ADOPTED LEVELS, GAMMAS for 92Nb
Author: Coral M. Baglin | Citation: Nucl. Data Sheets 113, 2187 (2012) | Cutoff date: 15-Sep-2012
Full ENSDF file | Adopted Levels (PDF version)
| Q(β-)=354.1 keV 25 | S(n)= 7886 keV 4 | S(p)= 5846.6 keV 18 | Q(α)= -4580 keV 3 | ||
| Reference: 2012WA38 | 
| References: | |||
| A | 88Sr(7Li,3nγ) | B | 90Zr(α,d) | 
| C | 91Zr(p,n) IAR | D | 91Zr(3He,d) | 
| E | 91Zr(α,t) | F | 92Zr(p,n) | 
| G | 92Zr(p,nγ), Y(α,xnγ) | H | 92Zr(3He,p2nγ) | 
| I | 92Zr(3He,t) | J | 93Nb(p,d) | 
| K | 93Nb(d,t), (d,tγ) | L | 93Nb(3He,α) | 
| M | 94Mo(d,α) | N | 91Zr(16O,15N) | 
| O | 93Nb(γ,n) | P | 93Nb(p,PN) | 
| E(level) (keV)  | XREF | Jπ(level) | T1/2(level) | E(γ) (keV)  | I(γ) | M(γ) | Final Levels | |
| 0.0 | AB DEFGHIJKLM P | 7+ |  3.47×10+7 y 24   % ε = 100  | |||||
| 135.5 4 | AB DEFGHIJKLM O | (2)+ |  10.15 d 2   % ε = 100  | |||||
| 225.8 4 | AB DEFGHI M O | (2)- | 5.9 µs 2 |     90.37 9  |    100 | E1 |    135.5 | (2)+ | 
| 285.7 4 | AB DEFGHIJKLM | (3)+ | 1.1 ns +6-3 |    150.13 16  |    100 | M1(+E2) |    135.5 | (2)+ | 
| 357.44 16 | AB DE GHIJKLM | (5)+ | 1.91 ns 4 |    357.43 17  |    100 | E2 |      0.0 | 7+ | 
| 389.8 5 | A DEFGH M | (3)- | ≤ 10 ns |    104.3 4  164.00 14 254.09 17  |     <1 100 1 3.1 10  | M1+E2 E1+M2  |    285.7 225.8 135.5  | (3)+ (2)- (2)+  | 
| 480.28 14 | AB DEFGHIJKLM | (4)+ | 0.62 ns 10 |    122.8 3  194.53 11  |     31 4  100 4  | M1(+E2) M1  |    357.44 285.7  | (5)+ (3)+  | 
| 501.26 18 | AB DE GH JKL | (6)+ | 0.35 ns 5 |    501.28 18  |    100 | (M1) |      0.0 | 7+ | 
| 975.0 5 | FG | (1+,2-) | ≤ 10 ns |    749.3 2  |    100 |    225.8 | (2)- | |
| 1089.4 5 | B DEFG I KLM | (1)+ | ≤ 10 ns |    803.8 2  863.5 2 953.8 2  |     37 4  100 4 48 4  | (E2) (E1(+M2)) (M1+E2)  |    285.7 225.8 135.5  | (3)+ (2)- (2)+  | 
| 1150.0 5 | FG | (1-,2-) |    175.17 18  760.13 18 924.08 18  |      2.2 11  5.4 11 100.0 22  | D+Q |    975.0 389.8 225.8  | (1+,2-) (3)- (2)-  | |
| 1310.8 7 | A FGHI M | (2-,3-) | ≤ 10 ns |    921.0 5  |    100 |    389.8 | (3)- | |
| 1323.8 5 | D FG L | (2,3)- |    933.8 5  1098.08 18  |      5 3  100 3  |    389.8 225.8  | (3)- (2)-  | ||
| 1345.5 5 | D FG KL | (2+) | ≤ 10 ns |   1059.88 18  1210.0 5  |     41 3  100 3  | D (D)  |    285.7 135.5  | (3)+ (2)+  | 
| 1374 10 | D | - | ||||||
| 1374 7 | K | + | ||||||
