0.0
0+
   9322 4            L                      0.70 fs 15     9322 4 
 

      0.0
0+
   9344.7 7   C                               (11+)      1841.1 3 
    100 7 

   7503.6
9(+)
   9378.2 7   C                               (11+)       963.4 3 
    100 6 

   8414.8
(10+)
   9402 3            L                      0.70 fs 16     9402 3 
 

      0.0
0+
   9557.62 21         I  L                      (1,2+) 1.2 fs 4     9558 4 ?
 

      0.0
0+
   9666 5 ?           L                           9666 5 ?
 

      0.0
0+
   9737 5            L                      0.48 fs 13     9737 5 
 

      0.0
0+
   9768 4 ?         J L                      1.0 fs 3     9768 4 ?
 

      0.0
0+
   9895 5 ?         J L                      1.1 fs 3     9895 5 ?
 

      0.0
0+
   9900 50                     U W           (6+)        
   9948 5            L                      0.61 fs 14     9948 5 
 

      0.0
0+
   9969 5 ?           L                      1.5 fs 5     9969 5 
 

      0.0
0+
  10060 5          J L              ab      0.81 fs 23    10060 5 
 

      0.0
0+
  10094.4 7   C                               (12+)      1414.5 3 
    100 5 

   8679.9
11(+)
  10497 3          J L              ab      1 3.44 eV 64    10497 3 
 

      0.0
0+
  10563.1 8   C                               (12+)      1184.9 3 
    100 6 

   9378.2
(11+)
  10898.9 10   C                               (13+)      1554.2 7 
    100 15 

   9344.7
(11+)
  11133 3            L                      1 2.08 eV 52    11133 3 
  (100)

      0.0
0+
  11503.7 3         I                         3+        
  11593.53 23         I                         1+        
  11598.65 18         I                         1+        
  11603.64 19         I                         1+        
  11609.56 20         I                                
  11612.93 18         I                         1+        
  11617.71 20         I                                
  11638.0 3         I                         3(-)        
E(level)
(keV)
XREFJπ(level) T1/2(level)E(γ)
(keV)
I(γ)M(γ)Final Levels
  11640.7 3         I                         3(-)        
  11644.0 3         I                         3(-)        
  11664.0 3         I                         3(-)        
  11678.0 4         I                         4+        
  11680.6 3                                   4+        
  11688.2 3         I                         4+        
  11692.1 3         I                         2+ ≈ 9 keV      
  11832.8 3         I                         3+ ≈ 17 keV      
  11840.8 3         I                         3+        
  11850.0 5         I                         3+        
  11879.6 3         I                         (5+)        
  11886.8 4         I                         (5+)        
  11913.3 6         I                         (4+)        
  11925.2 3         I                         3+ ≈ 11 keV      
  11947.7 3         I                         (4-)        
  11952.6 3         I                         4+        
  11958.1 3         I                         3+ ≈ 11 keV      
  11964 3 ?  C                               (13+)      1401 3 ?
    100 7 

  10563.1
(12+)
  12440 30          J                               
  12520 30          J                               

E(level): From 55Mn(p,p), (p,γ) E=res: IAR, except as noted. For resonance states E(level) are calculated by using E(level)=S(p)+0.9824×E(p), where E(p) is incident proton energy in lab system and S(p)=10183.74 17 (2003Au03); States of E(level)>13000 are unplaced in adopted levels, see 56Fe(e,e’), (3He,3He’), (α,α’), and 60Ni(p,Xγ),(e,e’αγ),(γ,α).

T1/2(level): From ΔS(a) measurement in 56Fe(n,n’γ), except as noted.

E(γ): From 56Fe(n,n’γ), except as noted. For resonance states primary γ’s are unplaced in adopted levels, see 55Mn(p,p), (p,γ) E=res: IAR.

I(γ): Relative photon branching from each level renormalized to 100 for the strongest branching; values from 56Fe(n,n’γ), except as noted.

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Additional Gamma Data:















E(level)
(keV)
Jπ(level)T1/2(level)E(γ)
(keV)
MultipolarityMixing
Ratio
Conversion
Coefficient
Additional Data
    846.7778 2+ 6.07 ps 23      846.7638 19 E2 B(E2)(W.u.)=16.8 7
   2085.1045 4+ 0.64 ps 12     1238.2736 22 E2 B(E2)(W.u.)=24 5
   2657.5894 2+ 21 fs 1     1810.757 4 M1+E2-0.18 1B(E2)(W.u.)=3.3 4, B(M1)(W.u.)=0.166 8
   2941.50 0+ 0.45 ps +21-12     2094.9 3 [E2] B(E2)(W.u.)=2.4 +7-12
   2959.972 2+ 28 fs 3     2113.135 5 M1+E2+0.27 3B(E2)(W.u.)=2.5 6, B(M1)(W.u.)=0.076 9
   3122.970 4+ 47 fs 12     1037.8333 24 M1(+E2)0.00 5B(M1)(W.u.)=(0.42 11)
4+ 47 fs 12     2276.131 4 E2 B(E2)(W.u.)=0.13 4
   3369.95 2+ 17 fs 3     2523.06 5 M1+E2+0.25 15B(E2)(W.u.)=1.3 +15-13, B(M1)(W.u.)=0.065 13
   3388.55 6+ 2.9 ps 2     1303.4 1 E2 B(E2)(W.u.)=4.0 4
   3445.348 3+ 29 fs 5      787.743 5 M1+E2+0.85 35B(E2)(W.u.)=30 16, B(M1)(W.u.)=0.013 5
3+ 29 fs 5     1360.212 4 M1+E2-0.11 1B(E2)(W.u.)=0.79 20, B(M1)(W.u.)=0.060 11
3+ 29 fs 5     2598.500 4 M1+E2-0.28 2B(E2)(W.u.)=0.74 16, B(M1)(W.u.)=0.031 6
   3755.57 6+ 0.13 ps 2      367.0 1 M1+E2+0.07 120.00141B(E2)(W.u.)=4.×101 +16-4, B(M1)(W.u.)=0.61 10, α=0.00141 8, α(K)=0.00125 7, α(L)=0.00012
6+ 0.13 ps 2     1670.8 4 E2 B(E2)(W.u.)=21 4
   3856.495 3+ 25 fs 3      733.514 4 M1 B(M1)(W.u.)=0.025 4
3+ 25 fs 3     1771.357 4 M1(+E2)-0.004 +5-2B(E2)(W.u.)=(0.0015 +38-15), B(M1)(W.u.)=(0.145 18)
3+ 25 fs 3     3009.645 4 M1+E2+0.065 5B(E2)(W.u.)=0.0018 4, B(M1)(W.u.)=0.00190 24
   4048.888 3+ 7 fs 3     1088.894 9 M1+E2+0.43 12B(E2)(W.u.)=9 6, B(M1)(W.u.)=0.028 13
3+ 7 fs 3     1963.741 8 M1+E2+0.22 3B(E2)(W.u.)=1.8 9, B(M1)(W.u.)=0.07 3
3+ 7 fs 3     3202.029 8 M1+E2+0.50 1B(E2)(W.u.)=3.1 14, B(M1)(W.u.)=0.06 3
   4100.363 4+ 43 fs 5      977.372 5 M1(+E2)+0.07 +3-2B(E2)(W.u.)=(0.6 6), B(M1)(W.u.)=(0.061 8)
4+ 43 fs 5     2015.215 5 M1+E2+0.68 5B(E2)(W.u.)=2.3 4, B(M1)(W.u.)=0.0102 13
4+ 43 fs 5     3253.503 4 E2 B(E2)(W.u.)=1.76 21
   4119.936 3+ 0.14 ps 4      996.948 5 M1+E2 B(E2)(W.u.)=3.8 11
3+ 0.14 ps 4     1159.944 6 M1+E2+0.064 +16-36B(E2)(W.u.)=0.006 4, B(M1)(W.u.)=0.0010 3
3+ 0.14 ps 4     2034.791 5 M1+E2-0.073 5B(E2)(W.u.)=0.038 12, B(M1)(W.u.)=0.015 5
3+ 0.14 ps 4     3273.079 4 M1+E2+0.420 4B(E2)(W.u.)=0.023 7, B(M1)(W.u.)=0.00068 20
E(level)
(keV)
Jπ(level)T1/2(level)E(γ)
(keV)
MultipolarityMixing
Ratio
Conversion
Coefficient
Additional Data
   4298.096 4+ 110 fs 50     1175.101 4 M1+E2+0.14 4B(E2)(W.u.)=2.1 16, B(M1)(W.u.)=0.07 4
4+ 110 fs 50     2212.948 4 M1+E2-3.0 10B(E2)(W.u.)=0.7 4, B(M1)(W.u.)=0.00019 15
4+ 110 fs 50     3451.232 4 E2 B(E2)(W.u.)=0.21 10
   4394.93 3+ 35 fs 17     3548.05 6 M1+E2-0.30 2B(E2)(W.u.)=0.17 9, B(M1)(W.u.)=0.012 6
   4700.63 7+ 0.083 ps +82-14     1312.2 1 M1+E2-0.08 8B(E2)(W.u.)=0.7 +15-7, B(M1)(W.u.)=0.0981 13
   5255.7 8+ 0.35 ps 4     1499.5 3 E2 B(E2)(W.u.)=4.7 7
8+ 0.35 ps 4     1866.8 3 E2 B(E2)(W.u.)=4.0 6
   5626.84 8+ 0.069 ps +21-14      926.2 1 M1+E2+0.25 10B(E2)(W.u.)=5.×101 4, B(M1)(W.u.)=0.332 16
8+ 0.069 ps +21-14     1871.3E2 B(E2)(W.u.)=1.2 12
8+ 0.069 ps +21-14     2238 2 E2 B(E2)(W.u.)=0.9 +3-4
   9140.3 1- 1.28 eV 17     9139.5 6 E1 B(E1)(W.u.)=0.0016983 4

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Additional Level Data and Comments:

