Table 1
Adopted Parameter Values (in cm−1 ) (Deduced from the Least-Squares Fit) for K vi , Ca vii , Sc viii , and Ti ix
Parameter K vi Ca vii Sc viii Ti ix 3s 2 3p 2 E AV 28 952 ± 2 32 041 ± 4 35 271 ± 6 38 721 ± 15 F 2 (3p , 3p )76 452 ± 8 84 951 ± 16 93 352 ± 27 101 705 ± 74 α −139 ± 1 −125 ± 2 −113 ±3 −103 ± 7 ζ 3 p 1980 ± 3 2743 ± 6 3689 ± 10 4839 ± 26 3s 3p 3 E AV 184 136 ± 17 207 285 ± 29 230 769 ± 20 254 681 ± 38 F 2 (3p , 3p )72 898 ± 317 81 741 ± 446 90 181 ± 280 98 744 ± 220 α −412 ± 16 −391 ± 22 −387 ± 14 −368° ζ 3 p 2229 ± 130 2903 ± 182 3871 ± 103 4970 ± 97 G1 (3s , 3p ) 100 504 ± 128 111 064 ± 180 121 281 ± 113 131 477 ± 73 3s 2 3p 3d E AV 256 675 ± 34 291 320 ± 53 325 593 ± 35 359 713 ± 34 ζ 3 p 1979 ± 32 2761 ± 57 3659 ± 40 4820a ζ 3 d 67 ± 11 103 ± 19 156 ± 30 236a F 2 (3p , 3d )71 381 ± 50 80 978 ± 87 90 126 ± 63 99 306 ± 111 G 1 (3p , 3d )84 011 ±81 94 273 ± 126 103 866 ± 84 113 168 ± 110 G 3 (3p , 3d )54 404 ± 54 61 477 ± 94 68 296 ± 68 74 419 ± 115 3s 2 3p 4s E AV 390 472 ± 9 494 082 ± 15 608 745 ± 11 734 608 ± 21 ζ 3 p 2043 ± 14 2807 ± 24 3757 ± 17 4951 ± 31 G 1 (3p , 4s )6598 ± 34 7550 ± 61 8537 ± 44 9580 ± 87 R 1 (3p , 3p ; 3s , 3d )93 686 ± 61 103 671 ± 95 113 224 ± 64 122 440 ± 80
a See the text.
Table 2
Calculated and Observed Energy Levels for the K vi 3s 2 3p 2 , 3s 2 3p 3 , 3s 2 3p 3d , and 3s 2 3p 4s Configurations (in cm−1 )
Configuration Level Obs. Levela Calc. Level Δ (cm−1 )b Percentage Composition (LS Coupling)c 3s 2 3p 2 3 P 0 0 0 0 95 1 S 0 43 359 43 355 4 94 3 P i 1133 1126 7 96 3 P 2 2927 2920 7 95 1 D 2 18 978 18 973 5 95 3s 3p 3
P
3
0
∘ 163 421 163 428 −7 86 + 113 P (s 2 pd )
D
3
1
∘ 140 741 140 740 1 85 + 12 3 D (s 2 pd )
P
3
1
∘ 163 435 163 443 −8 86 + 12 3 P (s 2 pd )
S
3
1
∘ 218 317 218 310 7 85 + 9 1 P (sp 3 )
P
1
1
∘ 223 840 223 834 6 76 + 111 P (s 2 pd ) + 93 S (sp 3 )
S
5
2
∘ 103 943 99
D
3
2
∘ 140 795 140 778 17 85 + 12 3 D (s 2 pd )
P
3
2
∘ 163 438 163 414 24 85 + 12 3 P (s 2 pd )
D
1
2
∘ 178 873 178 870 3 52 + 43 1 D (s 2 pd )
D
3
3
∘ 140 996 141 005 −9 86 + 12 3 D (s 2 pd ) 3s 2 3p 3d
P
3
0
∘ 254 037 254 023 14 84 + 113 P(sp 3 )
D
3
1
∘ 260 069 260 067 2 82 + 12 3 D (sp 3 )
P
3
1
∘ 253 503 253 513 −10 82 + 113 P (sp 3 )
P
1
1
∘ 293 723 293 724 −1 84 + 10 1 P (sp 3 )
F
3
2
∘ 220 226 96
D
3
2
∘ 260 503 260 503 0 82 + 12 3 D (sp 3 )
P
3
2
∘ 252 327 252 324 3 72 + 10 3 P (sp 3 )
D
1
2
∘ 255 486 46 + 37 1 D (sp 3 ) + 10 3 P (s 2 pd )
F
3
3
∘ 221 236 96
D
3
3
∘ 260 786 260 786 0 84 + 12 3 D (sp 3 )
F
1
3
∘ 285 687 285 684 3 96
F
3
4
∘ 222 638 96 3s 2 3p 4s
P
3
0
∘ 387 423 387 429 −6 100
P
3
1
∘ 388 116 388 101 15 94
P
1
1
∘ 394 420 394 416 4 94
P
3
2
∘ 390 496 390 491 5 100
a From Ref.
31 .
b Δ = Obs.–Calc.
c Percentage contributions are listed when over 8%.