| 1406.2 5 | EFG IJKLM | (5+) |   1120.5 2  |    100 |    285.7 | (3)+ | ||
| 1410.3 6 | EFGHIJKLM | (5,6,7) |    909.0 5  |    100 | D |    501.26 | (6)+ | |
| 1415.0 3 | DEFGHIJKLM | (3,4) | ≤ 10 ns |    933.8 5  1129.55 26  |    100 20  100 20  | D |    480.28 285.7  | (4)+ (3)+  | 
| E(level) (keV)  | XREF | Jπ(level) | T1/2(level) | E(γ) (keV)  | I(γ) | M(γ) | Final Levels | |
| 1422.7 5 | A D FGH M | (4-) | ≤ 10 ns |   1032.9 3  |    100 | D+Q |    389.8 | (3)- | 
| 1467.9 5 | D G I | (4+) |   1332.4 2  |    100 |    135.5 | (2)+ | ||
| 1472.8 7 | A D GHI K | (4+) |   1083.0 5  |    100 |    389.8 | (3)- | ||
| 1481.3 5 | D FG I | (1+) |   1255.6 2  1345.75 24  |     20 100  |    225.8 135.5  | (2)- (2)+  | ||
| 1524? | L | |||||||
| 1553.9 5 | D FG J M | (1-,2,3) | ≤ 10 ns |   1164.13 18  1328.08 18  |    100 3  61 3  |    389.8 225.8  | (3)- (2)-  | |
| 1565.7 11 | FG JK M | (4)+ |   1280 1  |    100 |    285.7 | (3)+ | ||
| 1607 6 | D JKL | 4+,5+ | ||||||
| 1632.7 11 | EFG IJKLM | 4+,5+ |   1347 1  |    100 |    285.7 | (3)+ | ||
| 1642.0 5 | DEFG I M | (2)- |    552.6 2  1252.5 2 1356.1 2 1416.2 2  |     66 37 100 61  |   1089.4 389.8 285.7 225.8  | (1)+ (3)- (3)+ (2)-  | ||
| 1650.3 3 | EFGHI KLM | (5)+ |   1149.0 2  |    100 |    501.26 | (6)+ | ||
| 1666.6 5 | D FG L | (1)- |   1276.6 2  1441.0 2  |    100 47  |    389.8 225.8  | (3)- (2)-  | ||
| 1678.1 5 | D FG L | (1)- |    702.9 2  1452.5 2  |      8.7 100  |    975.0 225.8  | (1+,2-) (2)-  | ||
| 1717 6 | D JK M | 3-,4- | ||||||
| 1730 10 | B D M | - | ||||||
| 1738.2 5 | B FG | (3+) |   1512.4 2  |    100 |    225.8 | (2)- | ||
| 1768.03 19 | B D FG IJKL | (4)+ |   1287.6 2  1482.5 2  |    100 54  |    480.28 285.7  | (4)+ (3)+  | ||
| 1779 10 | B D F | - | ||||||
| 1816 10 | DE J LM | |||||||
| 1831 7 | E JKLM | 4+,5+ | ||||||
| 1832 10 | DE M | - | ||||||
| 1851 10 | D M | - | ||||||
| E(level) (keV)  | XREF | Jπ(level) | T1/2(level) | E(γ) (keV)  | I(γ) | M(γ) | Final Levels | |
| 1875 10 | D M | |||||||
| 1907 10 | D K M | - | ||||||
| 1932 10 | D | - | ||||||
| 1945.3 4 | A H | (7-,8+) | ≤ 6 ns |   1444.5 10  1945?  |    100 ≤200  |    501.26 0.0  | (6)+ 7+  | |
| 1972 10 | D | LE 5+ | ||||||
| 2033 7 | B D KLM | + | ||||||
| 2056 7 | B D KL | 4+,5+ | ||||||
| 2082 6 | D JK | - | ||||||
