List of levels for 45TI

Author: T. W. Burrows | Citation: Nucl. Data Sheets 109, 171 (2008) | Cutoff date: 30-Oct-2007

E(level) (keV)	J^π(level)	T_1/2(level)	E(γ) (keV)	Multipolarity	Mixing Ratio	Conversion Coefficient	Additional Data
36.53	3/2-	3.0 µs 2	36.69 21	(E2)		16.6	B(E2)(W.u.)=30 24, α=16.6 5, α(K)=14.7 4, α(L)=1.73 5, α(M)=0.213 6, α(N)=0.00799 21, α(N+)=0.00799 21
39.39	5/2-	11.29 ns 9	40.15 30	(M1(+E2))	0.000 25	0.223	B(M1)(W.u.)=0.00246 7, α=0.223 10, α(K)=0.201 9, α(L)=0.0190 9, α(M)=0.00242 11, α(N)=0.000126 5, α(N+)=0.000126 5
329.30	3/2+	1.099 ns 13	289.5 3	(E1,M2)		0.0036	B(E1)(W.u.)<1.1E-7 5, B(M2)(W.u.)<6 3, α=0.0036 25, α(K)=0.0032 23, α(L)=0.00030 21, α(M)=4.E-5 3, α(N)=2.0E-6 15, α(N+)=2.0E-6 15
329.30	3/2+	1.099 ns 13	292.77 5	E1(+M2)	0.032 LE	1.08×10^-3	B(E1)(W.u.)=1.927E-5 25, B(M2)(W.u.)≤1.055 14, α=1.08E-3 2, α(K)=0.000978 14, α(L)=8.76E-5 13, α(M)=1.118E-5 16, α(N)=6.01E-7 9, α(N+)=6.01E-7 9
743.88	5/2+	10.5 ps 17	414.36 18	M1+E2	+0.40 3	7.27×10^-4	B(E2)(W.u.)=58 12, B(M1)(W.u.)=0.023 4, α=7.27E-4 22, α(K)=0.000660 20, α(L)=5.95E-5 18, α(M)=7.60E-6 23, α(N)=4.09E-7 12, α(N+)=4.09E-7 12
	5/2+	10.5 ps 17	703.9 11	(E1)		0.0001100	B(E1)(W.u.)=3.7E-6 10, α=0.0001100 16, α(K)=9.96E-5 15, α(L)=8.89E-6 13, α(M)=1.137E-6 17, α(N)=6.16E-8 9, α(N+)=6.16E-8 9
	5/2+	10.5 ps 17	707.47 16	(E1+M2)	+0.06 +5-4	1.10×10^-4	B(E1)(W.u.)=1.01E-5 25, B(M2)(W.u.)=0.3 +6-3, α=1.10E-4 4, α(K)=0.000100 4, α(L)=8.9E-6 3, α(M)=1.14E-6 4, α(N)=6.17E-8 20, α(N+)=6.17E-8 20
	5/2+	10.5 ps 17	744	(E1,M2)		0.00026	B(E1)(W.u.)<2.4E-7 14, B(M2)(W.u.)<2.0 12, α=0.00026 17, α(K)=0.00024 15, α(L)=2.1E-5 14, α(M)=2.7E-6 17, α(N)=1.5E-7 10, α(N+)=1.5E-7 10
1226.50	7/2+	2.8 ps 6	482.61 14	M1+E2	+0.28 3	4.57×10^-4	B(E2)(W.u.)=25 8, B(M1)(W.u.)=0.028 7, α=4.57E-4 11, α(K)=0.000415 10, α(L)=3.73E-5 9, α(M)=4.77E-6 11, α(N)=2.58E-7 6, α(N+)=2.58E-7 6
	7/2+	2.8 ps 6	897.27 12	E2(+M3)	0.0011 LE	0.0001590	B(E2)(W.u.)=16 4, B(M3)(W.u.)≤1.7×10² 4, α=0.0001590 23, α(K)=0.0001442 21, α(L)=1.292E-5 18, α(M)=1.652E-6 24, α(N)=8.93E-8 13, α(N+)=8.93E-8 13
	7/2+	2.8 ps 6	1188.03 35	(E1(+M2))	0.00 6	8.55×10^-5	B(E1)(W.u.)=8.7E-6 23, B(M2)(W.u.)<0.10 3, α=8.55E-5 13, α(K)=3.48E-5 6, α(L)=3.10E-6 6, α(M)=3.96E-7 7, α(N)=2.15E-8 4, α(N+)=4.72E-5 8
	7/2+	2.8 ps 6	1225.94 21	(E1+M2)	-0.34 6	1.10×10^-4	B(E1)(W.u.)=5.6E-6 20, B(M2)(W.u.)=2.0 10, α=1.10E-4 2, α(K)=4.1E-5 3, α(L)=3.7E-6 3, α(M)=4.7E-7 4, α(N)=2.56E-8 18, α(N+)=6.4E-5 3
1353.49	9/2-	0.103 ps 9	1314.0 10	(E2)		9.68×10^-5	B(E2)(W.u.)=10.7 15, α=9.68E-5 14, α(K)=5.87E-5 9, α(L)=5.24E-6 8, α(M)=6.71E-7 10, α(N)=3.64E-8 6, α(N+)=3.22E-5 6
1353.49	9/2-	0.103 ps 9	1353.6 2	M1+E2	-0.39 10	8.45×10^-5	B(E2)(W.u.)=16 7, B(M1)(W.u.)=0.069 8, α=8.45E-5 18, α(K)=4.80E-5 9, α(L)=4.28E-6 8, α(M)=5.48E-7 10, α(N)=2.98E-8 6, α(N+)=3.16E-5 9
1468.24	11/2-	0.48 ps 7	114	(M1)		0.01339	B(M1)(W.u.)=0.31 5, α=0.01339, α(K)=0.01212 17, α(L)=0.001115 16, α(M)=0.0001424 20, α(N)=7.58×10^-6 11, α(N+)=7.58E-6 11
1468.24	11/2-	0.48 ps 7	1468.14 15	E2(+M3)	0.0005 LE	0.0001280	B(E2)(W.u.)=18 3, B(M3)(W.u.)≤14.6 22, α=0.0001280 18, α(K)=4.65E-5 7, α(L)=4.15E-6 6, α(M)=5.30E-7 8, α(N)=2.88E-8 4, α(N+)=7.64E-5 11
1565.4	1/2+	> 2.8 ps	1236 1	D,E2			B(E2)(W.u.)<6.4, B(M1)(W.u.)<0.0036
1565.4	1/2+	> 2.8 ps	1528 1	(E1)		0.000309	B(E1)(W.u.)<7.0E-6, α=0.000309 5, α(K)=2.27E-5 4, α(L)=2.02E-6 3, α(M)=2.58E-7 4, α(N)=1.404E-8 20, α(N+)=0.000284 4
1881.76	9/2+	0.68 ps +6-5	655.2 2	M1+E2	+0.27 +12-7	2.27×10^-4	B(E2)(W.u.)=13 11, B(M1)(W.u.)=0.028 3, α=2.27E-4 11, α(K)=0.000206 10, α(L)=1.84E-5 9, α(M)=2.36E-6 12, α(N)=1.28E-7 6, α(N+)=1.28E-7 6
1881.76	9/2+	0.68 ps +6-5	1137.8 2	E2(+M3)	0.00028 LE	9.18×10^-5	B(E2)(W.u.)=33 7, B(M3)(W.u.)≤14 3, α=9.18E-5 13, α(K)=8.09E-5 12, α(L)=7.24E-6 11, α(M)=9.26E-7 13, α(N)=5.02E-8 7, α(N+)=2.68E-6 4
1958.2	3/2+	0.83 ps 14	1214.3 3	M1+E2		8.0×10^-5	α=8.0×10^-5 9, α(K)=6.4E-5 7, α(L)=5.7E-6 6, α(M)=7.3E-7 8, α(N)=4.0E-8 4, α(N+)=9.7E-6 18