Table 3
Calculated and Observed Energy Levels for the Ca vii 3s 2 3p 2 , 3s 3p 3 , 3s 2 3p 3d , and 3s 2 3p 4s Configurations (in cm−1 )
Configuration Level Obs. Levela Calc. Level Δ (cm−1 )b Percentage Composition (LS Coupling)c 3s 2 3p 2 3 P 0 0 0 0 96 1 S 0 48 981 48 982 −1 94 3 P 1 1625 1621 4 96 3 P 2 4071 4076 −5 95 1 D 2 21 864 21 865 −1 95 3s 3p 3
P
3
0
∘ 185 357 185 381 −24 87 + 113 P (s 2 pd )
D
3
1
∘ 160 158 160 173 −15 86 + 12 3 D (s 2 pd )
P
3
1
∘ 185 393 185 415 −22 87 + 113 P (s 2 pd )
S
3
1
∘ 245 241 245 252 −11 85 + 91 P (sp 3 )
P
1
1
∘ 252 490 252 506 −16 77 + 10 1 P (s 2 pd ) + 9 3 S (sp 3 )
S
5
2
∘ 118 186 99
D
3
2
∘ 160 220 160 219 1 86 + 113 D (s 2 pd )
P
3
2
∘ 185 412 185 394 18 85 + 11 3 P (s 2 pd )
D
1
2
∘ 203 616 203 637 −21 54 + 421 D (s 2 pd )
D
3
3
∘ 160 529 160 553 −24 87 + 113 D (s 2 pd ) 3s 2 3p 3d
P
3
0
∘ 289 004 288 983 21 85 + 113 P (S p 3 )
D
3
1
∘ 295 138 295 159 −21 82 + 10 3 D (sp 3 )
P
3
1
∘ 288 160 288 216 −56 82 + 113 P (sp 3 )
P
1
1
∘ 333 501 333 525 −24 85 + 10 1 P (sp 3 )
F
3
2
∘ 250 795 97
D
3
2
∘ 295 772 295 797 −25 82 + 11 3 D (sp 3 )
P
3
2
∘ 286 224 286 236 −12 60 + 11 1 D (sp 3 ) + 14 1 D (sp 2 d )
D
1
2
∘ 289 406 40 + 30 1 D (sp 3 ) + 22 3 P (s 2 pd )
F
3
3
∘ 252 212 97
D
3
3
∘ 296 132 296 152 −20 84 + 113 D (sp 3 )
F
1
3
∘ 324 885 324 901 −16 96
F
3
4
∘ 254 195 97 3s 2 3p 4s
P
3
0
∘ 490 059 490 070 −11 100
P
3
1
∘ 490 919 490 928 −9 93
P
1
1
∘ 498 683 498 695 −12 93
P
3
2
∘ 494 262 494 278 −16 100
a From Ref.
32 .
b Δ = Obs.–Calc.
c Percentage contributions are listed when over 8%.
Table 4
Calculated and Observed Energy Levels for the Sc viii 3s 2 3p 2 , 3s 3p 3 , 3s 2 3p 3d , and 3s 2 3p 4s Configurations (in cm−1 )
Configuration Level Obs. Levela Calc. Level Δ (cm−1 )b Percentage Composition (LS Coupling)c 3s 2 3p 2 3 P 0 0 0 0 95 1 S 0 54 864 54 864 0 94 3 P 1 2272 2262 10 96 3 P 2 5508 5499 9 95 25 027 25 028 −1 95 3s 3p 3
P
3
0
∘ 207 691 207 699 −8 88 + 10 3 P (s 2 pd )
D
3
1
∘ 179 962 179 960 2 86 + 113 D (s 2 pd )
P
3
1
∘ 207 761 207 772 −11 87 + 10 3 P (s 2 pd )
S
3
1
∘ 272 417 272 410 7 84 + 10 1 P (sp 3 )
P
1
1
∘ 281 522 281 520 2 76 + 113 S (sp 3 ) + 9 1 P (s 2 pd )
S
5
2
∘ 133 135 99
D
3
2
∘ 180 033 180 012 21 86 + 113 D (s 2 pd )
P
3
2
∘ 207 814 207 783 31 85 + 10 3 P (s 2 pd )
D
1
2
∘ 228 618 228 631 −13 55 + 40 1 D (s 2 pd )
D
3
3
∘ 180 504 180 517 −13 87 + 11 3 D (s 2 pd ) 3s 2 3p 3d
P
3
0
∘ 323 673 323 667 6 86 + 10 3 P (sp 3 )
D
3
1
∘ 329 862 329 866 −4 81 + 10 3 P (sp 3 )
P
3
1
∘ 322 541 322 566 −25 80 + 11 3 P (sp 3 )
P
1
1
∘ 372 790 372 808 −18 86 + 9 1 P (sp 3 )
F
3
2
∘ 281126 97
D
3
2
∘ 330 716 330 748 −32 81 + 10 3 D (sp 3 )
P
3
2
∘ 319 569 319 582 −13 49 + 22 1 D (s 2 pd ) + 16 1 D (sp 3 )
D
1
2
∘ 323 420 34 + 32 3 P (s 2 pd ) + 24 1 D (sp 3 )
F
3
3
∘ 283 024 97
D
3
3
∘ 331153 331160 −7 85 + 11 3 D (sp 3 )
F
1
3
∘ 363 462 363 481 −19 96
F
3
4
∘ 285 695 97 3s 2 3p 4s
P
3
0
∘ 603 533 603 539 −6 100
P
3
1
∘ 604 609 604 604 5 91 + 9 1 P (s 2 ps )
P
1
1
∘ 614 090 614 089 1 91 + 9 3 P (s 2 ps )
P
3
2
∘ 609 174 609 172 2 100
a From Ref.
33 .
b Δ = Obs.–Calc.
c Percentage contributions are listed when over 8%.
Table 5
Calculated and Observed Energy Levels for the Ti ix 3s 2 3p 2 , 3s 3p 3 , 3s 2 3p 3d , and 3s 2 3p 4s Configurations (in cm−1 )
Configuration Level Obs. Levela Calc. Level Δ (cm−1 )b Percentage Composition (LS Coupling)c 3s 2 3p 2 3 P 0 0 0 0 95 1 S 0 61100 61 090 10 94 3 P 1 3119 3086 33 96 3 P 2 7282 7245 37 94 1 D 2 28 555 28 532 23 94 3s 3p 3
P
3
0
∘ 230 524 230 503 21 88 + 10 3 P (s 2 pd )
D
3
1
∘ 200 209 200 197 12 86 + 11 3 D (s 2 pd )
P
3
1
∘ 230 645 230 629 16 87 + 10 3 P (s 2 pd )
S
3
1
∘ 299 944 299 896 48 83 + 11 1 P (sp 3 )
P
1
1
∘ 311 087 311 060 27 76 + 12 3 S (sp 3 ) + 9 1 P (s2 pd )
S
5
2
∘ 148 418 99
D
3
2
∘ 200 293 200 257 36 86 + 113 D (s 2 pd )
P
3
2
∘ 230 754 230 684 70 84 + 10 3 P (s 2 pd )
D
1
2
∘ 254 028 253 997 31 56 + 39 1 D (s 2 pd )
D
3
3
∘ 201 000 200 993 17 87 + 11 3 D (s 2 pd ) 3s 2 3p 3d
P
3
0
∘ 358 427 358 476 −49 86 + 10 3 P (sp 3 )
D
3
1
∘ 364 414 364 416 −2 77 + 10 3 D (sp 3 )
P
3
1
∘ 356 962 356 869 93 78 + 9 3 P (sp 3 )
P
1
1
∘ 411 820 411 806 14 86 + 9 1 P (sp 3 )
F
3
2
∘ 311197 97
D
3
2
∘ 365 611 365 611 0 79 + 10 3 D (sp 3 )
P
3
2
∘ 352 632 352 682 −50 42 + 26 1 D (s 2 pd ) + 19 1 D (sp 3 )
D
1
2
∘ 357 614 30 + 37 3 P (s 2 pd ) + 20 1 D (sp 3 )
F
3
3
∘ 313 723 97
D
3
3
∘ 366 074 366 056 18 85 + 10 3 D (sp 3 )
F
1
3
∘ 401 771 401 802 −31 96
F
3
4
∘ 317 310 97 3s 2 3p 4s
P
3
0
∘ 727 806 727 808 −2 99
P
3
1
∘ 729 111 729 112 −1 89 + 10 1 P (s 2 ps )
P
1
1
∘ 740 648 740 649 −1 87 +10 3 P (s 2 ps )
P
3
2
∘ 735 208 735 206 2 99
a From Ref.