E(level)Jπ(level)T1/2(level)Comments
    846.77782+ 6.07 ps 23  Q=-0.19 8 (2005St24), μ=1.22 16 (2005St24), G=+0.504 63 (2009Ea01)
XREF: F(850)J(850)K(840)M(850)R(850)X(850)Y(840).
E(level): From 54Fe(α,2pγ). From 56Co ε decay.
   2085.10454+ 0.64 ps 12  XREF: F(2090)J(2090)K(2078)X(2100)Z(2090).
E(level): From 54Fe(α,2pγ). From 56Co ε decay.
   2657.58942+ 21 fs 1  XREF: M(2650)R(2650).
E(level): From 56Co ε decay. From 54Fe(α,2pγ). From 56Co ε decay.
Jπ(level): From angular momentum transfer in 56Fe(d,d’), or 56Fe(p,p’), or 56Fe(α,α’), or 56Fe(e,e’).
   2941.500+ 0.45 ps +21-12  XREF: F(2950).
   2959.9722+ 28 fs 3  XREF: O(2950)Z(2970).
E(level): From 56Co ε decay. From 54Fe(α,2pγ). From 56Co ε decay.
Jπ(level): From angular momentum transfer in 56Fe(d,d’), or 56Fe(p,p’), or 56Fe(α,α’), or 56Fe(e,e’).
   3076.2(3-)   XREF: M(3100)W(3100).
E(level): From 56Co ε decay.
Jπ(level): From angular momentum transfer in 56Fe(d,d’), or 56Fe(p,p’), or 56Fe(α,α’), or 56Fe(e,e’).
   3120.11(1+) 19 fs 1  E(level): From 56Co ε decay.
Jπ(level): From angular momentum transfer in 56Fe(d,d’), or 56Fe(p,p’), or 56Fe(α,α’), or 56Fe(e,e’).
   3122.9704+ 47 fs 12  XREF: Z(3150).
E(level): From 56Co ε decay. From 54Fe(α,2pγ). From 56Co ε decay.
Jπ(level): From angular momentum transfer in 56Fe(d,d’), or 56Fe(p,p’), or 56Fe(α,α’), or 56Fe(e,e’).
   3369.952+ 17 fs 3  XREF: K(3375).
E(level): From 56Co ε decay. From 54Fe(α,2pγ). From 56Co ε decay.
Jπ(level): From angular momentum transfer in 56Fe(d,d’), or 56Fe(p,p’), or 56Fe(α,α’), or 56Fe(e,e’).
   3388.556+ 2.9 ps 2  XREF: Z(3400).
   3445.3483+ 29 fs 5  E(level): From 54Fe(α,2pγ). From 56Co ε decay.
   3600.21(1,2+) < 59 fs E(level): From 56Fe(p,p’γ).
Jπ(level): From 55Mn(p,p’), (p,γ) E=res: IAR based on reasonable assumption of the multipolarity of observed γ-transitions and application of corresponding selection rules, or analyses of IAR state in 56Mn.
   3605.692+ 0.15 ps 4  E(level): From 56Co ε decay.
Jπ(level): From angular momentum transfer in 56Fe(d,d’), or 56Fe(p,p’), or 56Fe(α,α’), or 56Fe(e,e’).
   3610.210(+) 52 fs 21  E(level): From 56Fe(p,p’γ).
Jπ(level): From 55Mn(p,p’), (p,γ) E=res: IAR based on reasonable assumption of the multipolarity of observed γ-transitions and application of corresponding selection rules, or analyses of IAR state in 56Mn.
   3744.132+   E(level): From 56Co ε decay.
Jπ(level): From angular momentum transfer in 56Fe(d,d’), or 56Fe(p,p’), or 56Fe(α,α’), or 56Fe(e,e’).
   3759.6   XREF: Z(3780).
   3829.772+ 39 fs 5  E(level): From 56Co ε decay.
Jπ(level): From angular momentum transfer in 56Fe(d,d’), or 56Fe(p,p’), or 56Fe(α,α’), or 56Fe(e,e’).
   3856.4953+ 25 fs 3  E(level): From 54Fe(α,2pγ). From 56Co ε decay.
   4048.8883+ 7 fs 3  XREF: Z(4080).
E(level): From 54Fe(α,2pγ). From 56Co ε decay.
   4085.93(1,2+)   E(level): From 56Fe(p,p’γ).
Jπ(level): From 55Mn(p,p’), (p,γ) E=res: IAR based on reasonable assumption of the multipolarity of observed γ-transitions and application of corresponding selection rules, or analyses of IAR state in 56Mn.
   4100.3634+ 43 fs 5  E(level): From 56Co ε decay. From 54Fe(α,2pγ). From 56Co ε decay.
Jπ(level): From angular momentum transfer in 56Fe(d,d’), or 56Fe(p,p’), or 56Fe(α,α’), or 56Fe(e,e’).
   4119.9363+ 0.14 ps 4  E(level): From 54Fe(α,2pγ). From 56Co ε decay.
   4298.0964+ 110 fs 50  E(level): From 54Fe(α,2pγ). From 56Co ε decay.
   4302.00+   E(level): From 56Fe(n,n’γ).
Jπ(level): From angular momentum transfer in 54Fe(t,p), or 54Fe(3He,n).
   4368.133-   E(level): From 56Co ε decay.
Jπ(level): From angular momentum transfer in 56Fe(d,d’), or 56Fe(p,p’), or 56Fe(α,α’), or 56Fe(e,e’).
E(level)Jπ(level)T1/2(level)Comments
   4394.933+ 35 fs 17  E(level): From 54Fe(α,2pγ). From 56Co ε decay.
   4401.272+ 56 fs +48-22  XREF: Z(4420).
Jπ(level): From angular momentum transfer in 54Fe(t,p), or 54Fe(3He,n).
T1/2(level): From 55Mn(p,p), (p,γ) E=res: IAR.
   4447.7   E(level): From 54Fe(α,2pγ). From 56Co ε decay.
   4458.5324+ 26 fs +12-8  E(level): From 56Co ε decay. From 54Fe(α,2pγ). From 56Co ε decay.
Jπ(level): From angular momentum transfer in 56Fe(d,d’), or 56Fe(p,p’), or 56Fe(α,α’), or 56Fe(e,e’).
   4509.563- 83 fs 28  XREF: O(4530).
E(level): From 56Co ε decay.
Jπ(level): From angular momentum transfer in 56Fe(d,d’), or 56Fe(p,p’), or 56Fe(α,α’), or 56Fe(e,e’).
   4539.51+,2+ 25 fs +20-14  XREF: O(4530).
   4554.774+ 94 fs +43-24  E(level): From 56Fe(p,p’γ).
Jπ(level): From 55Mn(p,p’), (p,γ) E=res: IAR based on reasonable assumption of the multipolarity of observed γ-transitions and application of corresponding selection rules, or analyses of IAR state in 56Mn.
T1/2(level): From 55Mn(p,p), (p,γ) E=res: IAR.
   4608.562+ 47 fs +33-18  E(level): From 56Fe(p,p’γ).
Jπ(level): From 55Mn(p,p’), (p,γ) E=res: IAR based on reasonable assumption of the multipolarity of observed γ-transitions and application of corresponding selection rules, or analyses of IAR state in 56Mn.
T1/2(level): From 55Mn(p,p), (p,γ) E=res: IAR.
   4610.824+ 27 fs +45-15  E(level): From 56Co ε decay.
Jπ(level): From angular momentum transfer in 56Fe(d,d’), or 56Fe(p,p’), or 56Fe(α,α’), or 56Fe(e,e’).
T1/2(level): From 55Mn(p,p), (p,γ) E=res: IAR.
   4620   E(level): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
   4658.262+,3+,4+ 49 fs +8-7  E(level): From 56Mn β- decay.
Jπ(level): From angular momentum transfer in 57Fe(d,t).
T1/2(level): From 55Mn(p,p), (p,γ) E=res: IAR.
   4683.04(2+),3+ 66 fs +63-25  E(level): From 56Fe(p,p’γ).
Jπ(level): From 55Mn(p,p’), (p,γ) E=res: IAR based on reasonable assumption of the multipolarity of observed γ-transitions and application of corresponding selection rules, or analyses of IAR state in 56Mn.
T1/2(level): From 55Mn(p,p), (p,γ) E=res: IAR.
   4692.324+ 33 fs +10-7  E(level): From 56Fe(p,p’γ).
Jπ(level): From 55Mn(p,p’), (p,γ) E=res: IAR based on reasonable assumption of the multipolarity of observed γ-transitions and application of corresponding selection rules, or analyses of IAR state in 56Mn.
T1/2(level): From 55Mn(p,p), (p,γ) E=res: IAR.
   4728.142+ 63 fs +57-20  E(level): From 56Co ε decay.
Jπ(level): From angular momentum transfer in 56Fe(d,d’), or 56Fe(p,p’), or 56Fe(α,α’), or 56Fe(e,e’).
   4730.00+   E(level): From 56Fe(n,n’γ).
Jπ(level): From angular momentum transfer in 54Fe(t,p), or 54Fe(3He,n).
   4737.332+ 32 fs +7-6  E(level): From 56Fe(p,p’γ).
Jπ(level): From 55Mn(p,p’), (p,γ) E=res: IAR based on reasonable assumption of the multipolarity of observed γ-transitions and application of corresponding selection rules, or analyses of IAR state in 56Mn.
T1/2(level): From 55Mn(p,p), (p,γ) E=res: IAR.
   4784.12(1,2+)   E(level): From 56Fe(p,p’γ).
Jπ(level): From 55Mn(p,p’), (p,γ) E=res: IAR based on reasonable assumption of the multipolarity of observed γ-transitions and application of corresponding selection rules, or analyses of IAR state in 56Mn.
   4802   E(level): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
   4812.684+,5+   E(level): From 56Fe(p,p’γ).
Jπ(level): From 55Mn(p,p’), (p,γ) E=res: IAR based on reasonable assumption of the multipolarity of observed γ-transitions and application of corresponding selection rules, or analyses of IAR state in 56Mn.
   4820   E(level): From 54Fe(t,p).
   4847.9(2+) 64 fs 27  E(level): From 56Fe(p,p’γ). Iγ unknown.
Jπ(level): From 55Mn(p,p’), (p,γ) E=res: IAR based on reasonable assumption of the multipolarity of observed γ-transitions and application of corresponding selection rules, or analyses of IAR state in 56Mn.
T1/2(level): Upper limit based upon the assumption that Γγ0/Γ=1.
   4866.52(1,2+) 9.7 fs 20  E(level): From 56Fe(p,p’γ).
Jπ(level): From 55Mn(p,p’), (p,γ) E=res: IAR based on reasonable assumption of the multipolarity of observed γ-transitions and application of corresponding selection rules, or analyses of IAR state in 56Mn.
T1/2(level): From 55Mn(p,p), (p,γ) E=res: IAR.
   4878.02+   Jπ(level): From angular momentum transfer in 54Fe(t,p), or 54Fe(3He,n).
   4887.1   E(level): From 56Fe(n,n’γ).
   5023.49(1,2)+ 6 fs 3  E(level): From 56Fe(p,p’γ).
Jπ(level): From 55Mn(p,p’), (p,γ) E=res: IAR based on reasonable assumption of the multipolarity of observed γ-transitions and application of corresponding selection rules, or analyses of IAR state in 56Mn.
T1/2(level): From 55Mn(p,p), (p,γ) E=res: IAR.
E(level)Jπ(level)T1/2(level)Comments
   5033.02(4,5)+ 10 fs +3-2  E(level): From 56Fe(p,p’γ).
Jπ(level): From 55Mn(p,p’), (p,γ) E=res: IAR based on reasonable assumption of the multipolarity of observed γ-transitions and application of corresponding selection rules, or analyses of IAR state in 56Mn.
T1/2(level): From 55Mn(p,p), (p,γ) E=res: IAR.
   5038.494+ 78 fs +36-22  XREF: F(5050).
E(level): From 56Co ε decay.
Jπ(level): From angular momentum transfer in 56Fe(d,d’), or 56Fe(p,p’), or 56Fe(α,α’), or 56Fe(e,e’).
T1/2(level): From 55Mn(p,p), (p,γ) E=res: IAR.
   5055.874+,(3+) 66 fs +63-25  XREF: H(5062).
E(level): From 56Fe(p,p’γ).
Jπ(level): From 55Mn(p,p’), (p,γ) E=res: IAR based on reasonable assumption of the multipolarity of observed γ-transitions and application of corresponding selection rules, or analyses of IAR state in 56Mn.
T1/2(level): From 55Mn(p,p), (p,γ) E=res: IAR.
   5122.115-   XREF: W(5080).
E(level): From 56Co ε decay. From 56Fe(n,n’γ).
Jπ(level): From angular momentum transfer in 56Fe(d,d’), or 56Fe(p,p’), or 56Fe(α,α’), or 56Fe(e,e’).
   5131.663+,4+,(2+) 73 fs +28-17  E(level): From 56Fe(p,p’γ).
Jπ(level): From 55Mn(p,p’), (p,γ) E=res: IAR based on reasonable assumption of the multipolarity of observed γ-transitions and application of corresponding selection rules, or analyses of IAR state in 56Mn.
T1/2(level): From 55Mn(p,p), (p,γ) E=res: IAR.
   5149.542+   XREF: K(5156).
E(level): From 56Fe(p,p’γ). From 56Fe(n,n’γ).
Jπ(level): From 55Mn(p,p’), (p,γ) E=res: IAR based on reasonable assumption of the multipolarity of observed γ-transitions and application of corresponding selection rules, or analyses of IAR state in 56Mn.
   5184.38(+)   E(level): From 56Fe(γ,γ’), (pol γ,γ’). From (HI,xnγ).
Jπ(level): From γγ-coin and γ(θ) in (HI,xnγ).