| 2087.5 4 | A H | (9)- | ≤ 6 ns |    142.2 2  1586.4 10 2087.4 4  |      3.1 10  1.3 4 100.0 11  | [E2] [E3] M2+E3  |   1945.3 501.26 0.0  | (7-,8+) (6)+ 7+  | 
| 2128 7 | B D KLM | LE 5+ | ||||||
| 2142 10 | B D J LM | LE 5+ | ||||||
| 2147 11 | B JK M | (-) | ||||||
| 2162 11 | B KL | (+) | ||||||
| 2203.3 4 | A H | (11-) | 167 ns 4 |    115.8 2  |    100 | E2 |   2087.5 | (9)- | 
| 2213 11 | KL | (+) | ||||||
| 2235.7 4 | A H | (10-) | ≤ 6 ns |    148.2 2  |    100 | D |   2087.5 | (9)- | 
| 2240 10 | D LM | LE 5+ | ||||||
| 2243 8 | JK | - | ||||||
| 2254 8 | B I K M | (3-) | ||||||
| 2271 11 | B K M | - | ||||||
| 2287.1 5 | A H KL | (9+) | ≤ 6 ns |   2287.2 10  |    100 | (E2) |      0.0 | 7+ | 
| 2292 12 | B JKL | (+) | ||||||
| 2294 8 | B D K | - | ||||||
| 2311 12 | K | |||||||
| 2335 10 | D | |||||||
| 2362 8 | D K | + | ||||||
| 2391 6 | D JK | - | ||||||
| E(level) (keV)  | XREF | Jπ(level) | T1/2(level) | E(γ) (keV)  | I(γ) | M(γ) | Final Levels | |
| 2403 | LM | (+) | ||||||
| 2407 12 | K M | - | ||||||
| 2433 10 | D LM | LE 5+ | ||||||
| 2463 8 | B D K | (4,5)+ | ||||||
| 2498 11 | B E JK | |||||||
| 2515 13 | JK | |||||||
| 2530 10 | D L | + | ||||||
| 2563 8 | D K | + | ||||||
| 2580 30 | B | (10-) | ||||||
| 2594 7 | D JKL | (+) | ||||||
| 2610 8 | D KL | LE 5+ | ||||||
| 2656 8 | D K M | (+) | ||||||
| 2666 12 | D J M | - | ||||||
| 2680 13 | D K M | + | ||||||
| 2700 14 | K M | (+) | ||||||
| 2720 14 | K | (+) | ||||||
| 2739 7 | D IJKL | + | ||||||
| 2756 8 | D I KL | |||||||
| 2785 10 | B DE M | |||||||
| 2802 8 | B E IJ M | (3)- | ||||||
| 2811 10 | B DE M | LE 5+ | ||||||
| 2832 10 | B D | |||||||
| 2867 10 | I M | (+) | ||||||
| 2905 9 | D K M | |||||||
| 2926 8 | DE K M | |||||||
| 2948 6 | DE IJKL | (6,5)+ | ||||||
| 2964 8 | D KL | |||||||
| 2981 10 | D M | |||||||
| 2998.2 5 | A H | (11+) | ≤ 6 ns |    711.1 2  762.5 2 795?  |     54 3  100 3 ≤6  | (E2) (E1)  |   2287.1 2235.7 2203.3  | (9+) (10-) (11-)  | 
| E(level) (keV)  | XREF | Jπ(level) | T1/2(level) | E(γ) (keV)  | I(γ) | M(γ) | Final Levels | |
| 3010 10 | D J M | |||||||
| 3020 10 | D J | |||||||
| 3045 6 | D IJ L | (4,3)+ | ||||||
| 3064 10 | D L | |||||||
| 3072 10 | D L | |||||||
| 3090 10 | D M | LE 5+ | ||||||
| 3110 12 | J M | - | ||||||
| 3119 7 | D I LM | (3+,4+) | ||||||
| 3134 10 | D L | |||||||
| 3142 10 | D LM | |||||||
| 3160 10 | D M | |||||||