1958.2	3/2+	0.83 ps 14	1920 1	(E1,M2)		0.00038	B(E1)(W.u.)<1.4E-5 5, B(M2)(W.u.)<18 6, α=0.00038 22, α(K)=3.0E-5 14, α(L)=2.6E-6 13, α(M)=3.4E-7 16, α(N)=1.8E-8 9, α(N+)=0.00035 24
2258.2	5/2+	0.194 ps 35	301 1	(E2)		0.00501	α=0.00501 10, α(K)=0.00454 9, α(L)=0.000413 8, α(M)=5.26×10^-5 10, α(N)=2.77E-6 6, α(N+)=2.77E-6 6
	5/2+	0.194 ps 35	691.0 15	(E2)		0.000323	B(E2)(W.u.)=4.×10¹ 4, α=0.000323 5, α(K)=0.000293 5, α(L)=2.63E-5 4, α(M)=3.36E-6 6, α(N)=1.81E-7 3, α(N+)=1.81E-7 3
	5/2+	0.194 ps 35	1514 1	M1+E2	+1.4 +3-5	1.31×10^-4	B(E2)(W.u.)=10 3, B(M1)(W.u.)=0.0044 16, α=1.31E-4 7, α(K)=4.18E-5 13, α(L)=3.73E-6 12, α(M)=4.77E-7 15, α(N)=2.60E-8 8, α(N+)=8.5E-5 6
	5/2+	0.194 ps 35	1929 1	M1+E2	+0.42 +6-10	2.58×10^-4	B(E2)(W.u.)=0.9 3, B(M1)(W.u.)=0.0073 16, α=2.58E-4 5, α(K)=2.54E-5 4, α(L)=2.26E-6 4, α(M)=2.90E-7 5, α(N)=1.578E-8 24, α(N+)=0.000230 5
E(level) (keV)	J^π(level)	T_1/2(level)	E(γ) (keV)	Multipolarity	Mixing Ratio	Conversion Coefficient	Additional Data
2474.58	11/2+	0.39 ps 6	592.5 2	M1+E2	+0.09 5	2.69×10^-4	B(E2)(W.u.)=4 +5-4, B(M1)(W.u.)=0.068 11, α=2.69E-4 5, α(K)=0.000244 5, α(L)=2.19E-5 4, α(M)=2.80E-6 5, α(N)=1.52E-7 3, α(N+)=1.52E-7 3
2474.58	11/2+	0.39 ps 6	1248.2 2	E2(+M3)	0.00032 LE	9.00×10^-5	B(E2)(W.u.)=38 6, B(M3)(W.u.)≤17 3, α=9.00E-5 13, α(K)=6.57E-5 10, α(L)=5.87E-6 9, α(M)=7.51E-7 11, α(N)=4.07E-8 6, α(N+)=1.77E-5 3
2656.66	13/2-	< 0.17 ps	1188.61 20	M1+E2	-2.6 5	8.61×10^-5	α=8.61×10^-5 16, α(K)=7.15E-5 13, α(L)=6.39E-6 12, α(M)=8.18E-7 15, α(N)=4.44E-8 8, α(N+)=7.31E-6 18
2656.66	13/2-	< 0.17 ps	1303.5 3	(E2)		9.55×10^-5	α=9.55×10^-5 14, α(K)=5.97E-5 9, α(L)=5.34E-6 8, α(M)=6.82E-7 10, α(N)=3.71E-8 6, α(N+)=2.97E-5 5
2911.6	7/2+	0.36 ps 8	954 1	(E2)		0.0001360	B(E2)(W.u.)=48 24, α=0.0001360 20, α(K)=0.0001235 18, α(L)=1.106E-5 16, α(M)=1.414E-6 21, α(N)=7.65E-8 11, α(N+)=7.65E-8 11
	7/2+	0.36 ps 8	1030 1	M1+E2		0.000100	α=0.000100 14, α(K)=9.0×10^-5 12, α(L)=8.1E-6 11, α(M)=1.03E-6 14, α(N)=5.6E-8 8, α(N+)=5.6E-8 8
	7/2+	0.36 ps 8	2167 1	M1+E2		0.00038	α=0.00038 4, α(K)=2.14×10^-5 8, α(L)=1.90E-6 7, α(M)=2.43E-7 9, α(N)=1.33E-8 5, α(N+)=0.00036 4
3015.37	15/2-	0.55 ps 14	358.97 15	M1+E2	-2.6 3	0.00242	α=0.00242 7, α(K)=0.00220 6, α(L)=0.000199 6, α(M)=2.54×10^-5 7, α(N)=1.35E-6 4, α(N+)=1.35E-6 4
3015.37	15/2-	0.55 ps 14	1546.90 15	(E2)		1.52×10^-4	B(E2)(W.u.)=10 3, α=1.52E-4, α(K)=4.18E-5 6, α(L)=3.73E-6 6, α(M)=4.77E-7 7, α(N)=2.59E-8 4, α(N+)=0.0001064 15
3447.31	13/2+	0.180 ps 21	1565.7 2	(E2)		0.0001590	B(E2)(W.u.)=20.4 24, α=0.0001590 23, α(K)=4.08E-5 6, α(L)=3.64E-6 5, α(M)=4.65E-7 7, α(N)=2.53E-8 4, α(N+)=0.0001142 16
3601.87	17/2-	0.90 ps 7	586.41 15	M1+E2	-2.3 1	4.85×10^-4	α=4.85×10^-4 8, α(K)=0.000440 7, α(L)=3.96E-5 7, α(M)=5.06E-6 8, α(N)=2.72E-7 5, α(N+)=2.72E-7 5
3601.87	17/2-	0.90 ps 7	945.1 2	E2		0.0001390	B(E2)(W.u.)=10.2 10, α=0.0001390 20, α(K)=0.0001264 18, α(L)=1.132E-5 16, α(M)=1.448E-6 21, α(N)=7.83E-8 11, α(N+)=7.83E-8 11
3922.45	15/2+	0.312 ps 21	475.2 2	(M1)		1.66×10^-4	B(M1)(W.u.)=0.111 9, α=1.66×10^-4 3, α(K)=0.000391 6, α(L)=3.51E-5 5, α(M)=4.49E-6 7, α(N)=2.43E-7 4, α(N+)=2.43E-7 4
3922.45	15/2+	0.312 ps 21	1447.8 2	(E2)		1.22×10^-4	B(E2)(W.u.)=24.9 17, α=1.22E-4 2, α(K)=4.78E-5 7, α(L)=4.27E-6 6, α(M)=5.46E-7 8, α(N)=2.97E-8 5, α(N+)=6.94E-5 10
4344.9	19/2-	0.104 ps 14	742.8 2	M1		0.0001660	B(M1)(W.u.)=0.51 7, α=0.0001660 24, α(K)=0.0001510 22, α(L)=1.351×10^-5 19, α(M)=1.729E-6 25, α(N)=9.39E-8 14, α(N+)=9.39E-8 14
4344.9	19/2-	0.104 ps 14	1330.1 3	(E2)		9.91×10^-5	B(E2)(W.u.)=1.9 4, α=9.91E-5 14, α(K)=5.72E-5 8, α(L)=5.11E-6 8, α(M)=6.53E-7 10, α(N)=3.55E-8 5, α(N+)=3.61E-5 6
5239.9	(17/2+)	0.07 ps 6	1792.5 2	[E2]		2.49×10^-4	B(E2)(W.u.)=3.×10¹ 3, α=2.49E-4 4, α(K)=3.13E-5 5, α(L)=2.79E-6 4, α(M)=3.57E-7 5, α(N)=1.94E-8 3, α(N+)=0.000214 3
5640.9	19/2+	0.19 ps 6	401.3 3	(M1)		6.29×10^-4	B(M1)(W.u.)=0.22 7, α=6.29×10^-4 9, α(K)=0.000570 8, α(L)=5.13E-5 8, α(M)=6.57E-6 10, α(N)=3.55E-7 5, α(N+)=3.55E-7 5
5640.9	19/2+	0.19 ps 6	1717.7 5	(E2)		2.18×10^-4	B(E2)(W.u.)=18 6, α=2.18E-4 3, α(K)=3.40E-5 5, α(L)=3.03E-6 5, α(M)=3.87E-7 6, α(N)=2.11E-8 3, α(N+)=0.000180 3