   5186.822+   XREF: O(5200)Z(5200).
   5194.80(1,2+)   E(level): From 56Fe(p,p’γ).
Jπ(level): From 55Mn(p,p’), (p,γ) E=res: IAR based on reasonable assumption of the multipolarity of observed γ-transitions and application of corresponding selection rules, or analyses of IAR state in 56Mn.
   5219   E(level): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
   5227.31 12.3 fs 20  E(level): From 56Fe(γ,γ’), (pol γ,γ’).
Jπ(level): Based on γ resonance ex. measurements in 56Fe(γ,γ’), (pol γ,γ’).
   5232.572+,(3+) 8 fs +6-5  E(level): From 56Fe(p,p’γ).
Jπ(level): From 55Mn(p,p’), (p,γ) E=res: IAR based on reasonable assumption of the multipolarity of observed γ-transitions and application of corresponding selection rules, or analyses of IAR state in 56Mn.
T1/2(level): From 55Mn(p,p), (p,γ) E=res: IAR.
   5235.894+ 104 fs +55-28  E(level): From 56Fe(p,p’γ).
Jπ(level): From 55Mn(p,p’), (p,γ) E=res: IAR based on reasonable assumption of the multipolarity of observed γ-transitions and application of corresponding selection rules, or analyses of IAR state in 56Mn.
T1/2(level): From 55Mn(p,p), (p,γ) E=res: IAR.
   52494+   E(level): From 56Co ε decay. From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
Jπ(level): From angular momentum transfer in 56Fe(d,d’), or 56Fe(p,p’), or 56Fe(α,α’), or 56Fe(e,e’).
   5255.78+ 0.35 ps 4  E(level): From 56Fe(γ,γ’), (pol γ,γ’). From (HI,xnγ).
   5256.92+ 20 fs 4  E(level): Iγ unknown.
Jπ(level): Based on γ resonance ex. measurements in 56Fe(γ,γ’), (pol γ,γ’).
T1/2(level): Upper limit based upon the assumption that Γγ0/Γ=1.
   52960+   E(level): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
Jπ(level): From angular momentum transfer in 54Fe(t,p), or 54Fe(3He,n).
   5302.944+ 28 fs +15-9  E(level): From 56Fe(p,p’γ).
Jπ(level): From 55Mn(p,p’), (p,γ) E=res: IAR based on reasonable assumption of the multipolarity of observed γ-transitions and application of corresponding selection rules, or analyses of IAR state in 56Mn.
T1/2(level): From 55Mn(p,p), (p,γ) E=res: IAR.
   53860+   E(level): From 56Fe(γ,γ’), (pol γ,γ’). From (HI,xnγ).
Jπ(level): From angular momentum transfer in 54Fe(t,p), or 54Fe(3He,n).
   5402.3GE 1 17 fs 4  E(level): From 56Fe(n,n’γ). Iγ unknown.
T1/2(level): Upper limit based upon the assumption that Γγ0/Γ=1.
   5451.604+ 98 fs +40-28  XREF: K(5455).
E(level): From 56Fe(p,p’γ).
Jπ(level): From 55Mn(p,p’), (p,γ) E=res: IAR based on reasonable assumption of the multipolarity of observed γ-transitions and application of corresponding selection rules, or analyses of IAR state in 56Mn.
T1/2(level): From 55Mn(p,p), (p,γ) E=res: IAR.
   5479.15(4+) 25 fs +24-9  E(level): From 56Fe(p,p’γ).
Jπ(level): From 55Mn(p,p’), (p,γ) E=res: IAR based on reasonable assumption of the multipolarity of observed γ-transitions and application of corresponding selection rules, or analyses of IAR state in 56Mn.
T1/2(level): From 55Mn(p,p), (p,γ) E=res: IAR.
   5488.242,3,4 3 fs 2  E(level): From 56Fe(p,p’γ).
Jπ(level): From 55Mn(p,p’), (p,γ) E=res: IAR based on reasonable assumption of the multipolarity of observed γ-transitions and application of corresponding selection rules, or analyses of IAR state in 56Mn.
T1/2(level): From 55Mn(p,p), (p,γ) E=res: IAR.
   5502.94(2,3,4)+ 5 fs 2  E(level): From 56Fe(p,p’γ).
Jπ(level): From 55Mn(p,p’), (p,γ) E=res: IAR based on reasonable assumption of the multipolarity of observed γ-transitions and application of corresponding selection rules, or analyses of IAR state in 56Mn.
T1/2(level): From 55Mn(p,p), (p,γ) E=res: IAR.
   5511.62+   E(level): From 56Co ε decay.
Jπ(level): From angular momentum transfer in 54Fe(t,p), or 54Fe(3He,n). From angular momentum transfer in 56Fe(d,d’), or 56Fe(p,p’), or 56Fe(α,α’), or 56Fe(e,e’).
E(level)Jπ(level)T1/2(level)Comments
   5528   E(level): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
   5538.07(1,2+)   E(level): From 56Fe(p,p’γ).
Jπ(level): From 55Mn(p,p’), (p,γ) E=res: IAR based on reasonable assumption of the multipolarity of observed γ-transitions and application of corresponding selection rules, or analyses of IAR state in 56Mn.
   5573.512+   XREF: K(5591).
Jπ(level): From angular momentum transfer in 54Fe(t,p), or 54Fe(3He,n).
   5590.061+,2,3+   E(level): From 56Fe(p,p’γ).
Jπ(level): From 55Mn(p,p’), (p,γ) E=res: IAR based on reasonable assumption of the multipolarity of observed γ-transitions and application of corresponding selection rules, or analyses of IAR state in 56Mn.
   5618.364+ 76 fs +51-24  E(level): From 56Fe(p,p’γ).
Jπ(level): From 55Mn(p,p’), (p,γ) E=res: IAR based on reasonable assumption of the multipolarity of observed γ-transitions and application of corresponding selection rules, or analyses of IAR state in 56Mn.
T1/2(level): From 55Mn(p,p), (p,γ) E=res: IAR.
   5623.86(4,5)+ 19 fs +14-10  E(level): From 56Fe(p,p’γ).
Jπ(level): From 55Mn(p,p’), (p,γ) E=res: IAR based on reasonable assumption of the multipolarity of observed γ-transitions and application of corresponding selection rules, or analyses of IAR state in 56Mn.
T1/2(level): From 55Mn(p,p), (p,γ) E=res: IAR.
   5626.848+ 0.069 ps +21-14  XREF: d(5621).
   5661.18 < 14 fs T1/2(level): From 55Mn(p,p), (p,γ) E=res: IAR.
   5670.33(2,3,4)+ 16 fs +8-6  E(level): From 56Fe(p,p’γ).
Jπ(level): From 55Mn(p,p’), (p,γ) E=res: IAR based on reasonable assumption of the multipolarity of observed γ-transitions and application of corresponding selection rules, or analyses of IAR state in 56Mn.
T1/2(level): From 55Mn(p,p), (p,γ) E=res: IAR.
   5684   E(level): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
   5697.98(2+) 85 fs +42-33  E(level): From 56Fe(p,p’γ).
Jπ(level): From 55Mn(p,p’), (p,γ) E=res: IAR based on reasonable assumption of the multipolarity of observed γ-transitions and application of corresponding selection rules, or analyses of IAR state in 56Mn.
T1/2(level): From 55Mn(p,p), (p,γ) E=res: IAR.
   5705.432+ 3 fs 2  E(level): From 56Fe(p,p’γ).
Jπ(level): From 55Mn(p,p’), (p,γ) E=res: IAR based on reasonable assumption of the multipolarity of observed γ-transitions and application of corresponding selection rules, or analyses of IAR state in 56Mn.
T1/2(level): From 55Mn(p,p), (p,γ) E=res: IAR.
   5725   E(level): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
   5737   E(level): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
   5774.00(4+) 12 fs +9-6  XREF: d(5768).
E(level): From 56Co ε decay.
Jπ(level): From angular momentum transfer in 56Fe(d,d’), or 56Fe(p,p’), or 56Fe(α,α’), or 56Fe(e,e’).
T1/2(level): From 55Mn(p,p), (p,γ) E=res: IAR.
   5795.2   XREF: d(5784).
E(level): From 56Fe(n,n’γ).
   5853 19 fs 5  E(level): From 56Fe(γ,γ’), (pol γ,γ’). Iγ unknown.
T1/2(level): Upper limit based upon the assumption that Γγ0/Γ=1.
   5861.54+   E(level): From 56Co ε decay.
Jπ(level): From angular momentum transfer in 56Fe(d,d’), or 56Fe(p,p’), or 56Fe(α,α’), or 56Fe(e,e’).
   5871.26(2,3,4) 12 fs +27-10  E(level): From 56Fe(p,p’γ).
Jπ(level): From 55Mn(p,p’), (p,γ) E=res: IAR based on reasonable assumption of the multipolarity of observed γ-transitions and application of corresponding selection rules, or analyses of IAR state in 56Mn.
T1/2(level): From 55Mn(p,p), (p,γ) E=res: IAR.
   5913.512+   E(level): From 56Fe(p,p’γ).
Jπ(level): From 55Mn(p,p’), (p,γ) E=res: IAR based on reasonable assumption of the multipolarity of observed γ-transitions and application of corresponding selection rules, or analyses of IAR state in 56Mn.
   5914.53(2,3,4)+ 22 fs +14-8  E(level): From 56Fe(p,p’γ).
Jπ(level): From 55Mn(p,p’), (p,γ) E=res: IAR based on reasonable assumption of the multipolarity of observed γ-transitions and application of corresponding selection rules, or analyses of IAR state in 56Mn.
T1/2(level): From 55Mn(p,p), (p,γ) E=res: IAR.
   5936.172+   Jπ(level): From angular momentum transfer in 54Fe(t,p), or 54Fe(3He,n).
   5965.81   XREF: F(5970).
   6002   E(level): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
   6013   E(level): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
E(level)Jπ(level)T1/2(level)Comments
   6041(7-)   E(level): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
   60552+   E(level): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
Jπ(level): From angular momentum transfer in 54Fe(t,p), or 54Fe(3He,n).
   6061.794+   E(level): From 56Fe(p,p’γ).
Jπ(level): From 55Mn(p,p’), (p,γ) E=res: IAR based on reasonable assumption of the multipolarity of observed γ-transitions and application of corresponding selection rules, or analyses of IAR state in 56Mn.
   6071.66+   E(level): From 56Co ε decay.
Jπ(level): From angular momentum transfer in 56Fe(d,d’), or 56Fe(p,p’), or 56Fe(α,α’), or 56Fe(e,e’).
   6078 16 fs 3  E(level): From 56Fe(γ,γ’), (pol γ,γ’). Iγ unknown.
T1/2(level): Upper limit based upon the assumption that Γγ0/Γ=1.
   6092.2(3-)   XREF: F(6080).
Jπ(level): From angular momentum transfer in 54Fe(t,p), or 54Fe(3He,n).
   6102.21(0 TO 3+)   E(level): From 56Fe(p,p’γ).
Jπ(level): From 55Mn(p,p’), (p,γ) E=res: IAR based on reasonable assumption of the multipolarity of observed γ-transitions and application of corresponding selection rules, or analyses of IAR state in 56Mn.
   6115.7   E(level): From 56Fe(γ,γ’), (pol γ,γ’). From (HI,xnγ).
   6131.242+ 5 fs +4-3  E(level): From 56Fe(p,p’γ).
Jπ(level): From 55Mn(p,p’), (p,γ) E=res: IAR based on reasonable assumption of the multipolarity of observed γ-transitions and application of corresponding selection rules, or analyses of IAR state in 56Mn.
T1/2(level): From 55Mn(p,p), (p,γ) E=res: IAR.
   6174   E(level): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
   6201   E(level): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
   6219 13 fs 3  E(level): From 56Fe(γ,γ’), (pol γ,γ’). Iγ unknown.
T1/2(level): Upper limit based upon the assumption that Γγ0/Γ=1.
   6250.781 8.1 fs 15  E(level): Iγ unknown. From 56Fe(p,p’γ).
Jπ(level): From 55Mn(p,p’), (p,γ) E=res: IAR based on reasonable assumption of the multipolarity of observed γ-transitions and application of corresponding selection rules, or analyses of IAR state in 56Mn.
T1/2(level): Upper limit based upon the assumption that Γγ0/Γ=1.