| 3185 10 | D J | |||||||
| 3200 10 | D J | |||||||
| 3228 10 | D L | |||||||
| 3242 10 | D J LM | |||||||
| 3260 10 | D J M | |||||||
| 3280 10 | D L | LE 5+ | ||||||
| 3294 10 | D LM | LE 5+ | ||||||
| 3316 8 | D J M | - | ||||||
| 3325.9 5 | A H | (13+) | ≤ 6 ns |    327.7 2  |    100 | E2 |   2998.2 | (11+) | 
| 3330 10 | D | LE 5+ | ||||||
| 3342 12 | E J | - | ||||||
| 3345 10 | DE L | LE 5+ | ||||||
| 3372 10 | DE L | LE 5+ | ||||||
| 3385 10 | D | LE 5+ | ||||||
| 3403 8 | D J | - | ||||||
| 3445 10 | D L | LE 5+ | ||||||
| 3455 8 | D J M | - | ||||||
| 3489 12 | J M | (+) | ||||||
| 3516 8 | DE J M | - | ||||||
| E(level) (keV)  | XREF | Jπ(level) | T1/2(level) | E(γ) (keV)  | I(γ) | M(γ) | Final Levels | |
| 3530 10 | DEF L | LE 5+ | ||||||
| 3550 10 | DEF | |||||||
| 3560 10 | D F | |||||||
| 3580 10 | D | |||||||
| 3590 10 | D | |||||||
| 3619 8 | D J L | LE 5+ | ||||||
| 3650 10 | DE L | LE 5+ | ||||||
| 3665 12 | E J | - | ||||||
| 3672 10 | DE L | LE 5+ | ||||||
| 3696 10 | B D L | LE 5+ | ||||||
| 3716 12 | B J | - | ||||||
| 3753 | B L | + | ||||||
| 3790 10 | B D | |||||||
| 3796.9 11 | A H | (12,13) | ≤ 6 ns |    471 1  |    100 |   3325.9 | (13+) | |
| 3805 8 | B D J | - | ||||||
| 3837 10 | B D L | |||||||
| 3875 | L | |||||||
| 3882 | L | |||||||
| 3920 30 | B L | |||||||
| 4032 | L | |||||||
| 4079 12 | J | - | ||||||
| 4135 12 | J | + | ||||||
| 4172 | L | |||||||
| 4285 | L | |||||||
| 4355 | L | |||||||
| 4450 30 | B | |||||||
| 4830 30 | B E | |||||||
| 4.93E3 10 | E | |||||||
| 5.21E3 10 | E | |||||||
| 5620 30 | B F | |||||||
| E(level) (keV)  | XREF | Jπ(level) | T1/2(level) | E(γ) (keV)  | I(γ) | M(γ) | Final Levels | |
| 6.0E+3 1 | B F | (+) | ||||||
| 6280 | F | (+) | ||||||
| 9008 18 | D F I | (0+) | ||||||
| 9956 10 | CD F | (2+) | 33 keV 2 | |||||
| 10.47E3 4 | CD | (4+) | ||||||
| 10.83E3 4 | D | (2+) | ||||||
| 11.089E3 | C | (2+) | ||||||
| 11.54E3 30 | J | (5)- | ||||||
| 11.80E3 30 | J | (4)- | ||||||
E(level): From least squares fit to Eγ for levels deexcited by gammas, holding E(135 level) fixed at 135.5 4; average from cross-referenced particle reactions otherwise; note that ΔE=10 keV has been assumed for E(level) from (3He,d) but ΔE may, in fact, be as low as 5 keV.
 T1/2(level): Upper limit based on experimental timing resolution from (7Li,3nγ), except as noted.