6163.0	23/2-	0.35 ps 4	1818.0 4	E2		0.000260	B(E2)(W.u.)=8.6 10, α=0.000260 4, α(K)=3.05E-5 5, α(L)=2.71E-6 4, α(M)=3.47E-7 5, α(N)=1.89E-8 3, α(N+)=0.000226 4
7143.4	27/2-	10.4 ps 14	980.45 25	E2		0.0001270	B(E2)(W.u.)=6.3 9, α=0.0001270 18, α(K)=0.0001154 17, α(L)=1.033E-5 15, α(M)=1.321E-6 19, α(N)=7.15E-8 10, α(N+)=7.15E-8 10

Q(β-)=-7129 keV 8	S(n)= 9531.9 keV 12	S(p)= 8482.1 keV 20	Q(α)= -6296.1 keV 9
Reference: 2012WA38

References:
A	⁴⁵V β⁺ decay	B	(HI,xnγ)
C	²⁴Mg(²⁴Mg,2pnγ) E=83 MeV	D	³⁰Si(¹⁸O,3nγ)
E	⁴²Ca(α,nγ)	F	⁴⁴Ca(pol p,π^-), ⁴⁵Sc(p,n)
G	⁴⁵Sc(p,n),(p,nγ)	H	⁴⁵Sc(³He,t) E=24.6 MeV IAR
I	⁴⁶Ti(p,d),(d,t),(³He,α)	J	⁴⁴Ti(n,γ) E=TH

E(level) (keV)	XREF	J^π(level)	T_1/2(level)	E(γ) (keV)	I(γ)	M(γ)	Final Levels
0.0	A B C D E F G H I	7/2-	184.8 m 5 % ε = 100
36.53 15	B C D E G I	3/2-	3.0 µs 2	36.69 21	100	(E2)	0.0	7/2-
39.39 23	A B C D E G	5/2-	11.29 ns 9	40.15 30	100	(M1(+E2))	0.0	7/2-
329.30 15	B C D E G I	3/2+	1.099 ns 13	289.5 3 292.77 5	0.55 25 100.00 25	(E1,M2) E1(+M2)	39.39 36.53	5/2- 3/2-
743.88 17	B C D E G	5/2+	10.5 ps 17	414.36 18 703.9 11 707.47 16 744	100.0 16 2.8 6 7.8 14 0.22 11	M1+E2 (E1) (E1+M2) (E1,M2)	329.30 39.39 36.53 0.0	3/2+ 5/2- 3/2- 7/2-
1226.50 15	B C D E G	7/2+	2.8 ps 6	482.61 14 897.27 12 1188.03 35 1225.94 21	98.1 32 100.0 57 17.6 25 13.8 38	M1+E2 E2(+M3) (E1(+M2)) (E1+M2)	743.88 329.30 39.39 0.0	5/2+ 3/2+ 5/2- 7/2-
1353.49 18	C D E G I	9/2-	0.103 ps 9	1314.0 10 1353.6 2	7.8 8 100.0 8	(E2) M1+E2	39.39 0.0	5/2- 7/2-
1468.24 14	B C D E G I	11/2-	0.48 ps 7	114 1468.14 15	1 100	(M1) E2(+M3)	1353.49 0.0	9/2- 7/2-
1521.7 6	E G	3/2- TO 9/2-	48 fs 11	1484 1 ? 1484 1 ? 1521 1	1.0E2 5 1.0E2 5 7E1 5	D,E2 D,E2 D,E2	39.39 36.53 0.0	5/2- 3/2- 7/2-
1565.4 7	E I	1/2+	> 2.8 ps	1236 1 1528 1	100.0 23 14.9 23	D,E2 (E1)	329.30 36.53	3/2+ 3/2-
1799.0 15	E G I	(1/2- TO 7/2-)	0.32 ps +22-8	1761 2 ? 1761 2 ?	100 100	D,E2 D,E2	39.39 36.53	5/2- 3/2-
1881.76 19	B C D E G	9/2+	0.68 ps +6-5	655.2 2 1137.8 2	35.6 5 100.0 14	M1+E2 E2(+M3)	1226.50 743.88	7/2+ 5/2+
1958.2 4	E G I	3/2+	0.83 ps 14	1214.3 3 1920 1	100 5 18 5	M1+E2 (E1,M2)	743.88 39.39	5/2+ 5/2-
2014.7 6	E G	3/2- TO 9/2-	32 fs 9	1976 1 ? 1976 1 ? 2016 1	100.0 19 100.0 19 88.7 19	D,E2 D,E2 D,E2	39.39 36.53 0.0	5/2- 3/2- 7/2-
E(level) (keV)	XREF	J^π(level)	T_1/2(level)	E(γ) (keV)	I(γ)	M(γ)	Final Levels
2258.2 6	E G I	5/2+	0.194 ps 35	301 1 691.0 15 1514 1 1929 1	6 4 4 3 74 8 100 8	(E2) (E2) M1+E2 M1+E2	1958.2 1565.4 743.88 329.30	3/2+ 1/2+ 5/2+ 3/2+
2432.1 15	G	3/2 TO 11/2		2394 3 ? 2394 3 ? 2432 2	25 13 25 13 100 13		36.53 39.39 0.0	3/2- 5/2- 7/2-
2474.58 21	C D E	11/2+	0.39 ps 6	592.5 2 1248.2 2	33.6 5 100.0 10	M1+E2 E2(+M3)	1881.76 1226.50	9/2+ 7/2+
2500 20	I	5/2-,7/2-
2531.4 12	E	1/2,3/2,5/2(+)		966 1	100		1565.4	1/2+
2656.66 18	B C D E	13/2-	< 0.17 ps	1188.61 20 1303.5 3	100.0 14 8.4 4	M1+E2 (E2)	1468.24 1353.49	11/2- 9/2-
2849.4 12	E	1/2,3/2,5/2(+)		1284 1	100		1565.4	1/2+
2890 20	I	(3/2+,5/2+)
2911.6 6	E	7/2+	0.36 ps 8	954 1 1030 1 2167 1	50 20 67 13 100 22	(E2) M1+E2 M1+E2	1958.2 1881.76 743.88	3/2+ 9/2+ 5/2+
2932.9 9	D	(13/2+)		458			2474.58	11/2+
3000 20	I	(3/2+,5/2+)
3015.37 18	B C D E	15/2-	0.55 ps 14	358.97 15 1546.90 15	25.4 19 100 7	M1+E2 (E2)	2656.66 1468.24	13/2- 11/2-
3080 20	I	(3/2+,5/2+)
3156.0 11	E			2412 1	100		743.88	5/2+
3200 20	I
3400 20	I	(3/2+,5/2+)
3447.31 23	C D	13/2+	0.180 ps 21	972.6 2 1565.7 2	72.2 16 100.0 11	D,E2 (E2)	2474.58 1881.76	11/2+ 9/2+
3540 20	I	3/2+,5/2+
3601.87 21	B C D	17/2-	0.90 ps 7	586.41 15 945.1 2	100 5 13.2 3	M1+E2 E2	3015.37 2656.66	15/2- 13/2-
E(level) (keV)	XREF	J^π(level)	T_1/2(level)	E(γ) (keV)	I(γ)	M(γ)	Final Levels
3830 20	I	1/2+
3922.45 25	C D	15/2+	0.312 ps 21	475.2 2 1447.8 2	20.3 6 100.0 6	(M1) (E2)	3447.31 2474.58	13/2+ 11/2+
3937.6 11	E	(11/2 TO 15/2)		1463 1	100		2474.58	11/2+
4344.9 3	C D F	19/2-	0.104 ps 14	742.8 2 1330.1 3	100.0 13 1.43 13	M1 (E2)	3601.87 3015.37	17/2- 15/2-
4723 7	H I	(7/2)-
4810 20	I	3/2+,5/2+