   62654+   XREF: K(6273).
E(level): From 56Co ε decay. From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
Jπ(level): From angular momentum transfer in 56Fe(d,d’), or 56Fe(p,p’), or 56Fe(α,α’), or 56Fe(e,e’).
   6289   E(level): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
   6316   E(level): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
   6351   E(level): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
   6363   E(level): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
   6397   E(level): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
   6446.922+,3+ 11 fs +7-4  E(level): From 56Fe(p,p’γ).
Jπ(level): From 55Mn(p,p’), (p,γ) E=res: IAR based on reasonable assumption of the multipolarity of observed γ-transitions and application of corresponding selection rules, or analyses of IAR state in 56Mn.
T1/2(level): From 55Mn(p,p), (p,γ) E=res: IAR.
   6489(2+)   E(level): From 56Co ε decay. From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
Jπ(level): From angular momentum transfer in 56Fe(d,d’), or 56Fe(p,p’), or 56Fe(α,α’), or 56Fe(e,e’).
   6527   E(level): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
   6543   E(level): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
   6555   E(level): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
   6566.810+   Jπ(level): From angular momentum transfer in 54Fe(t,p), or 54Fe(3He,n).
E(level)Jπ(level)T1/2(level)Comments
   6593   E(level): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
   6613   E(level): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
   6625.10(0 TO 3+)   E(level): From 56Co ε decay. From 56Fe(p,p’γ).
Jπ(level): From angular momentum transfer in 56Fe(d,d’), or 56Fe(p,p’), or 56Fe(α,α’), or 56Fe(e,e’). From 55Mn(p,p’), (p,γ) E=res: IAR based on reasonable assumption of the multipolarity of observed γ-transitions and application of corresponding selection rules, or analyses of IAR state in 56Mn.
   6652   E(level): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
   6666.623-   Jπ(level): From angular momentum transfer in 54Fe(t,p), or 54Fe(3He,n).
   6670   E(level): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
   66981 0.65 fs 10  E(level): From 56Fe(γ,γ’), (pol γ,γ’). Iγ unknown.
Jπ(level): Based on γ resonance ex. measurements in 56Fe(γ,γ’), (pol γ,γ’).
T1/2(level): Upper limit based upon the assumption that Γγ0/Γ=1.
   67000+   E(level): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
Jπ(level): From angular momentum transfer in 54Fe(t,p), or 54Fe(3He,n).
   6725   E(level): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
   6742   E(level): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
   67813-   Jπ(level): From angular momentum transfer in 54Fe(t,p), or 54Fe(3He,n).
   68000+   E(level): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
Jπ(level): From angular momentum transfer in 54Fe(t,p), or 54Fe(3He,n).
   6807.8   XREF: K(6823).
   6843   E(level): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
   6850.99(+)   XREF: d(6856)K(6855).
E(level): From 56Mn β- decay. From 56Fe(γ,γ’), (pol γ,γ’). From (HI,xnγ).
Jπ(level): From angular momentum transfer in 57Fe(d,t).
   6869.73(3-)   XREF: F(6870).
E(level): From 56Co ε decay.
Jπ(level): From angular momentum transfer in 56Fe(d,d’), or 56Fe(p,p’), or 56Fe(α,α’), or 56Fe(e,e’).
   6916   E(level): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
   69261- 1.10 eV 29  E(level): From 56Fe(γ,γ’), (pol γ,γ’).
Jπ(level): Based on γ resonance ex. measurements in 56Fe(γ,γ’), (pol γ,γ’).
T1/2(level): From 56Fe(γ,γ’), (pol γ,γ’) assuming 100% transition to g.s.
   6940   E(level): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
   6981.68(0 TO 3+)   E(level): From 56Fe(p,p’γ).
Jπ(level): From 55Mn(p,p’), (p,γ) E=res: IAR based on reasonable assumption of the multipolarity of observed γ-transitions and application of corresponding selection rules, or analyses of IAR state in 56Mn.
   6994   E(level): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
   7010.8(>3-)   E(level): From 56Fe(p,p’γ).
Jπ(level): From 55Mn(p,p’), (p,γ) E=res: IAR based on reasonable assumption of the multipolarity of observed γ-transitions and application of corresponding selection rules, or analyses of IAR state in 56Mn.
   7029.8(>3-)   E(level): From 56Fe(p,p’γ).
Jπ(level): From 55Mn(p,p’), (p,γ) E=res: IAR based on reasonable assumption of the multipolarity of observed γ-transitions and application of corresponding selection rules, or analyses of IAR state in 56Mn.
   7055   E(level): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
   7061.61+ 0.41 fs 8  E(level): Iγ unknown.
Jπ(level): Based on γ resonance ex. measurements in 56Fe(γ,γ’), (pol γ,γ’).
T1/2(level): Upper limit based upon the assumption that Γγ0/Γ=1.
E(level)Jπ(level)T1/2(level)Comments
   7084.6   E(level): From 56Fe(γ,γ’), (pol γ,γ’). From (HI,xnγ).
   7090   E(level): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
   7102   E(level): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
   71240+   E(level): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
Jπ(level): From angular momentum transfer in 54Fe(t,p), or 54Fe(3He,n).
   71351 8.1 fs 15  E(level): From 56Fe(γ,γ’), (pol γ,γ’). Iγ unknown.
Jπ(level): Based on γ resonance ex. measurements in 56Fe(γ,γ’), (pol γ,γ’).
T1/2(level): Upper limit based upon the assumption that Γγ0/Γ=1.
   7154   E(level): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
   7167.271 5.1 fs 9  E(level): Iγ unknown.
Jπ(level): Based on γ resonance ex. measurements in 56Fe(γ,γ’), (pol γ,γ’).
T1/2(level): Upper limit based upon the assumption that Γγ0/Γ=1.
   7177.2(10+)   E(level): From 56Fe(γ,γ’), (pol γ,γ’). From (HI,xnγ).
Jπ(level): From γγ-coin and γ(θ) in (HI,xnγ).
   7204   E(level): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
   7211.51 0.77 eV 22  Jπ(level): Based on γ resonance ex. measurements in 56Fe(γ,γ’), (pol γ,γ’).
T1/2(level): From 56Fe(γ,γ’), (pol γ,γ’) assuming 100% transition to g.s.
   72200+   Jπ(level): From angular momentum transfer in 54Fe(t,p), or 54Fe(3He,n).
   72481 2.3 fs 3  E(level): Iγ unknown. From 56Fe(γ,γ’), (pol γ,γ’).
Jπ(level): Based on γ resonance ex. measurements in 56Fe(γ,γ’), (pol γ,γ’).
T1/2(level): Upper limit based upon the assumption that Γγ0/Γ=1.
   7254.190+   XREF: F(7290).
Jπ(level): From angular momentum transfer in 54Fe(t,p), or 54Fe(3He,n).
   7285.8 1.6 fs 7  E(level): Iγ unknown.
T1/2(level): Upper limit based upon the assumption that Γγ0/Γ=1.
   7312   E(level): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
   7422.67(1,2+)   E(level): From 56Fe(p,p’γ).
Jπ(level): From 55Mn(p,p’), (p,γ) E=res: IAR based on reasonable assumption of the multipolarity of observed γ-transitions and application of corresponding selection rules, or analyses of IAR state in 56Mn.
   7446.51 2.7 fs 8  E(level): Iγ unknown. From 56Fe(γ,γ’), (pol γ,γ’).
Jπ(level): Based on γ resonance ex. measurements in 56Fe(γ,γ’), (pol γ,γ’).
T1/2(level): Upper limit based upon the assumption that Γγ0/Γ=1.
   7468.51 2.5 fs 4  E(level): Iγ unknown.
Jπ(level): Based on γ resonance ex. measurements in 56Fe(γ,γ’), (pol γ,γ’).
T1/2(level): Upper limit based upon the assumption that Γγ0/Γ=1.
   7475(3-)   E(level): From 56Co ε decay. From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
Jπ(level): From angular momentum transfer in 56Fe(d,d’), or 56Fe(p,p’), or 56Fe(α,α’), or 56Fe(e,e’).
   7503.69(+)   E(level): From 56Fe(γ,γ’), (pol γ,γ’). From (HI,xnγ).
Jπ(level): From γγ-coin and γ(θ) in (HI,xnγ).
   7580   E(level): From 54Fe(t,p).
   76303-   E(level): From 54Fe(t,p).
Jπ(level): From angular momentum transfer in 54Fe(t,p), or 54Fe(3He,n). From angular momentum transfer in 54Fe(t,p), or 54Fe(3He,n).
   7670   E(level): From 54Fe(t,p).
   7720   E(level): From 54Fe(t,p).
   7820.610(+)   XREF: F(7840).
E(level): From 56Mn β- decay. From 56Fe(γ,γ’), (pol γ,γ’). From (HI,xnγ).
Jπ(level): From angular momentum transfer in 57Fe(d,t).
E(level)Jπ(level)T1/2(level)Comments
   7875.82+   Jπ(level): From angular momentum transfer in 54Fe(t,p), or 54Fe(3He,n).
   7886.54(1,2+) 1.6 fs 3  E(level): From 56Fe(p,p’γ). Iγ unknown.
Jπ(level): From 55Mn(p,p’), (p,γ) E=res: IAR based on reasonable assumption of the multipolarity of observed γ-transitions and application of corresponding selection rules, or analyses of IAR state in 56Mn.
T1/2(level): Upper limit based upon the assumption that Γγ0/Γ=1.
   8050   E(level): From 54Fe(t,p).
   81100+   E(level): From 54Cr(3He,n).
Jπ(level): From angular momentum transfer in 54Fe(t,p), or 54Fe(3He,n).
   81202+   E(level): From 54Fe(t,p).
Jπ(level): From angular momentum transfer in 54Fe(t,p), or 54Fe(3He,n).
   81281 3.55 eV 74  E(level): From 56Fe(γ,γ’), (pol γ,γ’).
Jπ(level): Based on γ resonance ex. measurements in 56Fe(γ,γ’), (pol γ,γ’).
T1/2(level): From 56Fe(γ,γ’), (pol γ,γ’) assuming 100% transition to g.s.
   8219 1.8 fs 3  E(level): From 56Fe(γ,γ’), (pol γ,γ’). Iγ unknown.
T1/2(level): Upper limit based upon the assumption that Γγ0/Γ=1.
   8239.71 5.75 eV 92  Jπ(level): Based on γ resonance ex. measurements in 56Fe(γ,γ’), (pol γ,γ’).
T1/2(level): From 56Fe(γ,γ’), (pol γ,γ’) assuming 100% transition to g.s.
   8247.76(0 TO 3+)   E(level): From 56Fe(p,p’γ).
Jπ(level): From 55Mn(p,p’), (p,γ) E=res: IAR based on reasonable assumption of the multipolarity of observed γ-transitions and application of corresponding selection rules, or analyses of IAR state in 56Mn.
   8309.59(1,2+) 1.9 fs 6  E(level): From 56Fe(p,p’γ). Iγ unknown.
Jπ(level): From 55Mn(p,p’), (p,γ) E=res: IAR based on reasonable assumption of the multipolarity of observed γ-transitions and application of corresponding selection rules, or analyses of IAR state in 56Mn.
T1/2(level): Upper limit based upon the assumption that Γγ0/Γ=1.
   8414.8(10+)   E(level): From 56Fe(γ,γ’), (pol γ,γ’). From (HI,xnγ).
Jπ(level): From γγ-coin and γ(θ) in (HI,xnγ).
   8447.87(0 TO 3+)   E(level): From 56Fe(p,p’γ).
Jπ(level): From 55Mn(p,p’), (p,γ) E=res: IAR based on reasonable assumption of the multipolarity of observed γ-transitions and application of corresponding selection rules, or analyses of IAR state in 56Mn.