34 .
b Δ = Obs.–Calc.
c Percentage contributions are listed when over 8%.
Table 6
Calculated and Observed Wavelengths (in angstroms) for 3s 2 3p 3p 2 –3s 3p 3 , 3s 2 3p 2 –3s 2 3p 3d , and 3s 2 3p 2 –3s 2 3p 4s Transitions of K vi with Calculated Weighted Oscillator Strengths (log gf ) and Transition Probabilities (gA )
Transition Observed Wavelengtha Calculated Wavelengthb Calc.–Obs. (10−2 Å) log gf b gA (sec−1 )b 3s 2 3p 2 –3s 3p 3
P
3
0
-
D
3
1
∘ 710.526 SSO 710.53 0 −1.30 6.621(8)
P
3
0
-
P
3
1
∘ 611.864 SSO 611.83 −3 −1.21 1.100(9)
P
3
0
-
S
3
1
∘ 458.045 SSO 458.06 1 −0.58 8.432(9)
P
3
0
-
P
1
1
∘ 446.76 −1.68 7.045(8)
S
1
0
-
D
3
1
∘ 1026.85 −4.98c 6.705(4)
S
1
0
-
P
3
1
∘ 832.72 −3.68 2.002(6)
S
1
0
-
S
3
1
∘ 571.564 SSO 571.58 2 −1.87 2.772(8)
S
1
0
-
P
1
1
∘ 544.072 SSOd 554.08 1 −0.74 3.918(9)
P
3
1
-
P
3
0
∘ 616.189 SSO 616.14 −5 −1.20 1.109(9)
P
3
1
-
D
3
1
∘ 716.289 SSO 716.26 −3 −1.56 3.586(8)
P
3
1
-
P
3
1
∘ 616.122 SSOe 616.08 −4 −1.23 1.039(9)
P
3
1
-
S
3
1
∘ 460.440 SSO 460.44 0 −0.12 2.395(10)
P
3
1
-
P
1
1
∘ 449.021 SSO 449.02 0 −1.05 2.958(9)
P
3
1
-
S
5
2
∘ 972.60 −3.96 7.667(5)
P
3
1
-
D
3
2
∘ 716.016 SSO 716.07 5 −0.95 1.448(9)
P
3
1
-
P
3
2
∘ 616.122 SSOe 616.19 7 −1.20 1.119(9)
P
3
1
-
D
1
2
∘ 562.61 −3.09 1.727(7)
P
3
2
-
D
3
1
∘ 725.59 −2.97 1.370(7)
P
3
2
-
P
3
1
∘ 623.012 SSOf 622.96 −5 −1.18 1.145(9)
P
3
2
-
S
3
1
∘ 464.275 SSO 464.27 −1 0.12 4.085(10)
P
3
2
-
P
1
1
∘ 452.667 SSO 452.67 0 −1.13 2.435(9)
P
3
2
-
S
5
2
∘ 989.87 −3.56 1.876(6)
P
3
2
-
D
3
2
∘ 725.328 SSO 725.39 6 −1.70 2.508(8)
P
3
2
-
P
3
2
∘ 623.012 SSOf 623.08 7 −0.62 4.172(9)
P
3
2
-
D
1
2
∘ 568.35 −3.56c 5.714(6)
P
3
2
-
D
3
3
∘ 724.278 SSO 724.19 −9 −0.74 2.291(9)
D
1
2
-
D
3
1
∘ 821.24 −3.51 3.023(6)
D
1
2
-
P
3
1
∘ 692.18 −3.36 6.143(6)
D
1
2
-
S
3
1
∘ 501.657 SSO 501.66 0 −1.16 1.835(9)
D
1
2
-
P
1
1
∘ 488.132 SSO 488.14 1 0.09 3.451(10)
D
1
2
-
S
5
2
∘ 1176.88 −6.21 2.942(3)
D
1
2
-
D
3
2
∘ 820.99 −3.78 1.659(6)
D
1
2
-
P
3
2
∘ 692.32 −3.20c 8.859(6)
D
1
2
-
D
1
2
∘ 625.410 SSO 625.40 −1 −0.35 7.670(9)
D
1
2
-
D
3
3
∘ 819.46 −2.89 1.281(7) 3s 2 3p 2 –3s 2 3p 3d
P
3
0
-
D
3
1
∘ 384.514 ES 384.52 1 −0.01 4.423(10)
P
3
0
-
P
3
1
∘ 394.480 ES 394.46 −2 −0.16 2.990(10)
P
3
0
-
P
1
1
∘ 340.46 −2.96 6.377(7)
S
1
0
-
P
3
1
∘ 475.83 −3.48 9.719(6)
S
1
0
-
D
3
1
∘ 461.44 −3.64 7.241(6)
S
1
0
-
P
3
1
∘ 399.419 ES 399.41 −1 0.27 7.773(10)
P
3
1
-
P
3
0
∘ 395.407 ES 395.42 1 −0.31 2.084(10)
P
3
1
-
D
3
1
∘ 386.193 ESe 386.19 0 0.02 4.679(10)
P
3
1
-
P
3
1
∘ 396.242 ES 396.22 −2 −0.68 8.971(9)
P
3
1
-
P
1
1
∘ 341.77 −3.36 2.468(7)
P
3
1
-
F
3
2
∘ 456.41 −3.14 2.326(7)
P
3
1
-
D
3
2
∘ 385.547 ESe 385.54 −1 0.36 1.018(11)
P
3
1
-
P
3
2
∘ 398.104 ES 398.09 −1 −0.04 3.857(10)
P
3
1
-
D
1
2
∘ 393.14 −0.97 4.624(9)
P
3
2
-
D
3
1
∘ 388.88 −0.91 5.408(9)
P
3
2
-
P
3
1
∘ 399.075 ES 399.05 −3 −0.25 2.352(10)
P
3
2
-
P
1
1
∘ 343.88 −4.12c 4.281(6)
P
3
2
-
F
3
2
∘ 460.18 −3.44 1.146(7)
P
3
2
-
D
3
2
∘ 388.241 ES 388.23 −1 0.11 5.739(10)
P
3
2
-
P
3
2