4855.2 9	D	(17/2+)	0.35 ps 5	933 1922		D,E2	3922.45 2932.9	15/2+ (13/2+)
5030 20	I	(3/2+,5/2+)
5180 20	I	1/2-,3/2-
5239.9 3	C D	(17/2+)	0.07 ps 6	1317.5 2 1792.5 2	53.6 12 100.0 14	[E2]	3922.45 3447.31	15/2+ 13/2+
5330 20	I	3/2+,5/2+
5540 20	I
5640.9 4	C D	19/2+	0.19 ps 6	401.3 3 1717.7 5	14.0 6 100 2	(M1) (E2)	5239.9 3922.45	(17/2+) 15/2+
5760 20	I	1/2+
6006.7 9	D			2084			3922.45	15/2+
6163.0 5	B C D F	23/2-	0.35 ps 4	1818.0 4	100	E2	4344.9	19/2-
6459.9 8	D	(21/2+)		453 819			6006.7 5640.9	19/2+
6757.9 7	D	(21/2+)		1117 1518			5640.9 5239.9	19/2+ (17/2+)
7143.4 6	B C D F	27/2-	10.4 ps 14	980.45 25	100	E2	6163.0	23/2-
7342.0 8	D	(23/2+)		584 1701			6757.9 5640.9	(21/2+) 19/2+
7830.7 8	D			1073 2190			6757.9 5640.9	(21/2+) 19/2+
E(level) (keV)	XREF	J^π(level)	T_1/2(level)	E(γ) (keV)	I(γ)	M(γ)	Final Levels
8289.2 8	D	(25/2+)		459 947 1829			7830.7 7342.0 6459.9	(23/2+) (21/2+)
9643.5 12	D		< 0.07 ps	2500	100	D,E2	7143.4	27/2-
10153.5 12	D	(25/2-)	< 0.07 ps	3010	100	(D)	7143.4	27/2-
10795.3 13	D	(29/2+)		2506			8289.2	(25/2+)
12498.6 16	D	(29/2-)	< 0.07 ps	2345		D,E2	10153.5	(25/2-)
13030.4 17	D	(33/2+)		2235			10795.3	(29/2+)

E(level) (keV)	J^π(level)	T_1/2(level)	E(γ)	I(γ)	M(γ)	Final Levels
Band 1 - band BASED ON f_7/2 ORBITAL, α=-1/2
0.0	7/2-	184.8 m 5 % ε = 100
1468.24 14	11/2-	0.48 ps 7	114 1468.14 15	1 100	(M1) E2(+M3)	1353.49 0.0	9/2- 7/2-
3015.37 18	15/2-	0.55 ps 14	358.97 15 1546.90 15	25.4 19 100 7	M1+E2 (E2)	2656.66 1468.24	13/2- 11/2-
4344.9 3	19/2-	0.104 ps 14	742.8 2 1330.1 3	100.0 13 1.43 13	M1 (E2)	3601.87 3015.37	17/2- 15/2-
6163.0 5	23/2-	0.35 ps 4	1818.0 4	100	E2	4344.9	19/2-
7143.4 6	27/2-	10.4 ps 14	980.45 25	100	E2	6163.0	23/2-
E(level) (keV)	J^π(level)	T_1/2(level)	E(γ)	I(γ)	M(γ)	Final Levels
Band 2 - band BASED ON d_3/2 ORBITAL, α=-1/2
329.30 15	3/2+	1.099 ns 13
1226.50 15	7/2+	2.8 ps 6	482.61 14 897.27 12 1188.03 35 1225.94 21	98.1 32 100.0 57 17.6 25 13.8 38	M1+E2 E2(+M3) (E1(+M2)) (E1+M2)	743.88 329.30 39.39 0.0	5/2+ 3/2+ 5/2- 7/2-
2474.58 21	11/2+	0.39 ps 6	592.5 2 1248.2 2	33.6 5 100.0 10	M1+E2 E2(+M3)	1881.76 1226.50	9/2+ 7/2+
3922.45 25	15/2+	0.312 ps 21	475.2 2 1447.8 2	20.3 6 100.0 6	(M1) (E2)	3447.31 2474.58	13/2+ 11/2+
5640.9 4	19/2+	0.19 ps 6	401.3 3 1717.7 5	14.0 6 100 2	(M1) (E2)	5239.9 3922.45	(17/2+) 15/2+
7342.0 8	(23/2+)		584 1701			6757.9 5640.9	(21/2+) 19/2+
E(level) (keV)	J^π(level)	T_1/2(level)	E(γ)	I(γ)	M(γ)	Final Levels
Band 3 - band BASED ON d_3/2 ORBITAL, α=+1/2
743.88 17	5/2+	10.5 ps 17
1881.76 19	9/2+	0.68 ps +6-5	655.2 2 1137.8 2	35.6 5 100.0 14	M1+E2 E2(+M3)	1226.50 743.88	7/2+ 5/2+
3447.31 23	13/2+	0.180 ps 21	972.6 2 1565.7 2	72.2 16 100.0 11	D,E2 (E2)	2474.58 1881.76	11/2+ 9/2+
5239.9 3	(17/2+)	0.07 ps 6	1317.5 2 1792.5 2	53.6 12 100.0 14	[E2]	3922.45 3447.31	15/2+ 13/2+
6757.9 7	(21/2+)		1117 1518			5640.9 5239.9	19/2+ (17/2+)
E(level) (keV)	J^π(level)	T_1/2(level)	E(γ)	I(γ)	M(γ)	Final Levels
Band 4 - band BASED ON f_7/2 ORBITAL, α=+1/2
1353.49 18	9/2-	0.103 ps 9
2656.66 18	13/2-	< 0.17 ps	1188.61 20 1303.5 3	100.0 14 8.4 4	M1+E2 (E2)	1468.24 1353.49	11/2- 9/2-
3601.87 21	17/2-	0.90 ps 7	586.41 15 945.1 2	100 5 13.2 3	M1+E2 E2	3015.37 2656.66	15/2- 13/2-
E(level) (keV)	J^π(level)	T_1/2(level)	E(γ)	I(γ)	M(γ)	Final Levels
Band 5 - K^π=1/2⁺ band
1565.4 7	1/2+	> 2.8 ps
1958.2 4	3/2+	0.83 ps 14	1214.3 3 1920 1	100 5 18 5	M1+E2 (E1,M2)	743.88 39.39	5/2+ 5/2-
2258.2 6	5/2+	0.194 ps 35	301 1 691.0 15 1514 1 1929 1	6 4 4 3 74 8 100 8	(E2) (E2) M1+E2 M1+E2	1958.2 1565.4 743.88 329.30	3/2+ 1/2+ 5/2+ 3/2+
2911.6 6	7/2+	0.36 ps 8	954 1 1030 1 2167 1	50 20 67 13 100 22	(E2) M1+E2 M1+E2	1958.2 1881.76 743.88	3/2+ 9/2+ 5/2+
E(level) (keV)	J^π(level)	T_1/2(level)	E(γ)	I(γ)	M(γ)	Final Levels
Band 6 - π=- γ CASCADE
10153.5 12	(25/2-)	< 0.07 ps
12498.6 16	(29/2-)	< 0.07 ps	2345		D,E2	10153.5	(25/2-)

E(level)	J^π(level)	T_1/2(level)	Comments
0.0	7/2-	184.8 m 5 % ε = 100	Q=0.015 15 (2005St24,1966Co19), μ=0.095 2, T=1/2 E(level): From (p,nγ). 289.5γ deduced from Eγ(to 40)-3.3 3. band BASED ON f_7/2 ORBITAL, α=-1/2.