   8535.951 4.92 eV 95  Jπ(level): Based on γ resonance ex. measurements in 56Fe(γ,γ’), (pol γ,γ’).
T1/2(level): From 56Fe(γ,γ’), (pol γ,γ’) assuming 100% transition to g.s.
   8679.911(+)   E(level): From 56Fe(γ,γ’), (pol γ,γ’). From (HI,xnγ).
Jπ(level): From γγ-coin and γ(θ) in (HI,xnγ).
   8758.47(0 TO 3+)   E(level): From 56Fe(p,p’γ).
Jπ(level): From 55Mn(p,p’), (p,γ) E=res: IAR based on reasonable assumption of the multipolarity of observed γ-transitions and application of corresponding selection rules, or analyses of IAR state in 56Mn.
   8767 1.1 fs 2  XREF: J(8800).
E(level): From 56Fe(γ,γ’), (pol γ,γ’). Iγ unknown.
T1/2(level): Upper limit based upon the assumption that Γγ0/Γ=1.
   8879 1.5 fs 4  XREF: J(8800).
E(level): From 56Fe(γ,γ’), (pol γ,γ’). Iγ unknown.
T1/2(level): Upper limit based upon the assumption that Γγ0/Γ=1.
   8909.9(1,2+) 0.97 fs 21  E(level): From 56Fe(p,p’γ). Iγ unknown.
Jπ(level): From 55Mn(p,p’), (p,γ) E=res: IAR based on reasonable assumption of the multipolarity of observed γ-transitions and application of corresponding selection rules, or analyses of IAR state in 56Mn.
T1/2(level): Upper limit based upon the assumption that Γγ0/Γ=1.
   8962 1.2 fs 2  E(level): From 56Fe(γ,γ’), (pol γ,γ’). Iγ unknown.
T1/2(level): Upper limit based upon the assumption that Γγ0/Γ=1.
   8989 1.5 fs 3  E(level): From 56Fe(γ,γ’), (pol γ,γ’). Iγ unknown.
T1/2(level): Upper limit based upon the assumption that Γγ0/Γ=1.
   9107 0.53 fs 11  E(level): From 56Fe(γ,γ’), (pol γ,γ’). Iγ unknown.
T1/2(level): Upper limit based upon the assumption that Γγ0/Γ=1.
   9140.31- 1.28 eV 17  E(level): From 56Fe(γ,γ’), (pol γ,γ’).
Jπ(level): Based on γ resonance ex. measurements in 56Fe(γ,γ’), (pol γ,γ’).
T1/2(level): From 56Fe(γ,γ’), (pol γ,γ’) assuming 100% transition to g.s.
   9154 0.47 fs 15  E(level): From 56Fe(γ,γ’), (pol γ,γ’). Iγ unknown.
T1/2(level): Upper limit based upon the assumption that Γγ0/Γ=1.
   92000+   E(level): From 54Cr(3He,n).
Jπ(level): From angular momentum transfer in 54Fe(t,p), or 54Fe(3He,n).
   9287 0.61 fs 14  E(level): From 56Fe(γ,γ’), (pol γ,γ’). Iγ unknown.
T1/2(level): Upper limit based upon the assumption that Γγ0/Γ=1.
E(level)Jπ(level)T1/2(level)Comments
   9311 0.71 fs 14  E(level): From 56Fe(γ,γ’), (pol γ,γ’). Iγ unknown.
T1/2(level): Upper limit based upon the assumption that Γγ0/Γ=1.
   9322 0.70 fs 15  E(level): From 56Fe(γ,γ’), (pol γ,γ’). Iγ unknown.
T1/2(level): Upper limit based upon the assumption that Γγ0/Γ=1.
   9344.7(11+)   E(level): From 56Fe(γ,γ’), (pol γ,γ’). From (HI,xnγ).
Jπ(level): From γγ-coin and γ(θ) in (HI,xnγ).
   9378.2(11+)   E(level): From 56Fe(γ,γ’), (pol γ,γ’). From (HI,xnγ).
Jπ(level): From γγ-coin and γ(θ) in (HI,xnγ).
   9402 0.70 fs 16  E(level): From 56Fe(γ,γ’), (pol γ,γ’). Iγ unknown.
T1/2(level): Upper limit based upon the assumption that Γγ0/Γ=1.
   9557.62(1,2+) 1.2 fs 4  E(level): From 56Fe(p,p’γ). Iγ unknown.
Jπ(level): From 55Mn(p,p’), (p,γ) E=res: IAR based on reasonable assumption of the multipolarity of observed γ-transitions and application of corresponding selection rules, or analyses of IAR state in 56Mn.
T1/2(level): Upper limit based upon the assumption that Γγ0/Γ=1.
   9666   E(level): From 56Fe(γ,γ’), (pol γ,γ’).
   9737 0.48 fs 13  E(level): From 56Fe(γ,γ’), (pol γ,γ’). Iγ unknown.
T1/2(level): Upper limit based upon the assumption that Γγ0/Γ=1.
   9768 1.0 fs 3  XREF: J(9800).
E(level): From 56Fe(γ,γ’), (pol γ,γ’). Iγ unknown.
T1/2(level): Upper limit based upon the assumption that Γγ0/Γ=1.
   9895 1.1 fs 3  XREF: J(9800).
E(level): From 56Fe(γ,γ’), (pol γ,γ’). Iγ unknown.
T1/2(level): Upper limit based upon the assumption that Γγ0/Γ=1.
   9948 0.61 fs 14  E(level): From 56Fe(γ,γ’), (pol γ,γ’). Iγ unknown.
T1/2(level): Upper limit based upon the assumption that Γγ0/Γ=1.
   9969 1.5 fs 5  E(level): From 56Fe(γ,γ’), (pol γ,γ’). Iγ unknown.
T1/2(level): Upper limit based upon the assumption that Γγ0/Γ=1.
  10060 0.81 fs 23  XREF: J(10200).
E(level): From 56Fe(γ,γ’), (pol γ,γ’). Iγ unknown.
T1/2(level): Upper limit based upon the assumption that Γγ0/Γ=1.
  10094.4(12+)   E(level): From 56Fe(γ,γ’), (pol γ,γ’). From (HI,xnγ).
Jπ(level): From γγ-coin and γ(θ) in (HI,xnγ).
  104971 3.44 eV 64  XREF: J(10200).
E(level): From 56Fe(γ,γ’), (pol γ,γ’).
Jπ(level): Based on γ resonance ex. measurements in 56Fe(γ,γ’), (pol γ,γ’).
T1/2(level): From 56Fe(γ,γ’), (pol γ,γ’) assuming 100% transition to g.s.
  10563.1(12+)   E(level): From 56Fe(γ,γ’), (pol γ,γ’). From (HI,xnγ).
Jπ(level): From γγ-coin and γ(θ) in (HI,xnγ).
  10898.9(13+)   E(level): From 56Fe(γ,γ’), (pol γ,γ’). From (HI,xnγ).
Jπ(level): From γγ-coin and γ(θ) in (HI,xnγ).
  111331 2.08 eV 52  E(level): From 56Fe(γ,γ’), (pol γ,γ’).
Jπ(level): Based on γ resonance ex. measurements in 56Fe(γ,γ’), (pol γ,γ’).
T1/2(level): From 56Fe(γ,γ’), (pol γ,γ’) assuming 100% transition to g.s.
  11598.651+   IAR of 1+ 110 in 56Mn.
E(level): IAR of 1+ 110 in 56Mn.
  11603.641+   IAR of 1+ 110 in 56Mn.
E(level): IAR of 1+ 110 in 56Mn.
  11612.931+   IAR of 1+ 110 in 56Mn.
E(level): IAR of 1+ 110 in 56Mn.
  11638.03(-)   E(level): From 56Fe(p,p’γ).
Jπ(level): From 55Mn(p,p’), (p,γ) E=res: IAR based on reasonable assumption of the multipolarity of observed γ-transitions and application of corresponding selection rules, or analyses of IAR state in 56Mn.
  11640.73(-)   E(level): From 56Fe(p,p’γ).
Jπ(level): From 55Mn(p,p’), (p,γ) E=res: IAR based on reasonable assumption of the multipolarity of observed γ-transitions and application of corresponding selection rules, or analyses of IAR state in 56Mn.
  11644.03(-)   E(level): From 56Fe(p,p’γ).
Jπ(level): From 55Mn(p,p’), (p,γ) E=res: IAR based on reasonable assumption of the multipolarity of observed γ-transitions and application of corresponding selection rules, or analyses of IAR state in 56Mn.
  11664.03(-)   E(level): From 56Fe(p,p’γ).
Jπ(level): From 55Mn(p,p’), (p,γ) E=res: IAR based on reasonable assumption of the multipolarity of observed γ-transitions and application of corresponding selection rules, or analyses of IAR state in 56Mn.
E(level)Jπ(level)T1/2(level)Comments
  11678.04+   E(level): From 56Fe(p,p’γ).
Jπ(level): From 55Mn(p,p’), (p,γ) E=res: IAR based on reasonable assumption of the multipolarity of observed γ-transitions and application of corresponding selection rules, or analyses of IAR state in 56Mn.
  11680.64+   E(level): From 56Fe(p,p’γ).
Jπ(level): From 55Mn(p,p’), (p,γ) E=res: IAR based on reasonable assumption of the multipolarity of observed γ-transitions and application of corresponding selection rules, or analyses of IAR state in 56Mn.
  11688.24+   E(level): From 56Fe(p,p’γ).
Jπ(level): From 55Mn(p,p’), (p,γ) E=res: IAR based on reasonable assumption of the multipolarity of observed γ-transitions and application of corresponding selection rules, or analyses of IAR state in 56Mn.
  11692.12+ ≈ 9 keV Γp=2.0 2
E(level): From 56Fe(p,p’γ).
Jπ(level): From 55Mn(p,p’), (p,γ) E=res: IAR based on reasonable assumption of the multipolarity of observed γ-transitions and application of corresponding selection rules, or analyses of IAR state in 56Mn.
T1/2(level): From 55Mn(p,p), (p,γ) E=res: IAR.
  11832.83+ ≈ 17 keV Γp=1.0 2
E(level): From 56Fe(p,p’γ).
Jπ(level): From 55Mn(p,p’), (p,γ) E=res: IAR based on reasonable assumption of the multipolarity of observed γ-transitions and application of corresponding selection rules, or analyses of IAR state in 56Mn.
T1/2(level): From 55Mn(p,p), (p,γ) E=res: IAR.
  11840.83+   E(level): From 56Fe(p,p’γ).
Jπ(level): From 55Mn(p,p’), (p,γ) E=res: IAR based on reasonable assumption of the multipolarity of observed γ-transitions and application of corresponding selection rules, or analyses of IAR state in 56Mn.
  11850.03+   E(level): From 56Fe(p,p’γ).
Jπ(level): From 55Mn(p,p’), (p,γ) E=res: IAR based on reasonable assumption of the multipolarity of observed γ-transitions and application of corresponding selection rules, or analyses of IAR state in 56Mn.
  11879.6(5+)   E(level): From 56Fe(p,p’γ).
Jπ(level): From 55Mn(p,p’), (p,γ) E=res: IAR based on reasonable assumption of the multipolarity of observed γ-transitions and application of corresponding selection rules, or analyses of IAR state in 56Mn.
  11886.8(5+)   E(level): From 56Fe(p,p’γ).
Jπ(level): From 55Mn(p,p’), (p,γ) E=res: IAR based on reasonable assumption of the multipolarity of observed γ-transitions and application of corresponding selection rules, or analyses of IAR state in 56Mn.
  11913.3(4+)   E(level): From 56Fe(p,p’γ).
Jπ(level): From 55Mn(p,p’), (p,γ) E=res: IAR based on reasonable assumption of the multipolarity of observed γ-transitions and application of corresponding selection rules, or analyses of IAR state in 56Mn.
  11925.23+ ≈ 11 keV Γp=1.0 1
E(level): From 56Fe(p,p’γ).
Jπ(level): From 55Mn(p,p’), (p,γ) E=res: IAR based on reasonable assumption of the multipolarity of observed γ-transitions and application of corresponding selection rules, or analyses of IAR state in 56Mn.
T1/2(level): From 55Mn(p,p), (p,γ) E=res: IAR.
  11947.7(4-)   E(level): From 56Fe(p,p’γ).
Jπ(level): From 55Mn(p,p’), (p,γ) E=res: IAR based on reasonable assumption of the multipolarity of observed γ-transitions and application of corresponding selection rules, or analyses of IAR state in 56Mn.
  11952.64+   E(level): From 56Fe(p,p’γ).
Jπ(level): From 55Mn(p,p’), (p,γ) E=res: IAR based on reasonable assumption of the multipolarity of observed γ-transitions and application of corresponding selection rules, or analyses of IAR state in 56Mn.
  11958.13+ ≈ 11 keV Γp=1.0 1
E(level): From 56Fe(p,p’γ).
Jπ(level): From 55Mn(p,p’), (p,γ) E=res: IAR based on reasonable assumption of the multipolarity of observed γ-transitions and application of corresponding selection rules, or analyses of IAR state in 56Mn.
T1/2(level): From 55Mn(p,p), (p,γ) E=res: IAR.
  11964(13+)   E(level): From 56Fe(γ,γ’), (pol γ,γ’). From (HI,xnγ).
Jπ(level): From γγ-coin and γ(θ) in (HI,xnγ).
  12440   E(level): From 56Fe(n,n’).
  12520   E(level): From 56Fe(n,n’).