∘ 400.963 ES 400.96 0 0.13 5.617(10)
P
3
2
-
D
1
2
∘ 395.94 −1.09 3.450(9)
P
3
2
-
F
3
3
∘ 458.05 −2.65 7.168(7)
P
3
2
-
D
3
3
∘ 387.809 ES 387.80 −1 0.70 2.213(11)
P
3
2
-
F
1
3
∘ 353.65 −1.79 8.651(8)
D
1
2
-
D
3
1
∘ 414.78 −2.82 5.851(7)
D
1
2
-
P
3
1
∘ 426.37 −2.31 1.793(8)
D
1
2
-
P
1
1
∘ 363.97 −4.70c 1.008(6)
D
1
2
-
F
3
2
∘ 496.89 −2.69 5.566(7)
D
1
2
-
D
3
2
∘ 414.03 −2.47 1.330(8)
D
1
2
-
P
3
2
∘ 428.538 ES 428.54 0 −0.51 1.115(10)
D
1
2
-
D
1
2
∘ 422.81 0.51 1.193(11)
D
1
2
-
F
3
3
∘ 494.40 −3.12 2.053(7)
D
1
2
-
D
3
3
∘ 413.54 −1.84 5.663(8)
D
1
2
-
F
1
3
∘ 374.940 ES 374.94 0 0.70 2.366(11) 3s 2 3p 2 –3s 2 3p 4s
P
3
0
-
P
3
1
∘ 257.657 E 257.67 1 −0.85 1.435(10)
P
3
0
-
P
1
1
∘ 253.54 −2.34 4.760(8)
S
1
0
-
P
3
1
∘ 290.07 −2.45 2.828(8)
S
1
0
-
P
1
1
∘ 284.860 E 284.85 −1 −0.91 1.001(10)
P
3
1
-
P
3
0
∘ 258.873 E 258.86 −1 −0.84 1.455(10)
P
3
1
-
P
3
1
∘ 258.411 E 258.42 1 −0.98 1.037(10)
P
3
1
-
P
1
1
∘ 254.27 −2.20 6.462(8)
P
3
1
-
P
3
2
∘ 256.831 E 256.83 0 −0.73 1.875(10)
P
3
2
-
P
3
1
∘ 259.609 E 259.62 1 −0.73 1.834(10)
P
3
2
-
P
1
1
∘ 255.43 −3.07 8.728(7)
P
3
2
-
P
3
2
∘ 258.018 E 258.02 0 −0.26 5.486(10)
D
1
2
-
P
3
1
∘ 270.91 −1.57 2.421(9)
D
1
2
-
P
1
1
∘ 266.344 E 266.35 1 −0.16 6.527(10)
D
1
2
-
P
3
2
∘ 269.17 −2.44 3.370(8)
a References to measurements (latest measurements only are quoted): E, Ref.
8 ; ES, Ref.
17 ; SSO, Ref.
18 .
b This work;
g is the statistical weight of the lower (
gf ) or of the upper (
gA ) level of the transition;
a (
b ) is written for
a × 10
b .
c Inverse cancellation factors > 100 (See Ref.
39 ).
d Calculated value.
e,f Blends.
Table 7
Calculated and Observed Wavelengths (in angstroms) for 3s 2 3p 2 –3s 2p 2 , 3s 2 3p 2 –3s 2 3p 3d , and 3s 2 3p 2 –3s 2 3p 4s Transitions of Ca vii with Calculated Weighted Oscillator Strengths (log gf ) and Transition Probabilities (gA )
Transition Observed Wavelengtha Calculated Wavelengthb Calc.–Obs. (10−2 Å) log gf b gA (sec−1 )b 3s 2 3p 2 –3s 3p 3
P
3
0
-
D
3
1
∘ 624.385 SSO 624.33 −6 −1.26 9.455(8)
P
3
0
-
P
3
1
∘ 539.396 SSO 539.33 −7 −1.20 1.449(9)
P
3
0
-
S
3
1
∘ 407.764 SSO 407.75 −1 −0.60 1.009(10)
P
3
0
-
P
1
1
∘ 396.049 SSO 396.03 −2 −1.74 7.675(8)
S
1
0
-
D
3
1
∘ 899.35 −4.57c 2.240(6)
S
1
0
-
P
3
1
∘ 732.96 −3.49 3.999(6)
S
1
0
-
S
3
1
∘ 509.526 SSO 509.50 −3 −1.88 3.367(8)
S
1
0
-
P
1
1
∘ 491.381 SSO 491.34 −4 −0.72 5.307(9)
P
3
1
-
P
3
0
∘ 544.272 SSO 544.18 −9 −1.18 1.475(9)
P
3
1
-
D
3
1
∘ 630.785 SSO 630.70 −9 −1.54 4.852(8)
P
3
1
-
P
3
1
∘ 544.164 SSO 544.08 −8 −1.20 1.435(9)
P
3
1
-
S
3
1
∘ 410.481 SSO 410.45 −3 −0.14 2.841(10)
P
3
1
-
P
1
1
∘ 398.623 SSO 398.59 −3 −1.08 3.517(9)
P
3
1
-
S
5
2
∘ 857.88 −3.83 1.333(6)
P
3
1
-
D
3
2
∘ 630.537 SSO 630.52 −2 −0.91 2.049(9)
P
3
1
-
P
3
2
∘ 544.107 SSO 544.14 3 −1.20 1.412(9)
P
3
1
-
D
1
2
∘ 495.01 −2.97 2.936(7)
P
3
2
-
D
3
1
∘ 640.679 SSO 640.60 −8 −2.97 1.743(7)
P
3
2
-
P
3
1
∘ 551.506 SSO 551.43 −8 −1.17 1.474(9)
P
3
2
-
S
3
1
∘ 414.648 SSO 414.62 −3 0.10 4.885(10)
P
3
2
-
P
1
1