| E(level) (keV)  | Jπ(level) | T1/2(level) | E(γ) (keV)  | Multipolarity | Mixing Ratio  | Conversion Coefficient  | Additional Data | 
| 225.8 | (2)- | 5.9 µs 2 | 90.37 9 | E1 | 0.1609 | B(E1)(W.u.)=6.57E-8 23, α=0.1609 | |
| 285.7 | (3)+ | 1.1 ns +6-3 | 150.13 16 | M1(+E2) | +0.070 14 | 0.0751 | B(E2)(W.u.)=1.2 +6-9, B(M1)(W.u.)=0.0055 +15-30, α=0.0751 12 | 
| 357.44 | (5)+ | 1.91 ns 4 | 357.43 17 | E2 | 0.01277 | B(E2)(W.u.)=2.03 5, α=0.01277 | |
| 389.8 | (3)- | ≤ 10 ns | 164.00 14 | M1+E2 | +0.135 23 | 0.0609 | B(E2)(W.u.)≥0.21, B(M1)(W.u.)≥0.00044, α=0.0609 13 | 
| (3)- | ≤ 10 ns | 254.09 17 | E1+M2 | +0.20 7 | 0.0114 | B(E1)(W.u.)≥5.3E-8, B(M2)(W.u.)≥0.051, α=0.0114 25 | |
| 480.28 | (4)+ | 0.62 ns 10 | 122.8 3 | M1(+E2) | -0.044 25 | 0.1288 | B(E2)(W.u.)=0.6 +7-6, B(M1)(W.u.)=0.0043 9, α=0.1288 24 | 
| (4)+ | 0.62 ns 10 | 194.53 11 | M1 | 0.0372 | B(M1)(W.u.)=0.0035 6, α=0.0372 | ||
| 501.26 | (6)+ | 0.35 ns 5 | 501.28 18 | (M1) | B(M1)(W.u.)=0.00050 8 | ||
| 1089.4 | (1)+ | ≤ 10 ns | 803.8 2 | (E2) | B(E2)(W.u.)≥0.0014 | ||
| (1)+ | ≤ 10 ns | 863.5 2 | (E1(+M2)) | -0.3 3 | B(E1)(W.u.)≥2.1E-8 | ||
| (1)+ | ≤ 10 ns | 953.8 2 | (M1+E2) | B(E2)(W.u.)≥0.00029, B(M1)(W.u.)≥2.5E-7 | |||
| 1422.7 | (4-) | ≤ 10 ns | 1032.9 3 | D+Q | +0.9 +3-2 | ||
| 2087.5 | (9)- | ≤ 6 ns | 142.2 2 | [E2] | 0.323 | B(E2)(W.u.)≥1.9, α=0.323 | |
| (9)- | ≤ 6 ns | 1586.4 10 | [E3] | B(E3)(W.u.)≥0.20 | |||
| (9)- | ≤ 6 ns | 2087.4 4 | M2+E3 | +11 2 | B(E3)(W.u.)≥2.2, B(M2)(W.u.)≥3.2E-5 | ||
| 2203.3 | (11-) | 167 ns 4 | 115.8 2 | E2 | 0.680 | B(E2)(W.u.)=3.93 11, α=0.680 | |
| 2287.1 | (9+) | ≤ 6 ns | 2287.2 10 | (E2) | B(E2)(W.u.)≥6.1E-5 | ||
| 2998.2 | (11+) | ≤ 6 ns | 711.1 2 | (E2) | B(E2)(W.u.)≥0.0072 | ||
| (11+) | ≤ 6 ns | 762.5 2 | (E1) | B(E1)(W.u.)≥7.9E-8 | |||
| 3325.9 | (13+) | ≤ 6 ns | 327.7 2 | E2 | 0.01702 | B(E2)(W.u.)≥0.99, α=0.01702 | 
Additional Level Data and Comments:
| E(level) | Jπ(level) | T1/2(level) | Comments | 
| 0.0 | 7+ |  3.47×10+7 y 24   % ε = 100  | Q=-0.35 3 (2009Ch25), μ=+5.136 4 (2009Ch25) %β-: no β- decay observed or expected. The only energetically possible transition is a seventh-forbidden branch to 0+ 92Mo(g.s.). Systematics for log ft values for such a transition have not been established, but log ft must significantly exceed 22.5, the lowest value known for a 4th forbidden decay; this would imply %Iβ<2×10-6, so this decay mode can be ignored. E(level): %β-: no β- decay observed or expected. The only energetically possible transition is a seventh-forbidden branch to 0+ 92Mo(g.s.). Systematics for log ft values for such a transition have not been established, but log ft must significantly exceed 22.5, the lowest value known for a 4th forbidden decay; this would imply %Iβ<2×10-6, so this decay mode can be ignored.  | 