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Additional Gamma Comments:

E(level)E(gamma)Comments
    846.7778    846.7638E(γ): From 56Mn β- decay.. From 56Fe(n,n’).. From 56Fe(γ,γ’), (pol γ,γ’).
I(γ): From 56Mn β- decay.
M(γ): From 56Co ε decay.
   2085.1045   1238.2736E(γ): From 56Mn β- decay.. From 56Fe(n,n’).. From 56Fe(γ,γ’), (pol γ,γ’).
I(γ): From 56Mn β- decay.
M(γ): From 56Co ε decay.
   2657.5894   1810.757E(γ): From 56Co ε decay.. From 56Fe(n,n’).
I(γ): From 56Mn β- decay.
   2657.527E(γ): From 56Co ε decay.. From 56Fe(n,n’).
I(γ): %Branching=5.4 21 from B(E2)=0.0037 10 (e,e’) and adopted T1/2; %Branching=5 3 in 56Fe(p,p’γ).. From 56Mn β- decay.
   2941.50   2941E(γ): 2939 reported in (p,p’γ).
   2959.972   2113.135E(γ): From 56Co ε decay.. From 56Fe(n,n’).
I(γ): From 56Mn β- decay.
   2959.92E(γ): From 56Mn β- decay.. From 56Fe(n,n’).
I(γ): From 56Mn β- decay.
   3076.2    991.51E(γ): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
I(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   2229E(γ): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
I(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   3120.11    462E(γ): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
I(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   2273.2E(γ): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
I(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   3120E(γ): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
I(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   3122.970   1037.8333E(γ): From 56Mn β- decay.. From 54Fe(t,p).. From 56Fe(γ,γ’), (pol γ,γ’).. From 56Fe(n,n’γ).
I(γ): From 56Co ε decay.
M(γ): From 56Co ε decay.
   2276.131E(γ): From 56Co ε decay.. From 56Fe(γ,γ’), (pol γ,γ’).. From 54Fe(t,p).
I(γ): From 56Co ε decay.
M(γ): From 56Co ε decay.
   3369.95   2523.06E(γ): From 56Mn β- decay.. From 56Fe(n,n’).
I(γ): From 56Mn β- decay.
   3369.84E(γ): From 56Mn β- decay.. From 56Fe(n,n’).
I(γ): From 56Mn β- decay.
   3388.55    265.5E(γ): From 54Fe(α,2pγ).. From 56Co ε decay.
I(γ): From 54Fe(α,2pγ).
   1303.4E(γ): From 54Fe(α,2pγ).. From 56Co ε decay.
I(γ): From 54Fe(α,2pγ).
M(γ): From 54Fe(α,2pγ).
   3445.348    787.743E(γ): From 56Co ε decay.. From 54Fe(t,p).. From 56Fe(γ,γ’), (pol γ,γ’).. From 56Fe(n,n’γ).
I(γ): From 56Co ε decay.
M(γ): From 56Co ε decay.
   1360.212E(γ): From 56Co ε decay.. From 54Fe(t,p).. From 56Fe(γ,γ’), (pol γ,γ’).. From 56Fe(n,n’γ).
I(γ): From 56Co ε decay.
M(γ): From 56Co ε decay.
   2598.500E(γ): From 56Co ε decay.. From 54Fe(t,p).. From 56Fe(γ,γ’), (pol γ,γ’).. From 56Fe(n,n’γ).
I(γ): From 56Co ε decay.
M(γ): From 56Co ε decay.
   3448.41    790E(γ): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
I(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   2601E(γ): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
I(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   3448E(γ): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
I(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   3600.21    942E(γ): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
I(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   1515E(γ): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
I(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   2753E(γ): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
I(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   3600E(γ): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
I(γ): From 55Mn(p,p), (p,γ) E=res: IAR
E(level)E(gamma)Comments
   3605.69    948E(γ): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
I(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   1521E(γ): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
I(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   2759E(γ): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
I(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   3606E(γ): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
I(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   3610.21    952E(γ): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
I(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   1525E(γ): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
I(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   2763E(γ): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
I(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   3610E(γ): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
I(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   3744.13   2897E(γ): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
I(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   3755.57    367.0E(γ): From 54Fe(α,2pγ).. From 56Co ε decay.
I(γ): From 54Fe(α,2pγ).
M(γ): From 54Fe(α,2pγ).
    632.6E(γ): From 54Fe(α,2pγ).. From 56Co ε decay.
I(γ): From 54Fe(α,2pγ).
   1670.8E(γ): From 54Fe(α,2pγ).. From 56Co ε decay.
I(γ): From 54Fe(α,2pγ).
   3829.77   1172E(γ): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
I(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   2983E(γ): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
I(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   3830E(γ): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
I(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   3856.495    411.145E(γ): From 56Co ε decay.. From 54Fe(t,p).
I(γ): From 56Co ε decay.
    486.55E(γ): From 56Co ε decay.. From 54Fe(t,p).
I(γ): From 56Co ε decay.
    733.514E(γ): From 56Co ε decay.. From 54Fe(t,p).. From 56Fe(γ,γ’), (pol γ,γ’).
I(γ): From 56Co ε decay.
M(γ): From 56Co ε decay.
    896.510E(γ): From 56Co ε decay.. From 54Fe(t,p).
I(γ): From 56Co ε decay.
   1198.888E(γ): From 56Co ε decay.. From 54Fe(t,p).
I(γ): From 56Co ε decay.
   1771.357E(γ): From 56Co ε decay.. From 54Fe(t,p).. From 56Fe(γ,γ’), (pol γ,γ’).. From 56Fe(n,n’γ).
I(γ): From 56Co ε decay.
M(γ): From 56Co ε decay.
   3009.645E(γ): From 56Co ε decay.. From 54Fe(t,p).. From 56Fe(γ,γ’), (pol γ,γ’).. From 56Fe(n,n’γ).
I(γ): From 56Co ε decay.
M(γ): From 56Co ε decay.
   4048.888   1088.894E(γ): From 56Co ε decay.. From 54Fe(t,p).. From 56Fe(γ,γ’), (pol γ,γ’).. From 56Fe(n,n’γ).
I(γ): From 56Co ε decay.
M(γ): From 56Co ε decay.
   1963.741E(γ): From 56Co ε decay.. From 54Fe(t,p).. From 56Fe(γ,γ’), (pol γ,γ’).. From 56Fe(n,n’γ).
I(γ): From 56Co ε decay.
M(γ): From 56Co ε decay.
   3202.029E(γ): From 56Co ε decay.. From 54Fe(t,p).. From 56Fe(γ,γ’), (pol γ,γ’).. From 56Fe(n,n’γ).
I(γ): From 56Co ε decay.
M(γ): From 56Co ε decay.
E(level)E(gamma)Comments
   4085.93   3239E(γ): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
I(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   4086E(γ): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
I(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   4100.363    655.003E(γ): From 56Co ε decay.. From 54Fe(t,p).
I(γ): From 56Co ε decay.
    977.372E(γ): From 56Co ε decay.. From 54Fe(t,p).. From 56Fe(γ,γ’), (pol γ,γ’).. From 56Fe(n,n’γ).
I(γ): From 56Co ε decay.
M(γ): From 56Co ε decay.
   1140.368E(γ): From 56Co ε decay.. From 54Fe(t,p).
I(γ): From 56Co ε decay.
   1442.746E(γ): From 56Co ε decay.. From 54Fe(t,p).
I(γ): From 56Co ε decay.
   2015.215E(γ): From 56Co ε decay.. From 54Fe(t,p).. From 56Fe(γ,γ’), (pol γ,γ’).. From 56Fe(n,n’γ).
I(γ): From 56Co ε decay.
M(γ): From 56Co ε decay.
   3253.503E(γ): From 56Co ε decay.. From 54Fe(t,p).. From 56Fe(γ,γ’), (pol γ,γ’).
I(γ): From 56Co ε decay.
M(γ): From 56Co ε decay.
   4119.936    263.434E(γ): From 56Co ε decay.. From 54Fe(t,p).
I(γ): From 56Co ε decay.
    674.579E(γ): From 56Co ε decay.. From 54Fe(t,p).
I(γ): From 56Co ε decay.
    996.948E(γ): From 56Co ε decay.. From 54Fe(t,p).. From 56Fe(γ,γ’), (pol γ,γ’).
I(γ): From 56Co ε decay.
M(γ): From 56Co ε decay.
   1159.944E(γ): From 56Co ε decay.. From 54Fe(t,p).. From 56Fe(γ,γ’), (pol γ,γ’).. From 56Fe(n,n’γ).
I(γ): From 56Co ε decay.
M(γ): From 56Co ε decay.
   1462.322E(γ): From 56Co ε decay.. From 54Fe(t,p).
I(γ): From 56Co ε decay.
   2034.791E(γ): From 56Co ε decay.. From 54Fe(t,p).. From 56Fe(γ,γ’), (pol γ,γ’).. From 56Fe(n,n’γ).
I(γ): From 56Co ε decay.
M(γ): From 56Co ε decay.
   3273.079E(γ): From 56Co ε decay.. From 54Fe(t,p).. From 56Fe(γ,γ’), (pol γ,γ’).. From 56Fe(n,n’γ).
I(γ): From 56Co ε decay.
M(γ): From 56Co ε decay.
   4298.096    852.732E(γ): From 56Co ε decay.. From 54Fe(t,p).
I(γ): From 56Co ε decay.
   1175.101E(γ): From 56Co ε decay.. From 54Fe(t,p).. From 56Fe(γ,γ’), (pol γ,γ’).. From 56Fe(n,n’γ).
I(γ): From 56Co ε decay.
M(γ): From 56Co ε decay.
   1640.475E(γ): From 56Co ε decay.. From 54Fe(t,p).
I(γ): From 56Co ε decay.
   2212.948E(γ): From 56Co ε decay.. From 54Fe(t,p).. From 56Fe(γ,γ’), (pol γ,γ’).. From 56Fe(n,n’γ).
I(γ): From 56Co ε decay.
M(γ): From 56Co ε decay.
   3451.232E(γ): From 56Co ε decay.. From 54Fe(t,p).. From 56Fe(γ,γ’), (pol γ,γ’).
I(γ): From 56Co ε decay.
M(γ): From 56Co ε decay.
   4394.93   1271.92E(γ): From 56Co ε decay.. From 54Fe(t,p).
I(γ): From 56Co ε decay.
   3548.05E(γ): From 56Co ε decay.. From 54Fe(t,p).. From 56Fe(γ,γ’), (pol γ,γ’).. From 56Fe(n,n’γ).
I(γ): From 56Co ε decay.
M(γ): From 56Co ε decay.
   4401.27    955.8I(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   1031E(γ): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
I(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   1441E(γ): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
I(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   2316E(γ): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
I(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   3554.2I(γ): From 55Mn(p,p), (p,γ) E=res: IAR
E(level)E(gamma)Comments
   4447.7   3600.8E(γ): From 56Co ε decay.. From 54Fe(t,p).
I(γ): From 56Co ε decay.
   4458.532   1335.40E(γ): From 56Co ε decay.. From 54Fe(t,p).
I(γ): From 56Co ε decay.
   2373.24E(γ): From 56Co ε decay.. From 54Fe(t,p).
I(γ): From 56Co ε decay.
   3611.53E(γ): From 56Co ε decay.. From 54Fe(t,p).
I(γ): From 56Co ε decay.
   4509.56    754.35E(γ): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
I(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   1139.66E(γ): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
I(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   1386.3E(γ): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
I(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   1852.09E(γ): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
I(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   2424.93E(γ): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
I(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   3662.67E(γ): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
I(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   4554.77    799.02E(γ): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
I(γ): From 55Mn(p,p), (p,γ) E=res: IAR
    810.60E(γ): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
I(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   1165.74E(γ): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
I(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   1431.58E(γ): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
I(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   1897.8E(γ): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
I(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   2469.71E(γ): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
I(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   3708.6E(γ): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
I(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   4608.56   1485.60E(γ): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
I(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   1667.07E(γ): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
I(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   1949.9E(γ): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
I(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   2523.09E(γ): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
I(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   3761.5E(γ): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
I(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   4610.82    756.2E(γ): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
I(γ): From 55Mn(p,p), (p,γ) E=res: IAR
    781.20E(γ): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
I(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   1651.0E(γ): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
I(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   1954.11E(γ): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
I(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   2525.75E(γ): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
I(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   3763.4E(γ): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
I(γ): From 55Mn(p,p), (p,γ) E=res: IAR
E(level)E(gamma)Comments
   4658.26   1213E(γ): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
I(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   1288E(γ): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
I(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   1698E(γ): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
I(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   2000E(γ): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
I(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   2573E(γ): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
I(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   3811E(γ): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
I(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   4658E(γ): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
I(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   4683.04   1312.58E(γ): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
I(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   1559.53E(γ): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
I(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   2525.75E(γ): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
I(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   3836.21E(γ): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
I(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   4692.32    936.58E(γ): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
I(γ): From 55Mn(p,p), (p,γ) E=res: IAR
    948.6E(γ): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
I(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   1569.42E(γ): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