∘ 402.551 SSO 402.52 −3 −1.23 2.414(9)
P
3
2
-
S
5
2
∘ 876.29 −3.44 3.141(6)
P
3
2
-
D
3
2
∘ 640.412 SSO 640.41 0 −1.71 3.176(8)
P
3
2
-
P
3
2
∘ 551.448 SSO 551.50 5 −0.60 5.577(9)
P
3
2
-
D
1
2
∘ 501.134 SSO 501.08 −5 −3.13c 1.984(7)
P
3
2
-
D
3
3
∘ 639.150 SSO 639.04 −11 −0.71 3.159(9)
D
1
2
-
D
3
1
∘ 723.02 −3.40 5.115(6)
D
1
2
-
P
3
1
∘ 611.43 −3.16 1.234(7)
D
1
2
-
S
3
1
∘ 447.678 SSO 447.65 −3 −1.28 1.767(9)
D
1
2
-
P
1
1
∘ 433.598 SSO 433.57 −3 0.07 4.150(10)
D
1
2
-
S
5
2
∘ 1038.18 −5.85 8.684(3)
D
1
2
-
D
3
2
∘ 722.78 −3.56 3.504(6)
D
1
2
-
P
3
2
∘ 611.51 −3.26c 9.804(6)
D
1
2
-
D
1
2
∘ 550.202 SSO 550.14 −6 −0.32 1.059(10)
D
1
2
-
D
3
3
∘ 721.03 −2.67 2.773(7) 3s 2 3p 2 –3s 2 3p 3d
P
3
0
-
D
3
1
∘ 338.824 ES 338.80 −2 −0.08 4.810(10)
P
3
0
-
P
3
1
∘ 347.021 ESd 346.96 −6 −0.16 3.858(10)
P
3
0
-
P
1
1
∘ 299.83 −2.79 1.192(8)
S
1
0
-
P
3
1
∘ 418.00 −3.33 1.796(7)
S
1
0
-
D
3
1
∘ 406.21 −3.50 1.275(7)
S
1
0
-
P
3
1
∘ 341.469 ES 351.44 −3 0.23 9.093(10)
P
3
1
-
P
3
0
∘ 347.972 ESd 347.99 2 −0.36 2.434(10)
P
3
1
-
D
3
1
∘ 340.700 ES 340.67 −3 −0.01 5.674(10)
P
3
1
-
P
3
1
∘ 348.999 ES 348.92 −8 −0.81 8.494(9)
P
3
1
-
P
1
1
∘ 301.29 −3.23 4.334(7)
P
3
1
-
F
3
2
∘ 401.32 −2.98 4.319(7)
P
3
1
-
D
3
2
∘ 339.965 ESd 339.93 −4 0.29 1.134(11)
P
3
1
-
P
3
2
∘ 351.373 ES 351.35 −2 −0.12 4.124(10)
P
3
1
-
D
1
2
∘ 347.48 −0.58 1.458(10)
P
3
2
-
D
3
1
∘ 343.54 −0.88 7.458(9)
P
3
2
-
P
3
1
∘ 352.008 ES 351.93 −8 −0.31 2.611(10)
P
3
2
-
P
1
1
∘ 303.53 −4.13c 5.406(6)
P
3
2
-
F
3
2
∘ 405.31 −3.23 2.397(7)
P
3
2
-
D
3
2
∘ 342.818 ES 342.78 −4 0.10 7.165(10)
P
3
2
-
P
3
2
∘ 354.418 ES 354.40 −2 0.02 5.537(10)
P
3
2
-
D
1
2
∘ 350.46 −0.76 9.433(9)
P
3
2
-
F
3
3
∘ 402.99 −2.48 1.377(8)
P
3
2
-
D
3
3
∘ 342.394 ES 342.37 −2 0.66 2.575(11)
P
3
2
-
F
1
3
∘ 311.69 −1.62 1.637(9)
D
1
2
-
D
3
1
∘ 365.90 −2.64 1.154(8)
D
1
2
-
P
3
1
∘ 375.44 −2.19 3.083(8)
D
1
2
-
P
1
1
∘ 320.86 −6.31c 3.203(4)
D
1
2
-
F
3
2
∘ 436.81 −2.49 1.125(8)
D
1
2
-
D
3
2
∘ 365.05 −2.07 4.268(8)
D
1
2
-
P
3
2
∘ 378.26 −0.16 3.223(10)
D
1
2
-
D
1
2
∘ 373.77 0.40 1.203(11)
D
1
2
-
F
3
3
∘ 434.12 −3.02 3.397(7)
D
1
2
-
D
3
3
∘ 364.58 −1.67 1.086(9)
D
1
2
-
F
1
3
∘ 330.010 ES 329.99 −2 0.65 2.761(11) 3s 2 3p 2 –3s 2 3p 4s
P
3
0
-
P
3
1
∘ 203.700 P 203.70 0 −0.86 2.234(10)
P
3
0
-
P
1
1
∘ 200.52 −2.27 8.880(8)
S
1
0
-
P
3
1
∘ 226.27 −2.37 5.556(8)
S
1
0
-
P
1
1
∘ 222.373 ESd 222.36 −1 −0.92 1.627(10)
P
3
1
-
P
3
0
∘ 204.756 P 204.73 −3 −0.84 2.278(10)
P
3
1
P
3
1
∘ 204.377 P 204.37 −1 −1.00 1.597(10)
P
3
1
-
P
1
1
∘ 201.18 −2.11 1.276(9)
P
3
1
-
P
3
2
∘ 202.989 P 202.98 −1 −0.74 2.935(10)
P
3
2
-
P
3
1
∘ 205.404 P 205.40 0 −0.74 2.905(10)
P
3
2
-
P
1
1
∘ 202.17 −3.22 9.830(7)
P
3
2
-
P
3
2
∘ 204.001 P 203.99 −1 −0.27 8.553(10)
D
1
2
-
P
3
1
∘ 213.194 B 213.19 0 −1.51 4.580(9)
D
1
2
-
P
1
1
∘ 209.723 E 209.72 0 −0.18 1.011(11)
D
1
2
-
P
3
2
∘ 211.68 −2.24 8.523(8)
a References to measurements (latest measurements only are quoted): E, Ref.
8 ; ES, Ref.
17 ; SSO, Ref.
18 ; B, Boden, in Ref.
17 ; P, Ref.