| 135.5 | (2)+ |  10.15 d 2   % ε = 100  | μ=(+)6.137 4 %ε+%β+: both IT decay (ΔJ=5) and β- decay to (0+ 92Mo g.s.) are energetically possible but have not been observed. log ft values as low as 10.6 are known (1998Si17) for second-forbidden decays; this implies %β-<0.005, compatible with an upper limit of 0.05% reported by 1951Pr20. E(level): %ε+%β+: both IT decay (ΔJ=5) and β- decay to (0+ 92Mo g.s.) are energetically possible but have not been observed. log ft values as low as 10.6 are known (1998Si17) for second-forbidden decays; this implies %β-<0.005, compatible with an upper limit of 0.05% reported by 1951Pr20.  | 
| 1406.2 | (5+) | Jπ(level): L=0 in (p,d), (d,t), implying Jπ=4+ or 5+ for one or more of the 1406, 1410 and 1415 levels. | |
| 1410.3 | (5,6,7) | Jπ(level): L=0 in (p,d), (d,t), implying Jπ=4+ or 5+ for one or more of the 1406, 1410 and 1415 levels. | |
| 1415.0 | (3,4) | ≤ 10 ns | E(level): Weighted average from (p,nγ) and (7Li,3nγ).  Jπ(level): L=1 in (3He,d) implying Jπ=1- to 4- for either the 1415 level and/or the 1423 level. L=0 in (p,d), (d,t), implying Jπ=4+ or 5+ for one or more of the 1406, 1410 and 1415 levels.  | 
| 1422.7 | (4-) | ≤ 10 ns | E(level): Weighted average from (p,nγ) and (7Li,3nγ).  Jπ(level): L=1 in (3He,d) implying Jπ=1- to 4- for either the 1415 level and/or the 1423 level.  | 
| 1472.8 | (4+) | XREF: K(1479). | |
| 1524 | E(level): ΔE unstated by authors. ΔE|<20 keV assigned by evaluator; see source data set. | ||
| 1553.9 | (1-,2,3) | ≤ 10 ns | XREF: F(1556). | 
| 1565.7 | (4)+ | XREF: F(1556). | |
| 1642.0 | (2)- | XREF: d(1634). | |
| 1666.6 | (1)- | XREF: d(1658). | |
| 1907 | - | Existence of level in (d,t) is not certain. E(level): Existence of level in (d,t) is not certain.  | |
| 2033 | + | 2+ to 7+ from L(d,t)=2 for 9/2+ target. E(level): 2+ to 7+ from L(d,t)=2 for 9/2+ target.  | |
| 2240 | LE 5+ | XREF: L(2243). | |
| 2243 | - | XREF: K(2248). | |
| 2254 | (3-) | XREF: K(2255). | |
| 2287.1 | (9+) | ≤ 6 ns | L(p,d)=(2+4) at E=2292 12; this level could account for L=4 component. E(level): L(p,d)=(2+4) at E=2292 12; this level could account for L=4 component.  | 
| 2294 | - | XREF: K(2300). | |
| 2403 | (+) | E(level): ΔE unstated by authors. ΔE|<20 keV assigned by evaluator; see source data set. | |
| 2498 | XREF: E(2490). | ||
| 2867 | (+) | XREF: M(2855). | |
| 2948 | (6,5)+ | L(p,d)=4; J from (3He,t) microscopic DWBA. E(level): L(p,d)=4; J from (3He,t) microscopic DWBA.  | |
| 3445 | LE 5+ | XREF: L(3427). | |
| 3753 | + | E(level): ΔE unstated by authors. ΔE|<20 keV assigned by evaluator; see source data set. | |
| E(level) | Jπ(level) | T1/2(level) | Comments | 
| 3837 | XREF: L(3828). | ||