I(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   2034.76E(γ): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
I(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   2607.22E(γ): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
I(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   3844.0E(γ): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
I(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   4700.63    944.7E(γ): From 56Fe(p,p’γ).
I(γ): From 56Fe(p,p’γ).
   1312.2E(γ): From 56Fe(p,p’γ).
I(γ): From 56Fe(p,p’γ).
M(γ): From (HI,xnγ).
   4728.14   3881E(γ): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
I(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   4728E(γ): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
I(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   4737.33    617.36E(γ): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
I(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   2079.80E(γ): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
I(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   3889.6E(γ): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
I(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   4736.3E(γ): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
I(γ): From 55Mn(p,p), (p,γ) E=res: IAR
E(level)E(gamma)Comments
   4784.12   1664E(γ): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
I(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   3937E(γ): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
I(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   4784E(γ): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
I(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   4812.68    692.65E(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   1057.8E(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   1368.3E(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   4847.9   2190.0E(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   2763.24E(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   4847E(γ): From 56Fe(γ,γ’), (pol γ,γ’).. From (HI,xnγ).
   4866.52   1267E(γ): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
I(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   1419E(γ): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
I(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   1422E(γ): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
I(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   1497E(γ): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
I(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   1747E(γ): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
I(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   1907E(γ): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
I(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   2209E(γ): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
I(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   2782E(γ): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
I(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   4020E(γ): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
I(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   4867E(γ): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
I(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   4878.0   2793E(γ): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
I(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   4031E(γ): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
I(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   4878E(γ): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
I(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   5023.49    903E(γ): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
I(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   1575E(γ): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
I(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   1653E(γ): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
I(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   1903E(γ): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
I(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   2063E(γ): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
I(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   2365E(γ): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
I(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   4176E(γ): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
I(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   5023E(γ): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
I(γ): From 55Mn(p,p), (p,γ) E=res: IAR
E(level)E(gamma)Comments
   5033.02   1277.00E(γ): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
I(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   1643.9E(γ): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
I(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   2947.86E(γ): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
I(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   4188.2E(γ): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
I(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   5038.49   1915.10E(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   5055.87    757.75E(γ): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
I(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   2971.04E(γ): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
I(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   5131.66    673.02E(γ): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
I(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   1082.83E(γ): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
I(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   1686.41E(γ): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
I(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   2008.80E(γ): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
I(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   4284.6E(γ): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
I(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   5149.54   2026.6E(γ): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
I(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   3064.04E(γ): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
I(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   5184.3   1427.8E(γ): From (HI,xnγ).
I(γ): From (HI,xnγ).
   5186.82   3101.2E(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   5194.80   1585E(γ): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
I(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   2075E(γ): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
I(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   2253E(γ): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
I(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   2537E(γ): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
I(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   4348E(γ): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
I(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   5227.3   5227E(γ): From 56Fe(γ,γ’), (pol γ,γ’).. From (HI,xnγ).
   5232.57   1132.13E(γ): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
I(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   1183.39E(γ): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
I(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   1783.4E(γ): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
I(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   1787.18E(γ): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
I(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   3147.7E(γ): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
I(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   4385.87E(γ): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
I(γ): From 55Mn(p,p), (p,γ) E=res: IAR
E(level)E(gamma)Comments
   5235.89    543.39E(γ): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
I(γ): From 55Mn(p,p), (p,γ) E=res: IAR
    777.14E(γ): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
I(γ): From 55Mn(p,p), (p,γ) E=res: IAR
    936.58E(γ): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
I(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   1135.68E(γ): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
I(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   1186.29E(γ): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
I(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   1480.4E(γ): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
I(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   1790.44E(γ): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
I(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   1847.49E(γ): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
I(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   2276.3E(γ): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
I(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   2578.56E(γ): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
I(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   3150.70E(γ): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
I(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   5255.7   1499.5E(γ): From (HI,xnγ).
I(γ): From (HI,xnγ).
M(γ): From (HI,xnγ).
   1866.8E(γ): From (HI,xnγ).
I(γ): From (HI,xnγ).
M(γ): From (HI,xnγ).
   5256.9   4410E(γ): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
I(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   5257E(γ): From 56Fe(γ,γ’), (pol γ,γ’).. From (HI,xnγ).
I(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   5302.94    757.75E(γ): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
I(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   1005.1E(γ): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
I(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   1915.10E(γ): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
I(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   2180.12E(γ): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
I(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   3217.61E(γ): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
I(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   4456.9E(γ): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
I(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   5307.81   1919.69E(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   5402.3   5404E(γ): Multiply placed with undivided intensity. From 56Fe(γ,γ’), (pol γ,γ’).. From (HI,xnγ).
I(γ): Multiply placed with undivided intensity
   5451.60   1151.84E(γ): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
I(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   1153.78E(γ): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
I(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   1402.79E(γ): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
I(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   1696.17E(γ): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
I(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   2063.25E(γ): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
I(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   4604.9E(γ): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
I(γ): From 55Mn(p,p), (p,γ) E=res: IAR
E(level)E(gamma)Comments
   5479.15   3394.10E(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   5488.24   1120.27E(γ): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
I(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   1368.41E(γ): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
I(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   2042.65E(γ): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
I(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   3401.2E(γ): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
I(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   5502.94   1101.80E(γ): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
I(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   1402.79E(γ): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
I(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   2058.2E(γ): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
I(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   2133.13E(γ): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
I(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   2845.96E(γ): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
I(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   3418.69E(γ): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
I(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   5538.07   2168E(γ): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
I(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   2880E(γ): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
I(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   4691E(γ): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
I(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   5538E(γ): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
I(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   5590.06   2142E(γ): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
I(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   2145E(γ): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
I(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   2220E(γ): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
I(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   2932E(γ): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
I(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   4743E(γ): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
I(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   5618.36   1223.46E(γ): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
I(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   2173.89E(γ): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
I(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   2230.0E(γ): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
I(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   2658.19E(γ): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
I(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   3535.0E(γ): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
I(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   4772.5E(γ): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