329.30	3/2+	1.099 ns 13	μ=+1.05 24 (1989Ra17,1977Bu10,1975Ha47) Configuration: calculation by 1977La12 indicates that a contribution of f7/2 nucleons is required to reproduce μ. E(level): Configuration: calculation by 1977La12 indicates that a contribution of f7/2 nucleons is required to reproduce μ. band BASED ON d_3/2 ORBITAL, α=-1/2.
743.88	5/2+	10.5 ps 17	E(level): band BASED ON d_3/2 ORBITAL, α=+1/2. T_1/2(level): From RDM in (HI,xnγ). Others: T_1/2(744)\|>1 ps and T_1/2(1227)\|>1.5 ps from DSAM in (p,Nγ).
1226.50	7/2+	2.8 ps 6	E(level): band BASED ON d_3/2 ORBITAL, α=-1/2. J^π(level): From γ(θ), γ excit, and linear polarization in (α,nγ). T_1/2(level): From RDM in (HI,xnγ). Others: T_1/2(744)\|>1 ps and T_1/2(1227)\|>1.5 ps from DSAM in (p,Nγ).
1353.49	9/2-	0.103 ps 9	E(level): From (HI,xnγ). band BASED ON f_{7/2 ORBITAL, α=+1/2. T_1/2(level): From DSAM in (p,nγ). Other DSAM in (p,nγ): T_1/2(1354)=0.103 ps 24, T_1/2(1468)=464 fs +114-89, T_1/2(1521)=55 fs 9. E(level): From (HI,xnγ). band BASED ON f_7/2 ORBITAL, α=+1/2.}
1468.24	11/2-	0.48 ps 7	E(level): From (p,nγ). 289.5γ deduced from Eγ(to 40)-3.3 3. band BASED ON f_7/2 ORBITAL, α=-1/2. From (HI,xnγ). J^π(level): From γ(θ), γ excit, and linear polarization in (α,nγ). T_1/2(level): From DSAM in (p,nγ). Other DSAM in (p,nγ): T_1/2(1354)=0.103 ps 24, T_1/2(1468)=464 fs +114-89, T_1/2(1521)=55 fs 9.
1521.7	3/2- TO 9/2-	48 fs 11	E(level): From (HI,xnγ). T_1/2(level): From DSAM in (p,nγ). Other DSAM in (p,nγ): T_1/2(1354)=0.103 ps 24, T_1/2(1468)=464 fs +114-89, T_1/2(1521)=55 fs 9.
1565.4	1/2+	> 2.8 ps	E(level): K^π=1/2⁺ band.
1799.0	(1/2- TO 7/2-)	0.32 ps +22-8	E(level): From (HI,xnγ). T_1/2(level): From DSAM in (p,nγ). Other DSAM in (p,nγ): T_1/2(1354)=0.103 ps 24, T_1/2(1468)=464 fs +114-89, T_1/2(1521)=55 fs 9.
1881.76	9/2+	0.68 ps +6-5	E(level): band BASED ON d_{3/2 ORBITAL, α=+1/2. E(level): band BASED ON d_3/2 ORBITAL, α=+1/2.}
1958.2	3/2+	0.83 ps 14	E(level): K^π=1/2⁺ band.
2014.7	3/2- TO 9/2-	32 fs 9	E(level): From (HI,xnγ). T_1/2(level): From DSAM in (p,nγ). Other DSAM in (p,nγ): T_1/2(1354)=0.103 ps 24, T_1/2(1468)=464 fs +114-89, T_{1/2(1521)=55 fs 9. T_1/2(level): From DSAM in (p,nγ). Other DSAM in (p,nγ): T_1/2(1354)=0.103 ps 24, T_1/2(1468)=464 fs +114-89, T_1/2(1521)=55 fs 9.}
2258.2	5/2+	0.194 ps 35	E(level): K^π=1/2⁺ band.
2474.58	11/2+	0.39 ps 6	E(level): band BASED ON d_3/2 ORBITAL, α=-1/2.
2531.4	1/2,3/2,5/2(+)		J^π(level): γ to 1/2⁺.
2656.66	13/2-	< 0.17 ps	E(level): band BASED ON f_7/2 ORBITAL, α=+1/2. T_1/2(level): From DSAM in (¹⁸O,3nγ).
2849.4	1/2,3/2,5/2(+)		J^π(level): γ to 1/2⁺.
2911.6	7/2+	0.36 ps 8	E(level): K^π=1/2⁺ band.
2932.9	(13/2+)		E(level): (13/2⁺) INTRUDER band. J^π(level): (13/2⁺) INTRUDER band.
3015.37	15/2-	0.55 ps 14	E(level): From (p,nγ). 289.5γ deduced from Eγ(to 40)-3.3 3. band BASED ON f_7/2 ORBITAL, α=-1/2. T_1/2(level): From DSAM in (¹⁸O,3nγ).
3447.31	13/2+	0.180 ps 21	E(level): band BASED ON d_3/2 ORBITAL, α=+1/2. T_1/2(level): From DSAM in (¹⁸O,3nγ).
3601.87	17/2-	0.90 ps 7	E(level): band BASED ON f_7/2 ORBITAL, α=+1/2. T_1/2(level): From DSAM in (¹⁸O,3nγ).
3922.45	15/2+	0.312 ps 21	E(level): band BASED ON d_3/2 ORBITAL, α=-1/2. T_1/2(level): From DSAM in (¹⁸O,3nγ).
4344.9	19/2-	0.104 ps 14	E(level): From (p,nγ). 289.5γ deduced from Eγ(to 40)-3.3 3. band BASED ON f_7/2 ORBITAL, α=-1/2. T_1/2(level): From DSAM in (¹⁸O,3nγ).
4723	(7/2)-		T=3/2 E(level): Isobaric analog states of ⁴⁵Sc g.s., 12.4?, and 938?.
E(level)	J^π(level)	T_1/2(level)	Comments
4810	3/2+,5/2+		T=3/2 E(level): Isobaric analog states of ⁴⁵Sc g.s., 12.4?, and 938?.
4855.2	(17/2+)	0.35 ps 5	E(level): (13/2⁺) INTRUDER band. T_1/2(level): From DSAM in (¹⁸O,3nγ).
5239.9	(17/2+)	0.07 ps 6	E(level): band BASED ON d_3/2 ORBITAL, α=+1/2. T_1/2(level): From DSAM in (¹⁸O,3nγ).