| 3875 | E(level): ΔE unstated by authors. ΔE|<20 keV assigned by evaluator; see source data set. | ||
| 3882 | E(level): ΔE unstated by authors. ΔE|<20 keV assigned by evaluator; see source data set. | ||
| 4032 | E(level): ΔE unstated by authors. ΔE|<20 keV assigned by evaluator; see source data set. | ||
| 4172 | E(level): ΔE unstated by authors. ΔE|<20 keV assigned by evaluator; see source data set. | ||
| 4285 | E(level): ΔE unstated by authors. ΔE|<20 keV assigned by evaluator; see source data set. | ||
| 4355 | E(level): ΔE unstated by authors. ΔE|<20 keV assigned by evaluator; see source data set. | ||
| 5620 | XREF: F(5680). | ||
| 6.0E+3 | (+) | XREF: F(5920). | |
| 9956 | (2+) | 33 keV 2 | Γ corresponds to T1/2=1.40 x 10-20 s 8. E(level): Γ corresponds to T1/2=1.40 x 10-20 s 8.  | 
| E(level) | E(gamma) | Comments | 
| 225.8 | 90.37 | E(γ): unweighted average of 90.50 14 (p,nγ), 90.2 2 (7Li,3nγ) and 90.4 2 (1978Ba18) (γ,n). M(γ): from α(K)exp, α(L+...)exp in (p,nγ).  | 
| 285.7 | 150.13 | E(γ): Weighted average from (p,nγ) and (7Li,3nγ). M(γ): α(K)exp in (p,nγ); γ(θ) in (p,nγ), (α,xnγ).  | 
| 357.44 | 357.43 | E(γ): Weighted average from (p,nγ) and (7Li,3nγ). M(γ): from α(K)exp and γ(θ) in (p,nγ); γ(θ) in (α,xnγ).  | 
| 389.8 | 164.00 | E(γ): Weighted average from (p,nγ) and (7Li,3nγ). | 254.09 | E(γ): Weighted average from (p,nγ) and (7Li,3nγ). | 
| 480.28 | 122.8 | E(γ): unweighted average of 122.5 2 in (7Li,3nγ) and 123.07 17 in (p,nγ). I(γ): weighted average of 32 5 in (p,nγ) and 30 5 in (d,tγ).  | 194.53 | I(γ): weighted average from (p,nγ) and (d,tγ). M(γ): from α(K)exp, α(L+...)exp, γ(θ) in (p,nγ); γ(θ) in (α,xnγ); γγ(θ) in (α,xnγ).  | 
| 501.26 | 501.28 | E(γ): Weighted average from (p,nγ) and (7Li,3nγ). M(γ): d(+Q) from γ(θ) in (α,xnγ); adopted Δπ=no.  | 
| 1089.4 | 803.8 | M(γ): ΔJ=2 from γ(θ), γγ(θ) in (p,nγ), (α,xnγ); adopted Δπ=no. | 953.8 | M(γ): D+Q from γ(θ) in (α,xnγ); adopted Δπ=no. | 
| 1150.0 | 175.17 | M(γ): from γ(θ) in (p,nγ). | 
| 1345.5 | 1059.88 | M(γ): from γ(θ) in (α,xnγ). | 1210.0 | M(γ): from γ(θ) in (p,nγ). | 
| 1410.3 | 909.0 | M(γ): from γ(θ) in (p,nγ) and (3He,p2nγ). | 
| 1415.0 | 933.8 | M(γ): from γ(θ) in (3He,p2nγ). | 
| 1945.3 | 1444.5 | E(γ): From (7Li,3nγ). I(γ): From (7Li,3nγ).  | 1945 | E(γ): From (7Li,3nγ). I(γ): From (7Li,3nγ).  | 
| 2087.5 | 142.2 | E(γ): From (7Li,3nγ). I(γ): From (7Li,3nγ). M(γ): d,E2 from RUL.  | 1586.4 | E(γ): From (7Li,3nγ). I(γ): From (7Li,3nγ).  | 2087.4 | E(γ): From (7Li,3nγ). I(γ): From (7Li,3nγ).  | 
| 2203.3 | 115.8 | E(γ): From (7Li,3nγ). I(γ): From (7Li,3nγ). M(γ): from γ(θ) in (7Li,3nγ) and RUL.  | 
| 2235.7 | 148.2 | E(γ): From (7Li,3nγ). I(γ): From (7Li,3nγ). M(γ): from γ(θ) in (7Li,3nγ).  | 