I(γ): From 55Mn(p,p), (p,γ) E=res: IAR
E(level)E(gamma)Comments
   5623.86   1523.26E(γ): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
I(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   1575.21E(γ): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
I(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   1867.89E(γ): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
I(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   2500.52E(γ): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
I(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   3539.14E(γ): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
I(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   5626.84    926.2E(γ): From 54Fe(α,2pγ).. From 56Co ε decay.
I(γ): From 54Fe(α,2pγ).
M(γ): From 54Fe(α,2pγ).
   1871.3E(γ): From 54Fe(α,2pγ).. From 56Co ε decay.
I(γ): From 54Fe(α,2pγ).
M(γ): From 54Fe(α,2pγ).
   2238E(γ): From 54Fe(α,2pγ).. From 56Co ε decay.
I(γ): From 54Fe(α,2pγ).
M(γ): From 54Fe(α,2pγ).
   5661.18   5661.2E(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   5670.33   2711.0E(γ): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
I(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   3585.25E(γ): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
I(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   4822.9E(γ): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
I(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   5697.98   1293.73E(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   5705.43    977.29E(γ): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
I(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   2259.92E(γ): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
I(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   2584.73E(γ): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
I(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   2744.88E(γ): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
I(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   3619.6E(γ): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
I(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   4857.4E(γ): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
I(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   5774.00   1326.2E(γ): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
I(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   3116.2E(γ): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
I(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   5801.34   1972.8E(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   2859.4E(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   5806.3   4958.2E(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   5817.22   2447.5E(γ): From 55Mn(p,p), (p,γ) E=res: IAR
E(level)E(gamma)Comments
   5853   5853E(γ): From 56Fe(γ,γ’), (pol γ,γ’).. From (HI,xnγ).
   5861.5   2902.6E(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   5871.26   1551.2E(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   2127.34E(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   3786.4E(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   5914.53   1222.38E(γ): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
I(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   1312.42E(γ): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
I(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   1455.5E(γ): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
I(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   1519.6E(γ): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
I(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   1615.91E(γ): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
I(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   2058.2E(γ): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
I(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   2792.65E(γ): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
I(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   2794.13E(γ): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
I(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   3829.64E(γ): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
I(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   5068.0E(γ): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
I(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   5936.17   2080E(γ): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
I(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   5089E(γ): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
I(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   5986.86   1447E(γ): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
I(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   2542E(γ): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
I(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   5140E(γ): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
I(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   6021.11   5174.6E(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   6047.53   1508.31E(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   5200.8E(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   6061.79   1612.96E(γ): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
I(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   1667.07E(γ): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
I(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   1842.53E(γ): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
I(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   2305.6E(γ): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
I(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   2460.2E(γ): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
I(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   3101.22E(γ): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
I(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   3975.4E(γ): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
I(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   5214.6E(γ): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
I(γ): From 55Mn(p,p), (p,γ) E=res: IAR
E(level)E(gamma)Comments
   6078   6078E(γ): From 56Fe(γ,γ’), (pol γ,γ’).. From (HI,xnγ).
   6102.21   2496E(γ): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
I(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   2654E(γ): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
I(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   5255E(γ): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
I(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   6110.6   4026.3E(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   6131.24   2010.77E(γ): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
I(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   3171.0E(γ): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
I(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   5284.61E(γ): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
I(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   6219   6219E(γ): From 56Fe(γ,γ’), (pol γ,γ’).. From (HI,xnγ).
   6250.78   5404E(γ): From 56Fe(γ,γ’), (pol γ,γ’).. From (HI,xnγ).
I(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   6251E(γ): From 56Fe(γ,γ’), (pol γ,γ’).. From (HI,xnγ).
I(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   6312.75   1863.83E(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   6386.99   2286.5E(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   6446.92   2618E(γ): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
I(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   2842E(γ): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
I(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   2848E(γ): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
I(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   3328E(γ): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
I(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   6454.4   5607.8E(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   6472.5   2352.2E(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   6625.10   3025E(γ): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
I(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   3180E(γ): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
I(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   3665E(γ): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
I(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   6698   5853E(γ): From 56Fe(γ,γ’), (pol γ,γ’).. From (HI,xnγ).
   6698E(γ): From 56Fe(γ,γ’), (pol γ,γ’).. From (HI,xnγ).
   6850.9   1221.7E(γ): From (HI,xnγ).
I(γ): From (HI,xnγ).
E(level)E(gamma)Comments
   6854.67   1798.62E(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   6889.98   3949.0E(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   6926   6926E(γ): From 56Fe(γ,γ’), (pol γ,γ’).. From (HI,xnγ).
   6981.68   4324E(γ): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
I(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   6135E(γ): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
I(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   7008.00   4923.8E(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   7010.8   3935.3E(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   7084.6    968.9E(γ): From (HI,xnγ).
I(γ): From (HI,xnγ).
   7135   7135E(γ): From 56Fe(γ,γ’), (pol γ,γ’).. From (HI,xnγ).
   7167.27   6320E(γ): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
I(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   7167E(γ): From 56Fe(γ,γ’), (pol γ,γ’).. From (HI,xnγ).
I(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   7177.2   1920.9E(γ): From (HI,xnγ).
I(γ): From (HI,xnγ).
   7211.5   6364E(γ): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
I(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   7211E(γ): Iγ unknown.
   7220   3619E(γ): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
I(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   6372E(γ): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
I(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   7248   7248E(γ): From 56Fe(γ,γ’), (pol γ,γ’).. From (HI,xnγ).
   7254.19   3643.8E(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   7422.67   6576E(γ): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
I(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   7423E(γ): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
I(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   7446.5   7446E(γ): From 56Fe(γ,γ’), (pol γ,γ’).. From (HI,xnγ).
   7468.5   7468E(γ): From 56Fe(γ,γ’), (pol γ,γ’).. From (HI,xnγ).
   7503.6   2247.1E(γ): From (HI,xnγ).
I(γ): From (HI,xnγ).
   2319.3E(γ): From (HI,xnγ).
I(γ): From (HI,xnγ).
   7820.6    969.6E(γ): From (HI,xnγ).
I(γ): From (HI,xnγ).
   2564.4E(γ): From (HI,xnγ).
I(γ): From (HI,xnγ).
E(level)E(gamma)Comments
   7886.54   1951E(γ): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
I(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   7887E(γ): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
I(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   8128   8128E(γ): From 56Fe(γ,γ’), (pol γ,γ’).. From (HI,xnγ).
   8219   8219E(γ): From 56Fe(γ,γ’), (pol γ,γ’).. From (HI,xnγ).
   8239.7   8239E(γ): From 56Fe(γ,γ’), (pol γ,γ’).. From (HI,xnγ).
   8247.76   7401E(γ): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
I(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   8309.59   7463E(γ): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
I(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   8310E(γ): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
I(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   8414.8   2785.7E(γ): From (HI,xnγ).
I(γ): From (HI,xnγ).
   3158.2E(γ): From (HI,xnγ).
I(γ): From (HI,xnγ).
   8447.87   7601E(γ): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
I(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   8679.9    265.1E(γ): From (HI,xnγ).
I(γ): From (HI,xnγ).
    859.2E(γ): From (HI,xnγ).
I(γ): From (HI,xnγ).
   8758.47   3974E(γ): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
I(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   5158E(γ): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
I(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   5388E(γ): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
I(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   8767   8767E(γ): From 56Fe(γ,γ’), (pol γ,γ’).. From (HI,xnγ).
   8879   8879E(γ): From 56Fe(γ,γ’), (pol γ,γ’).. From (HI,xnγ).
   8909.9   8910E(γ): From 55Mn(p,p), (p,γ) E=res: IAR. From 56Fe(p,p’), (pol p,p’).
I(γ): From 55Mn(p,p), (p,γ) E=res: IAR
   8962   8962E(γ): From 56Fe(γ,γ’), (pol γ,γ’).. From (HI,xnγ).
   8989   8989E(γ): From 56Fe(γ,γ’), (pol γ,γ’).. From (HI,xnγ).
   9107   9107E(γ): From 56Fe(γ,γ’), (pol γ,γ’).. From (HI,xnγ).
   9140.3   9139.5E(γ): From 56Fe(γ,γ’), (pol γ,γ’).. From (HI,xnγ).. From 54Cr(3He,n).
M(γ): From 56Fe(γ,γ’), (pol γ,γ’).
   9154   8307E(γ): From 56Fe(γ,γ’), (pol γ,γ’).. From (HI,xnγ).
   9154E(γ): From 56Fe(γ,γ’), (pol γ,γ’).. From (HI,xnγ).
E(level)E(gamma)Comments
   9287   9287E(γ): From 56Fe(γ,γ’), (pol γ,γ’).. From (HI,xnγ).
   9311   9311E(γ): From 56Fe(γ,γ’), (pol γ,γ’).. From (HI,xnγ).
   9322   9322E(γ): From 56Fe(γ,γ’), (pol γ,γ’).. From (HI,xnγ).
   9378.2    963.4E(γ): From (HI,xnγ).
I(γ): From (HI,xnγ).
   9402   9402E(γ): From 56Fe(γ,γ’), (pol γ,γ’).. From (HI,xnγ).
   9557.62   9558E(γ): From 56Fe(γ,γ’), (pol γ,γ’).. From (HI,xnγ).
   9666   9666E(γ): From 56Fe(γ,γ’), (pol γ,γ’).. From (HI,xnγ).
   9737   9737E(γ): From 56Fe(γ,γ’), (pol γ,γ’).. From (HI,xnγ).
   9768   9768E(γ): From 56Fe(γ,γ’), (pol γ,γ’).. From (HI,xnγ).
   9895   9895E(γ): From 56Fe(γ,γ’), (pol γ,γ’).. From (HI,xnγ).
   9948   9948E(γ): From 56Fe(γ,γ’), (pol γ,γ’).. From (HI,xnγ).
   9969   9969E(γ): From 56Fe(γ,γ’), (pol γ,γ’).. From (HI,xnγ).
  10060  10060E(γ): From 56Fe(γ,γ’), (pol γ,γ’).. From (HI,xnγ).
  10094.4   1414.5E(γ): From (HI,xnγ).
I(γ): From (HI,xnγ).
  10497  10497E(γ): From 56Fe(γ,γ’), (pol γ,γ’).. From (HI,xnγ).
  10563.1   1184.9E(γ): From (HI,xnγ).
I(γ): From (HI,xnγ).
  10898.9   1554.2E(γ): From (HI,xnγ).
I(γ): From (HI,xnγ).
  11133  11133E(γ): From 56Fe(γ,γ’), (pol γ,γ’).. From (HI,xnγ).
  11964   1401E(γ): From (HI,xnγ).
I(γ): From (HI,xnγ).

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