5640.9	19/2+	0.19 ps 6	E(level): band BASED ON d_3/2 ORBITAL, α=-1/2. T_1/2(level): From DSAM in (¹⁸O,3nγ).
5760	1/2+		T=3/2 E(level): Isobaric analog states of ⁴⁵Sc g.s., 12.4?, and 938?.
6163.0	23/2-	0.35 ps 4	E(level): From (p,nγ). 289.5γ deduced from Eγ(to 40)-3.3 3. band BASED ON f_7/2 ORBITAL, α=-1/2. From (¹⁸O,3nγ). Weakly excited or not observed in ⁴⁴Ca(p,π^-), ⁴⁵Sc(p,n). T_1/2(level): From DSAM in (¹⁸O,3nγ).
6459.9	(21/2+)		E(level): (13/2⁺) INTRUDER band. J^π(level): (13/2⁺) INTRUDER band.
6757.9	(21/2+)		E(level): band BASED ON d_3/2 ORBITAL, α=+1/2.
7143.4	27/2-	10.4 ps 14	E(level): From (p,nγ). 289.5γ deduced from Eγ(to 40)-3.3 3. band BASED ON f_7/2 ORBITAL, α=-1/2. From (¹⁸O,3nγ). Weakly excited or not observed in ⁴⁴Ca(p,π^-), ⁴⁵Sc(p,n). T_1/2(level): From DSAM in (¹⁸O,3nγ).
7342.0	(23/2+)		E(level): band BASED ON d_3/2 ORBITAL, α=-1/2.
8289.2	(25/2+)		E(level): (13/2⁺) INTRUDER band. J^π(level): (13/2⁺) INTRUDER band.
9643.5		< 0.07 ps	T_1/2(level): From DSAM in (¹⁸O,3nγ).
10153.5	(25/2-)	< 0.07 ps	E(level): π=- γ CASCADE. T_1/2(level): From DSAM in (¹⁸O,3nγ).
10795.3	(29/2+)		E(level): (13/2⁺) INTRUDER band. J^π(level): (13/2⁺) INTRUDER band.
12498.6	(29/2-)	< 0.07 ps	E(level): From (¹⁸O,3nγ). Weakly excited or not observed in ⁴⁴Ca(p,π^-), ⁴⁵Sc(p,n). π=- γ CASCADE. T_1/2(level): From DSAM in (¹⁸O,3nγ).
13030.4	(33/2+)		E(level): (13/2⁺) INTRUDER band. J^π(level): (13/2⁺) INTRUDER band.

E(level)	E(gamma)	Comments
39.39	40.15	E(γ): From (p,nγ). 289.5γ deduced from Eγ(to 40)-3.3 3. I(γ): From (p,nγ). 289.5γ deduced from Eγ(to 40)-3.3 3.
329.30	289.5	E(γ): From (p,nγ). 289.5γ deduced from Eγ(to 40)-3.3 3. I(γ): From (p,nγ). 289.5γ deduced from Eγ(to 40)-3.3 3. M(γ): d,E2 or d,Q from comparison to RUL. Δπ=yes from decay scheme
329.30	292.77	E(γ): From (p,nγ). 289.5γ deduced from Eγ(to 40)-3.3 3. I(γ): From (p,nγ). 289.5γ deduced from Eγ(to 40)-3.3 3. M(γ): from α(exp) in (HI,xnγ). from γ(Q) and α(exp) in (HI,xnγ)
743.88	414.36	I(γ): From (p,nγ). 289.5γ deduced from Eγ(to 40)-3.3 3. M(γ): from γ(θ) and nγ(θ) in (α,nγ) and α(exp) in (HI,xnγ)
	703.9	E(γ): From (p,nγ). 289.5γ deduced from Eγ(to 40)-3.3 3. I(γ): From (p,nγ). 289.5γ deduced from Eγ(to 40)-3.3 3. M(γ): d,E2 or d,Q from comparison to RUL. Δπ=yes from decay scheme
	707.47	E(γ): From (HI,xnγ) M(γ): D+Q or d(+Q) from γ(θ) or nγ(θ) in (α,nγ). Δπ=yes from decay scheme
	744	E(γ): From (p,nγ). 289.5γ deduced from Eγ(to 40)-3.3 3. I(γ): From (p,nγ). 289.5γ deduced from Eγ(to 40)-3.3 3. M(γ): d,E2 or d,Q from comparison to RUL. Δπ=yes from decay scheme. ΔJ=1 d+Q transition from DCO in (¹⁸O,3nγ)
1226.50	482.61	I(γ): Unweighted av of Iγ(483γ):Iγ(897γ):Iγ(1188γ):Iγ(1226γ)=13.6 5:15.1 2:2.0 1:0.81 3 from (²⁴Mg,2pnγ), 47 4:36.9 23:10 4:6.4 19 from (p,nγ), 40 2:42 2:8.5 10:9.5 10 from (α,nγ), and 86 11:100 9:11.9 21:10.6 21 M(γ): ΔJ=1 d+Q transition from DCO in (¹⁸O,3nγ). From γ(θ) and linear polarization in (α,nγ)
	897.27	I(γ): Unweighted av of Iγ(483γ):Iγ(897γ):Iγ(1188γ):Iγ(1226γ)=13.6 5:15.1 2:2.0 1:0.81 3 from (²⁴Mg,2pnγ), 47 4:36.9 23:10 4:6.4 19 from (p,nγ), 40 2:42 2:8.5 10:9.5 10 from (α,nγ), and 86 11:100 9:11.9 21:10.6 21 M(γ): From γ(θ) and linear polarization in (α,nγ)
	1188.03	E(γ): weighted av of 1185.8 2 from (²⁴Mg,2pnγ), 1188.61 20 from (HI,xnγ), 1187 1 from (p,nγ), and 1187.9 3 from (α,nγ). 1188.03 35 is the mean of 1188.13 35 (LWM) and 1187.92 26 (RT) with ΔE(γ) from RT I(γ): Unweighted av of Iγ(483γ):Iγ(897γ):Iγ(1188γ):Iγ(1226γ)=13.6 5:15.1 2:2.0 1:0.81 3 from (²⁴Mg,2pnγ), 47 4:36.9 23:10 4:6.4 19 from (p,nγ), 40 2:42 2:8.5 10:9.5 10 from (α,nγ), and 86 11:100 9:11.9 21:10.6 21 M(γ): D+Q or d(+Q) from γ(θ) or nγ(θ) in (α,nγ). Δπ=yes from decay scheme
	1225.94	I(γ): Unweighted av of Iγ(483γ):Iγ(897γ):Iγ(1188γ):Iγ(1226γ)=13.6 5:15.1 2:2.0 1:0.81 3 from (²⁴Mg,2pnγ), 47 4:36.9 23:10 4:6.4 19 from (p,nγ), 40 2:42 2:8.5 10:9.5 10 from (α,nγ), and 86 11:100 9:11.9 21:10.6 21 M(γ): D+Q or d(+Q) from γ(θ) or nγ(θ) in (α,nγ). Δπ=yes from decay scheme
1353.49	1314.0	E(γ): From (p,nγ). 289.5γ deduced from Eγ(to 40)-3.3 3.. Isobaric analog states of ⁴⁵Sc g.s., 12.4?, and 938? I(γ): From (p,nγ). 289.5γ deduced from Eγ(to 40)-3.3 3. M(γ): d,E2 from comparison to RUL. ΔJπ=2,no from decay scheme
1353.49	1353.6	I(γ): From (p,nγ). 289.5γ deduced from Eγ(to 40)-3.3 3. M(γ): From γ(θ) and linear polarization in (α,nγ)
1468.24	114	E(γ): From (¹⁸O,3nγ). Weakly excited or not observed in ⁴⁴Ca(p,π^-), ⁴⁵Sc(p,n) I(γ): From (¹⁸O,3nγ) M(γ): d from comparison to RUL. Δπ=no from level scheme
1468.24	1468.14	E(γ): From (HI,xnγ) I(γ): From (¹⁸O,3nγ)
1521.7	1484	E(γ): Multiply placed with undivided intensity. From (p,nγ). 289.5γ deduced from Eγ(to 40)-3.3 3. I(γ): Multiply placed with undivided intensity. From (p,nγ). 289.5γ deduced from Eγ(to 40)-3.3 3. M(γ): From comparison to RUL