| 2287.1 | 2287.2 | E(γ): From (7Li,3nγ). I(γ): From (7Li,3nγ). M(γ): member of stretched Q cascade to π=+ g.s. in (7Li,3nγ).  | 
| 2998.2 | 711.1 | E(γ): from (7Li,3nγ). I(γ): Branching from (7Li,3nγ) (level scheme, fig. 1, 1977Br12). Note that I(711γ)/I(763γ)=0.54 5 and 3.95 from (7Li,3nγ) and (3He,p2nγ), respectively. This may indicate that either the 763γ in (7Li,3nγ) or the 711γ in (3He,p2nγ) is complex. M(γ): Q from γ(θ) in (7Li,3nγ); RUL favors E2 (since B(M2)(W.u.) gw 0.48)  | 762.5 | E(γ): from (7Li,3nγ). I(γ): Branching from (7Li,3nγ) (level scheme, fig. 1, 1977Br12). Note that I(711γ)/I(763γ)=0.54 5 and 3.95 from (7Li,3nγ) and (3He,p2nγ), respectively. This may indicate that either the 763γ in (7Li,3nγ) or the 711γ in (3He,p2nγ) is complex. M(γ): stretched d from γ(θ) in (7Li,3nγ) and (3He,p2nγ); Δπ=(yes) from level scheme.  | 795 | E(γ): From (7Li,3nγ). I(γ): From (7Li,3nγ).  | 
| E(level) | E(gamma) | Comments | 
| 3325.9 | 327.7 | E(γ): From (7Li,3nγ). I(γ): From (7Li,3nγ). M(γ): Q from γ(θ) in (7Li,3nγ), not M2 from RUL.  | 
| 3796.9 | 471 | E(γ): From (7Li,3nγ). I(γ): From (7Li,3nγ). M(γ): d,E2 from RUL.  | 
Other Reactions:
91Zr(7Li,6He): 1993Yo01: E(7Li)=210 MeV, magnetic spectrograph, FWHM≈500 keV, 88.5% 91Zr target; observed resonances at E=0.4 MeV (Γ=1 MeV), 3.5 MeV (Γ=0.9 MeV), 5.1 MeV (Γ=1.2 MeV), 6.4 MeV (Γ=1.3 MeV), 9.4 MeV (Γ=3.0 MeV) and 12.5 MeV (Γ=0.8 MeV); interpreted these resonances as single-particle states.
92Mo(n,pγ), E(n)|<800 MeV: 2000Ga46
99% 92Mo target, pulsed beam; 15 coaxial HPGe detectors (for Eγ|<4 MeV) and 11 planar Ge detectors (for Eγ|<1 MeV), BGO suppression shields for all planar and 9 coaxial detectors; measured 150γ, 164γ, 357γ, 501γ excitation functions for E(n)≈3-250 MeV.
Levels: The first six positive-parity levels are believed to be members of the configuration=((π 1g9/2)(ν 2d5/2)) multiplet. The positive parity of these states is determined by L=4 in (3He,d) on 5/2+ target. If 135 level has Jπ=2+ (which is very probable, given that 92Nb (10 d) ε decays to 2+ states in 92Zr, but not to 0+ or 4+ states), then the spins of 3+, 4+, 5+ states are determined uniquely from the multipolarities of γ transitions (1979Mi08). The negative-parity states (2- and 3-) at 226 and 390 keV are presumed to be members of the configuration=((π 2p1/2)(ν 2d5/2)) doublet.
Levels: Owing to the high level density, the relationship between levels from different experiments is not always determined uniquely; the evaluator’s best estimate is given here.
Levels: For theory see, e.g., 1975Gl07, 1975Mo01, 1976It01, 1978Ma10.
Q-value: Note: Current evaluation has used the following Q record 354 4 7887 3 5846.6 18-4581 3 2011AuZZ,2003Au03
Q-value: Q(β-),S(p),Q(α): from 2011AuZZ; the values are 357 4, 5846.9 18, -4574 3, respectively, from 2003Au03.