13 .
b This work (see also the notes to
Table 6 ).
c Inverse cancellation factors >100 (see Ref.
39 ).
d Blend.
Table 8
Calculated and Observed Wavelengths (in angstroms) for 3s 2 3p 2 –3s 3p 3 , 3s 2 3p 3d –3s 2 3p 3d , and 3s 2 3p 2 –3s 2 3p 4s Transitions of Sc viii with Calculated Weighted Oscillator Strengths (log gf ) and Transition Probabilities (gA )
Transition Observed Wavelengtha Calculated Wavelengthb Calc.–Obs. (10−2 Å) log gf b gA (sec−1 )b 3s 2 3p 2 –3s 3p 3
P
3
0
-
D
3
1
∘ 555.672 SSO 555.68 1 −1.23 1.285(9)
P
3
0
-
P
3
1
∘ 481.321 SSO 481.30 −2 −1.20 1.817(9)
P
3
0
-
S
3
1
∘ 367.085 SSO 367.09 0 −0.63 1.169(10)
P
3
0
-
P
1
1
∘ 355.21 −1.74 9.737(8)
S
1
0
-
D
3
1
∘ 799.39 −4.34c 4.824(5)
S
1
0
-
P
3
1
∘ 653.99 −3.33 7.358(6)
S
1
0
-
S
3
1
∘ 459.67 −1.83 4.652(8)
S
1
0
-
P
1
1
∘ 441.194 SSO 441.20 1 −0.71 6.659(9)
P
3
1
-
P
3
0
∘ 486.810 SSO 486.77 −4 −1.18 1.867(9)
P
3
1
-
D
3
1
∘ 562.777 SSO 562.75 −3 −1.54 6.074(8)
P
3
1
-
P
3
1
∘ 486.645 SSO 486.60 −5 −1.17 1.913(9)
P
3
1
-
S
3
1
∘ 370.169 SSO 370.17 0 −0.18 3.242(10)
P
3
1
-
P
1
1
∘ 358.107 P 358.09 −2 −1.04 4.768(9)
P
3
1
-
S
5
2
∘ 764.10 −3.66 2.480(6)
P
3
1
-
D
3
2
∘ 562.547 SSO 562.59 4 −0.88 2.751(9)
P
3
1
-
P
3
2
∘ 486.525 SSO 486.57 4 −1.23 1.670(9)
P
3
1
-
D
1
2
∘ 441.76 −2.84 4.903(7)
P
3
2
-
D
3
1
∘ 573.206 SSO 573.20 −1 −3.01 2.002(7)
P
3
2
-
P
3
1
∘ 494.430 SSO 494.38 −5 −1.19 1.779(9)
P
3
2
-
S
3
1
∘ 374.660 SSO 374.66 0 0.08 5.663(10)
P
3
2
-
P
1
1
∘ 362.300 SSO 362.29 −1 −1.25 2.859(9)
P
3
2
-
S
5
2
∘ 783.48 −3.29 5.561(6)
P
3
2
-
D
3
2
∘ 572.987 SSO 573.03 4 −1.75 3.590(8)
P
3
2
-
P
3
2
∘ 494.295 SSO 494.36 6 −0.58 7.119(9)
P
3
2
-
D
1
2
∘ 448.17 −2.85c 4.670(7)
P
3
2
-
D
3
3
∘ 571.442 SSO 571.37 −7 −0.70 4.089(9)
D
1
2
-
D
3
1
∘ 645.44 −3.24 9.183(6)
D
1
2
-
P
3
1
∘ 547.21 −3.00 2.216(7)
D
1
2
-
S
3
1
∘ 404.201 SSOd 404.23 3 −1.30 2.034(9)
D
1
2
-
P
1
1
∘ 389.883 SSOd 389.88 0 0.04 4.842(10)
D
1
2
-
S
5
2
∘ 925.01 −5.51 2.420(4)
D
1
2
-
D
3
2
∘ 645.23 −3.38 6.668(6)
D
1
2
-
P
3
2
∘ 547.18 −3.22c 1.349(7)
D
1
2
-
D
1
2
∘ 491.180 SSO 491.15 −3 −0.31 1.369(10)
D
1
2
-
D
3
3
∘ 643.183 SSO 643.13 −5 −2.47 5.451(7) 3s 2 3p 2 –3s 2 3p 3d
P
3
0
-
D
3
1
∘ 303.157 ESd 303.15 −1 −0.16 4.998(10)
P
3
0
-
P
3
1
∘ 310.042 KPd 310.01 −3 −0.15 4.903(10)
P
3
0
-
P
1
1
∘ 268.24 −2.66 2.052(8)
S
1
0
-
P
3
1
∘ 373.55 −3.17 3.239(7)
S
1
0
-
D
3
1
∘ 363.63 −3.37 2.132(7)
S
1
0
-
P
1
1
∘ 314.539 BE 314.52 −1 0.19 1.037(11)
P
3
1
-
P
3
0
∘ 311.138 KP 311.13 −1 −0.39 2.784(10)
P
3
1
-
D
3
1
∘ 305.260 BE 305.25 −1 −0.03 6.725(10)
P
3
1
-
P
3
1
∘ 312.239 KP 312.20 −4 −0.97 7.271(9)
P
3
1
-
P
1
1
∘ 269.87 −3.12 6.885(7)
P
3
1
-
F
3
2
∘ 358.60 −2.86 7.205(7)
P
3
1
-
D
3
2
∘ 304.456 BE 304.43 −3 0.23 1.222(11)
P
3
1
-
P
3
2
∘ 315.163 KP 315.14 −2 −0.20 4.237(10)
P
3
1
-
D
1
2
∘ 311.37 −0.39 2.821(10)
P
3
2
-
D
3
1
∘ 308.29 −0.84 1.014(10)
P
3
2
-
P
3
1
∘ 315.420 KP 315.39 −3 −0.38 2.805(10)
P
3
2
-
P
1
1
∘ 272.25 −4.07c 7.659(6)
P
3
2
-
F
3
2
∘ 362.81 −3.05 4.565(7)
P
3
2
-
D
3
2
∘ 307.447 BE 307.46 1 0.09 8.714(1−0)
P
3
2
-
P
3
2
∘ 318.408 KP 318.39 −2 −0.08 5.449(10)
P
3
2
-
D
1
2
∘ 314.54 −0.68 1.411(10)
P
3
2
-
F
3
3
∘ 360.33 −2.33 2.382(8)
P
3
2
-
D
3
3
∘ 307.083 BE 307.07 −1 0.62 2.921(11)