	1484	E(γ): Multiply placed with undivided intensity. From (p,nγ). 289.5γ deduced from Eγ(to 40)-3.3 3. I(γ): Multiply placed with undivided intensity. From (p,nγ). 289.5γ deduced from Eγ(to 40)-3.3 3. M(γ): From comparison to RUL
	1521	E(γ): From (p,nγ). 289.5γ deduced from Eγ(to 40)-3.3 3. I(γ): From (p,nγ). 289.5γ deduced from Eγ(to 40)-3.3 3. M(γ): From comparison to RUL
1565.4	1236	M(γ): From comparison to RUL
1565.4	1528	M(γ): d,E2 or d,Q from comparison to RUL. Δπ=yes from decay scheme
1799.0	1761	E(γ): Multiply placed with undivided intensity. From (p,nγ). 289.5γ deduced from Eγ(to 40)-3.3 3. I(γ): Multiply placed with undivided intensity. From (p,nγ). 289.5γ deduced from Eγ(to 40)-3.3 3. M(γ): From comparison to RUL
1799.0	1761	E(γ): Multiply placed with undivided intensity. From (p,nγ). 289.5γ deduced from Eγ(to 40)-3.3 3. I(γ): Multiply placed with undivided intensity. From (p,nγ). 289.5γ deduced from Eγ(to 40)-3.3 3. M(γ): From comparison to RUL
1881.76	655.2	E(γ): From (HI,xnγ) I(γ): From (HI,xnγ) M(γ): ΔJ=1 d+Q transition from DCO in (¹⁸O,3nγ)
1881.76	1137.8	I(γ): From (HI,xnγ) M(γ): ΔJ=0 d or ΔJ=2 Q transition from DCO in (¹⁸O,3nγ)
1958.2	1920	M(γ): d,E2 or d,Q from comparison to RUL. Δπ=yes from decay scheme
E(level)	E(gamma)	Comments
2014.7	1976	E(γ): Multiply placed with undivided intensity. From (p,nγ). 289.5γ deduced from Eγ(to 40)-3.3 3. I(γ): Multiply placed with undivided intensity. From (p,nγ). 289.5γ deduced from Eγ(to 40)-3.3 3. M(γ): From comparison to RUL
	1976	E(γ): Multiply placed with undivided intensity. From (p,nγ). 289.5γ deduced from Eγ(to 40)-3.3 3. I(γ): Multiply placed with undivided intensity. From (p,nγ). 289.5γ deduced from Eγ(to 40)-3.3 3. M(γ): From comparison to RUL
	2016	E(γ): From (p,nγ). 289.5γ deduced from Eγ(to 40)-3.3 3. I(γ): From (p,nγ). 289.5γ deduced from Eγ(to 40)-3.3 3. M(γ): From comparison to RUL
2258.2	301	E(γ): Isobaric analog states of ⁴⁵Sc g.s., 12.4?, and 938? M(γ): From comparison to RUL. d,E2 from comparison to RUL. ΔJπ=2,no from decay scheme
2258.2	691.0	E(γ): Isobaric analog states of ⁴⁵Sc g.s., 12.4?, and 938? M(γ): d,E2 from comparison to RUL. ΔJπ=2,no from decay scheme
2432.1	2394	E(γ): Multiply placed with undivided intensity. From (p,nγ). 289.5γ deduced from Eγ(to 40)-3.3 3. I(γ): Multiply placed with undivided intensity. From (p,nγ). 289.5γ deduced from Eγ(to 40)-3.3 3.
	2394	E(γ): Multiply placed with undivided intensity. From (p,nγ). 289.5γ deduced from Eγ(to 40)-3.3 3. I(γ): Multiply placed with undivided intensity. From (p,nγ). 289.5γ deduced from Eγ(to 40)-3.3 3.
	2432	E(γ): From (p,nγ). 289.5γ deduced from Eγ(to 40)-3.3 3. I(γ): From (p,nγ). 289.5γ deduced from Eγ(to 40)-3.3 3.
2474.58	592.5	E(γ): From (²⁴Mg,2pnγ) I(γ): From (²⁴Mg,2pnγ). Branching ratios in (¹⁸O,3nγ) and (α,nγ) are discrepant M(γ): ΔJ=1 d+Q transition from DCO in (¹⁸O,3nγ)
2474.58	1248.2	E(γ): From (²⁴Mg,2pnγ) I(γ): From (²⁴Mg,2pnγ). Branching ratios in (¹⁸O,3nγ) and (α,nγ) are discrepant M(γ): ΔJ=0 d or ΔJ=2 Q transition from DCO in (¹⁸O,3nγ)
2656.66	1188.61	E(γ): From (HI,xnγ) I(γ): From (²⁴Mg,2pnγ). Branching ratios in (¹⁸O,3nγ) and (α,nγ) are discrepant M(γ): ΔJ=1 d transition from DCO in (¹⁸O,3nγ). D+Q from γ(θ) in (HI,xnγ). Ne E1⁺M2 from δ and comparison to RUL.
2656.66	1303.5	E(γ): Isobaric analog states of ⁴⁵Sc g.s., 12.4?, and 938?. From (²⁴Mg,2pnγ) I(γ): From (²⁴Mg,2pnγ) M(γ): d,E2 from comparison to RUL. ΔJπ=2,no from decay scheme
2911.6	954	E(γ): Isobaric analog states of ⁴⁵Sc g.s., 12.4?, and 938? M(γ): d,E2 from comparison to RUL. ΔJπ=2,no from decay scheme
2932.9	458	E(γ): From (¹⁸O,3nγ). Weakly excited or not observed in ⁴⁴Ca(p,π^-), ⁴⁵Sc(p,n)
3015.37	358.97	E(γ): From (HI,xnγ) I(γ): From (HI,xnγ) M(γ): ΔJ=1 d transition from DCO in (¹⁸O,3nγ). D+Q from γ(θ) in (HI,xnγ). Ne E1⁺M2 from δ and comparison to RUL.
3015.37	1546.90	E(γ): From (HI,xnγ). Isobaric analog states of ⁴⁵Sc g.s., 12.4?, and 938? I(γ): From (HI,xnγ) M(γ): d,E2 from comparison to RUL. ΔJπ=2,no from decay scheme. ΔJ=0 d or ΔJ=2 Q transition from DCO in (¹⁸O,3nγ)
3447.31	972.6	E(γ): From (²⁴Mg,2pnγ) I(γ): From (²⁴Mg,2pnγ). Branching ratios in (¹⁸O,3nγ) are discrepant
3447.31	1565.7	E(γ): Isobaric analog states of ⁴⁵Sc g.s., 12.4?, and 938?. From (²⁴Mg,2pnγ) I(γ): From (²⁴Mg,2pnγ). Branching ratios in (¹⁸O,3nγ) are discrepant M(γ): d,E2 from comparison to RUL. ΔJπ=2,no from decay scheme. ΔJ=0 d or ΔJ=2 Q transition from DCO in (¹⁸O,3nγ)
3601.87	586.41	E(γ): From (HI,xnγ) I(γ): From (²⁴Mg,2pnγ). Branching ratios in (¹⁸O,3nγ) are discrepant M(γ): ΔJ=1 d transition from DCO in (¹⁸O,3nγ). D+Q from γ(θ) in (HI,xnγ). Ne E1⁺M2 from δ and comparison to RUL.
3601.87	945.1	E(γ): From (²⁴Mg,2pnγ) I(γ): From (²⁴Mg,2pnγ) M(γ): ΔJ=0 d or ΔJ=2 Q transition from DCO in (¹⁸O,3nγ). Q from DCO in (¹⁸O,3nγ). Ne M2 from comparison to RUL
3922.45	475.2	E(γ): From (²⁴Mg,2pnγ) I(γ): From (²⁴Mg,2pnγ). Branching ratios in (¹⁸O,3nγ) are discrepant M(γ): d from comparison to RUL. Δπ=no from level scheme
3922.45	1447.8	E(γ): Isobaric analog states of ⁴⁵Sc g.s., 12.4?, and 938?. From (²⁴Mg,2pnγ) I(γ): From (²⁴Mg,2pnγ). Branching ratios in (¹⁸O,3nγ) are discrepant M(γ): From comparison to RUL. d,E2 from comparison to RUL. ΔJπ=2,no from decay scheme. ΔJ=0 d or ΔJ=2 Q transition from DCO in (¹⁸O,3nγ)
4344.9	742.8	E(γ): From (²⁴Mg,2pnγ) I(γ): From (²⁴Mg,2pnγ) M(γ): From comparison to RUL. ΔJ=1 d transition from DCO in (¹⁸O,3nγ)
4344.9	1330.1	E(γ): Isobaric analog states of ⁴⁵Sc g.s., 12.4?, and 938?. From (²⁴Mg,2pnγ) I(γ): From (²⁴Mg,2pnγ) M(γ): From comparison to RUL. d,E2 from comparison to RUL. ΔJπ=2,no from decay scheme
4855.2	933	E(γ): From (¹⁸O,3nγ). Weakly excited or not observed in ⁴⁴Ca(p,π^-), ⁴⁵Sc(p,n) I(γ): From (¹⁸O,3nγ)
4855.2	1922	E(γ): From (¹⁸O,3nγ). Weakly excited or not observed in ⁴⁴Ca(p,π^-), ⁴⁵Sc(p,n) I(γ): From (¹⁸O,3nγ)
E(level)	E(gamma)	Comments
5239.9	1317.5	E(γ): From (²⁴Mg,2pnγ) I(γ): From (²⁴Mg,2pnγ)
5239.9	1792.5	E(γ): From (²⁴Mg,2pnγ) I(γ): From (²⁴Mg,2pnγ)
5640.9	401.3	E(γ): From (²⁴Mg,2pnγ) I(γ): From (²⁴Mg,2pnγ). Branching ratios in (¹⁸O,3nγ) are discrepant M(γ): From comparison to RUL. d from comparison to RUL. Δπ=no from level scheme
5640.9	1717.7	E(γ): Isobaric analog states of ⁴⁵Sc g.s., 12.4?, and 938?. From (²⁴Mg,2pnγ) I(γ): From (²⁴Mg,2pnγ). Branching ratios in (¹⁸O,3nγ) are discrepant M(γ): From comparison to RUL. d,E2 from comparison to RUL. ΔJπ=2,no from decay scheme. ΔJ=0 d or ΔJ=2 Q transition from DCO in (¹⁸O,3nγ)
6006.7	2084	E(γ): From (¹⁸O,3nγ). Weakly excited or not observed in ⁴⁴Ca(p,π^-), ⁴⁵Sc(p,n)
6163.0	1818.0	E(γ): From (²⁴Mg,2pnγ). From comparison of the Iγ’s of the sequentially emitted γ’s, 1818 and 743 keV, 1998Be29 in (¹⁸O,3nγ) concluded that the previous ordering by 1978Fo09 in (HI,xnγ) should Be inverted. This conclusion is supported by the existence of the 1330γ crossover. I(γ): From (¹⁸O,3nγ) M(γ): ΔJ=0 d or ΔJ=2 Q transition from DCO in (¹⁸O,3nγ). Q from DCO in (¹⁸O,3nγ). Ne M2 from comparison to RUL
6459.9	453	E(γ): From (¹⁸O,3nγ). Weakly excited or not observed in ⁴⁴Ca(p,π^-), ⁴⁵Sc(p,n)
6459.9	819	E(γ): From (¹⁸O,3nγ). Weakly excited or not observed in ⁴⁴Ca(p,π^-), ⁴⁵Sc(p,n)
6757.9	1117	E(γ): From (¹⁸O,3nγ). Weakly excited or not observed in ⁴⁴Ca(p,π^-), ⁴⁵Sc(p,n)
6757.9	1518	E(γ): From (¹⁸O,3nγ). Weakly excited or not observed in ⁴⁴Ca(p,π^-), ⁴⁵Sc(p,n)
7143.4	980.45	E(γ): From (HI,xnγ) I(γ): From (¹⁸O,3nγ) M(γ): ΔJ=0 d or ΔJ=2 Q transition from DCO in (¹⁸O,3nγ). Q from DCO in (¹⁸O,3nγ). Ne M2 from comparison to RUL
7342.0	584	E(γ): From (¹⁸O,3nγ). Weakly excited or not observed in ⁴⁴Ca(p,π^-), ⁴⁵Sc(p,n)
7342.0	1701	E(γ): From (¹⁸O,3nγ). Weakly excited or not observed in ⁴⁴Ca(p,π^-), ⁴⁵Sc(p,n)
7830.7	1073	E(γ): From (¹⁸O,3nγ). Weakly excited or not observed in ⁴⁴Ca(p,π^-), ⁴⁵Sc(p,n)
7830.7	2190	E(γ): From (¹⁸O,3nγ). Weakly excited or not observed in ⁴⁴Ca(p,π^-), ⁴⁵Sc(p,n)
8289.2	459	E(γ): From (¹⁸O,3nγ). Weakly excited or not observed in ⁴⁴Ca(p,π^-), ⁴⁵Sc(p,n)
	947	E(γ): From (¹⁸O,3nγ). Weakly excited or not observed in ⁴⁴Ca(p,π^-), ⁴⁵Sc(p,n)
	1829	E(γ): From (¹⁸O,3nγ). Weakly excited or not observed in ⁴⁴Ca(p,π^-), ⁴⁵Sc(p,n)
9643.5	2500	E(γ): From (¹⁸O,3nγ). Weakly excited or not observed in ⁴⁴Ca(p,π^-), ⁴⁵Sc(p,n) I(γ): From (¹⁸O,3nγ) M(γ): From comparison to RUL
10153.5	3010	E(γ): From (¹⁸O,3nγ). Weakly excited or not observed in ⁴⁴Ca(p,π^-), ⁴⁵Sc(p,n) I(γ): From (¹⁸O,3nγ) M(γ): ΔJ=1 d transition from DCO in (¹⁸O,3nγ)
10795.3	2506	E(γ): From (¹⁸O,3nγ). Weakly excited or not observed in ⁴⁴Ca(p,π^-), ⁴⁵Sc(p,n)
12498.6	2345	E(γ): From (¹⁸O,3nγ). Weakly excited or not observed in ⁴⁴Ca(p,π^-), ⁴⁵Sc(p,n) M(γ): From comparison to RUL
13030.4	2235	E(γ): From (¹⁸O,3nγ). Weakly excited or not observed in ⁴⁴Ca(p,π^-), ⁴⁵Sc(p,n)