P
3
2
-
F
1
3
∘ 279.34 −1.47 2.920(9)
D
1
2
-
D
3
1
∘ 328.04 −2.43 2.323(8)
D
1
2
-
P
3
1
∘ 336.09 −2.08 4.956(8)
D
1
2
-
P
1
1
∘ 287.55 BE 287.54 −1 −6.41c 3.147(4)
D
1
2
-
F
3
2
∘ 390.48 −2.34 1.999(8)
D
1
2
-
D
3
2
∘ 327.10 −1.75 1.101(9)
D
1
2
-
P
3
2
∘ 339.50 −0.02 5.556(10)
D
1
2
-
D
1
2
∘ 335.13 0.30 1.185(11)
D
1
2
-
F
3
3
∘ 387.60 −2.95 4.990(7)
D
1
2
-
D
3
3
∘ 326.66 −1.50 1.961(9)
D
1
2
-
F
1
3
∘ 295.478 BE 295.46 −2 0.61 3.132(11) 3s 2 3p 2 –3s 2 3p 4s
P
3
0
-
P
3
1
∘ 165.395 BE 165.40 0 −0.87 3.282(10)
P
3
0
-
P
1
1
∘ 162.84 −2.23 1.498(9)
S
1
0
-
P
3
1
∘ 181.90 −2.32 9.746(8)
S
1
0
-
P
1
1
∘ 178.821 BE 178.82 0 −0.93 2.476(10)
P
3
1
-
P
3
0
∘ 166.317 BE 166.31 −1 −0.86 3.363(10)
P
3
1
-
P
3
1
∘ 166.022 BE 166.02 0 −1.02 2.318(10)
P
3
1
-
P
1
1
∘ 163.45 −2.04 2.294(9)
P
3
1
-
P
3
2
∘ 164.772 BE 164.77 0 −0.75 4.338(10)
P
3
2
-
P
3
1
∘ 166.916 BE 166.92 0 −0.74 4.361(10)
P
3
2
-
P
1
1
∘ 164.31 −3.55c 6.963(7)
P
3
2
-
P
3
2
∘ 165.654 BE 165.65 0 −0.29 1.256(11)
D
1
2
-
P
3
1
∘ 172.54 −1.46 7.829(9)
D
1
2
-
P
1
1
∘ 169.759 BE 169.76 0 −0.19 1.482(11)
D
1
2
-
P
3
2
∘ 171.19 −2.07 1.941(9)
a References to measurements (latest measurements only are quoted): BE, Ref.
11 ; SSO, Ref.
18 ; KP, Ref.
12 ; P, Ref.
13 .
b This work (see also the notes to
Table 6 ).
c Inverse cancellation factors >100 (see Ref.
39 ).
d Blend.
Table 9
Calculated and Observed Wavelengths (in angstroms) for 3s 2 3p 2 –3s 3p 3 , 3s 2 3p 2 –3s 2 3p 3d , and 3s 2 3p 2 –3s 2 3p 4s Transitions of Ti ix with Calculated Weighted Oscillator Strengths (log gf ) and Transition Probabilities (gA )
Transition Observed Wavelengtha Calculated Wavelengthb Calc.–Obs. (10−2 Å) log gf b gA (sec−1 )b 3s 2 3p 2 –3s 3p 3
P
3
0
-
D
3
1
∘ 499.479 SSO 499.51 3 −1.20 1.676(9)
P
3
0
-
P
3
1
∘ 433.567 SSOc 433.60 3 −1.21 2.206(9)
P
3
0
-
S
3
1
∘ 333.385 ES 333.45 6 −0.65 1.339(10)
P
3
0
-
P
1
1
∘ 321.48 −1.74 1.187(9)
S
1
0
-
D
3
1
∘ 718.87 −4.11d 9.923(5)
S
1
0
-
P
3
1
∘ 589.84 −3.18 1.264(7)
S
1
0
-
S
3
1
∘ 418.75 −1.81 5.933(8)
S
1
0
-
P
1
1
∘ 400.041 SSOc 400.05 1 −0.71 8.036(9)
P
3
1
-
P
3
0
∘ 439.745 SSO 439.72 −3 −1.18 2.292(9)
P
3
1
-
D
3
1
∘ 507.365 SSOe 507.33 −4 −1.55 7.265(8)
P
3
1
-
P
3
1
∘ 439.513 SSO 439.48 −3 −1.15 2.470(9)
P
3
1
-
S
3
1
∘ 336.895 ES 336.92 2 −0.21 3.650(10)
P
3
1
-
P
1
1
∘ 324.712 ES 324.70 −1 −1.01 6.162(9)
P
3
1
-
S
5
2
∘ 688.08 −3.52 4.222(6)
P
3
1
-
D
3
2
∘ 507.174 SSO 507.17 0 −0.87 3.537(9)
P
3
1
-
P
3
2
∘ 439.302 SSO 439.37 7 −1.26 1.899(9)
P
3
1
-
D
1
2
∘ 398.55 −2.73 7.835(7)
P
3
2
-
D
3
1
∘ 518.26 −3.04 2.252(7)
P
3
2
-
P
3
1
∘ 447.701 SSO 447.66 −4 −1.21 2.072(9)
P
3
2
-
S
3
1
∘ 341.691 ES 341.71 2 0.05 6.483(10)
P
3
2
-
P
1
1
∘ 329.159 SSO 329.15 −1 −1.30 3.117(9)
P
3
2
-
S
5
2
∘ 708.35 −3.17 8.999(6)
P
3
2
-
D
3
2
∘ 518.100 SSO 518.10 0 −1.81 3.837(8)
P
3
2
-
P
3
2
∘ 447.484 SSO 447.55 7 −0.58 8.803(9)
P
3
2
-
D
1
2
∘ 405.272 SSO 405.27 0 −2.64d 9.405(7)
P
3
2
-
D
3
3
∘ 516.215 SSO 516.13 −9 −0.69 5.069(9)
D
1
2
-
D
3
1
∘ 443.512 SSO 582.53 2 −3.11 1.525(7)
D
1
2
-
P
3
1
∘ 494.81 −2.86 3.734(7)
D
1
2
-
S
3
1
∘ 368.482 SSO 368.51 3 −1.36 2.157(9)
D
1
2
-
P
1
1
∘ 353.939 ES 353.95 1 0.02 5.582(10)
D
1
2
-
S
5
2
∘ 834.13 −5.20 6.024(4)
D
1
2
-
D
3
2
∘ 582.33 −3.23 1.159(7)
D
1
2
-
P
3
2
∘ 494.68 −3.23d 1.611(7)
D
1
2
-
D
1
2
∘ 443.53 −0.30 1.682(10)
D
1
2
-
D
3
3
∘ 579.896 SSO 579.84 −6 −2.30 9.981(7) 3s 2 3p 2 –3s 2 3p 3d
P
3
0
-
D
3
1
∘ 274.411 ES 274.41 0 −0.26 4.832(10)
P
3
0
-
P
3
1
∘ 280.141 ES 280.22 8 −0.13 6.294(10)
P
3
0
-
P
1
1
∘ 242.83 −2.56 3.133(8)
S
1
0
-
P
3
1
∘ 338.09 −3.06 5.134(7)
S
1
0
-
D
3
1
∘ 329.68 −3.35 2.770(7)
S
1
0
-
P
1
1
∘ 285.128 ES 285.13 0 0.15 1.162(11)
P
3
1
-
P
3
0
∘ 281.446 ES 281.38 −7 −0.43 3.139(10)
P
3
1
-
D
3
1
∘ 276.785 ES 276.76 −3 −0.04 7.875(10)
P
3
1
-
P
3
1
∘ 282.613 ES 282.66 5 −1.22 5.003(9)
P
3
1
-
P
1
1
∘ 244.67 −3.01 1.079(8)
P
3
1
-
F
3
2
∘ 324.56 −2.73 1.178(8)
P
3
1
-
D
3
2
∘ 275.867 ES 275.84 −3 0.16 1.287(11)
P
3
1
-
P
3
2
∘ 286.112 ES 286.05 −6 −0.26 4.523(10)
P
3
1
-
D
1
2
∘ 282.07 −0.28 4.395(10)
P
3
2
-
D
3
1
∘ 279.98 −0.78 1.406(10)
P
3
2
-
P
3
1
∘ 285.981 ES 286.02 4 −0.45 2.863(10)
P
3
2
-
P
1
1
∘ 247.18 −4.08d 9.175(6)
P
3
2
-
F
3
2
∘ 329.00 −2.86 8.560(7)
P
3
2
-
D
3
2
∘ 279.074 ES 279.04 −3 0.09 1.048(11)
P
3
2
-
P
3
2
∘ 289.579 ESc 289.49 −9 −0.16 5.562(10)
P
3
2
-
D
1
2
∘ 285.41 −0.75 1.472(10)
P
3
2
-
F
3
3
∘ 326.29 −2.19 4.047(8)
P
3
2
-
D
3
3
∘ 278.713 ES 278.70 −1 0.58 3.254(11)
P
3
2
-
F
1
3
∘ 253.45 −1.33 4.815(9)
D
1
2
-
D
3
1
∘ 297.72 −2.22 4.527(8)
D
1
2
-
P
3
1
∘ 304.498 ES 304.57 7 −1.99 7.433(8)
D
1
2
-
P
1
1
∘ 260.916 ES 260.91 −1 −5.06d 8.470(5)
D
1
2
-
F
3
2
∘ 353.78 −2.19 3.413(8)
D
1
2
-
D
3
2
∘ 296.67 −1.48 2.533(9)
D
1
2
-
P
3
2
∘ 308.568 ESc 308.50 −7 0.03 7.467(10)
D
1
2
-
D
1
2
∘ 303.88 0.22 1.204(11)
D
1
2
-
F
3
3
∘ 350.64 −2.88 7.086(7)
D
1
2
-
D
3
3
∘ 296.28 −1.37 3.274(9)
D
1
2
-
F
1
3
∘ 267.941 ES 267.90 −4 0.57 3.484(11) 3s 2 3p 2 –3s 2 3p 4s 4.604(10)
P
3
0
-
P
3
1
∘ 137.153 ES 137.16 1 −0.89
P
3
0
-
P
1
1
∘ 135.02 −2.21 2.238(9)
S
1
0
-
P
3
1
∘ 149.70 −2.29 1.531(9)
S
1
0
-
P
1
1
∘ 147.157 ES 147.16 0 −0.95 3.465(10)
P
3
1
-
P
3
0
∘ 137.991 ES 137.99 0 −0.87 4.727(10)
P
3
1
-
P
3
1
∘ 137.743 ES 137.74 0 −1.04 3.207(10)
P
3
1
-
P
1
1
∘ 135.58 −1.99 3.706(9)
P
3
1
-
P
3
2
∘ 136.595 ES 136.59 −1 −0.77 6.097(10)
P
3
2
-
P
3
1
∘ 138.548 ESc 138.53 −2 −0.74 6.272(10)
P
3
2
-
P
1
1
∘ 136.35 −4.61d 8.896(6)
P
3
2
-
P
3
2
∘ 137.377 ES 137.37 −1 −0.31 1.749(11)
D
1
2
-
P
3
1
∘ 142.74 −1.43 1.214(10)
D
1
2
-
P
1
1
∘ 140.443 ESc 140.43 −1 −0.22 2.035(11)
D
1
2
-
P
3
2
∘ 141.51 −1.92 4.034(9)
a References to measurements (latest measurements only are quoted): ES, Ref.
17 ; SSO, Ref.
18 .
b This work (see also the notes to
Table 6 ).
c Blend.
d Inverse cancellation factors >100 (see Ref.
39 ).
e Calculated value.
Table 10
Comparison of Multiplet f Values Reported in This Work (HXR) with Those Previously Published
K vi Ca vii Sc viii Ti ix
HXR Previous HXR Previous HXR Previous HXR Previous 3s 2 3p 2 –3s 3p 3 3 P –3D∘ 0.0437 0.049a 0.0469 0.055a 0.0565b 0.0440e 3 P –3 P∘ 0.0614 0.063a 0.0638 0.068a 0.0643 0.0633d 0.0625d 1 D –1 D∘ 0.0893 0.065a 0.0957 0.080a 3 P –5 S∘ 0.000057 0.000028d 0.000109 0.000065d 3s 2 3p 2 –3s 2 3p 4s 3 P –3 P∘ 0.146 0.15e 0.143 0.15e 0.138 0.14e
a Ref.
5 (parametric potential method).
b Ref.
4 (NCMET,—length form).
c Ref.
4 (NCMET,—velocity form).
d Ref.
6 .
e Ref.
2 (Coulomb approximation).