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HFLAV-Tau 2023 Report

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A Branching fractions fit measurement list by reference

Table 8 reports the measurements used for the HFLAV-Tau branching fraction fit grouped by their bibliographic reference.


Table 8: By-reference measurements list.
Reference / Branching FractionValue
 
BARATE 98 (ALEPH) [70]
 B85 =  B(τ− → K− π+ π− ντ (ex.K0))
0.002140 ± 0.000370 ± 0.000290
 B88 =  B(τ− → K− π− π+ π0 ντ (ex.K0))
(0.61 ± 0.39 ± 0.18)· 10−3
 B93 =  B(τ− → π− K− K+ ντ)
0.001630 ± 0.000210 ± 0.000170
 B94 =  B(τ− → π− K− K+ π0 ντ)
(750 ± 290 ± 150)· 10−6
BARATE 98E (ALEPH) [47]
 B33 =  B(τ− → KS0 (particles)− ντ)
0.00970 ± 0.00058 ± 0.00062
 B37 =  B(τ− → K− K0 ντ)
0.001580 ± 0.000420 ± 0.000170
 B40 =  B(τ− → π− K0 π0 ντ)
0.002940 ± 0.000730 ± 0.000370
 B42 =  B(τ− → K− K0 π0 ντ)
0.001520 ± 0.000760 ± 0.000210
 B47 =  B(τ− → π− KS0 KS0 ντ)
(260.0 ± 100.0 ± 50.0)· 10−6
 B48 =  B(τ− → π− KS0 KL0 ντ)
0.00101 ± 0.00023 ± 0.00013
 B51 =  B(τ− → π− KS0 KL0 π0 ντ)
(0.31 ± 0.11 ± 0.05)· 10−3
 B53 =  B(τ− → K0 h− h− h+ ντ)
(0.23 ± 0.19 ± 0.07)· 10−3
BARATE 99K (ALEPH) [38]
 B10 =  B(τ− → K− ντ)
0.00696 ± 0.00025 ± 0.00014
 B16 =  B(τ− → K− π0 ντ)
0.004440 ± 0.000260 ± 0.000240
 B23 =  B(τ− → K− 2π0 ντ (ex.K0))
0.00056 ± 0.00020 ± 0.00015
 B28 =  B(τ− → K− 3π0 ντ (ex.K0,η))
(0.37 ± 0.21 ± 0.11)· 10−3
 B35 =  B(τ− → π− K0 ντ)
0.009280 ± 0.000450 ± 0.000340
 B37 =  B(τ− → K− K0 ντ)
0.001620 ± 0.000210 ± 0.000110
 B40 =  B(τ− → π− K0 π0 ντ)
0.003470 ± 0.000530 ± 0.000370
 B42 =  B(τ− → K− K0 π0 ντ)
0.001430 ± 0.000250 ± 0.000150
BARATE 99R (ALEPH) [54]
 B44 =  B(τ− → π− K0 2π0 ντ (ex.K0))
(0.26 ± 0.24 ± 0.00)· 10−3
BUSKULIC 96 (ALEPH) [84]
 B150 / 66 = 
 B(τ− → h− ω ντ)
 B(τ− → h− h− h+ π0 ντ (ex.K0))
0.431 ± 0.033 ± 0.000
BUSKULIC 97C (ALEPH) [77]
 B126 =  B(τ− → π− π0 η ντ)
0.001800 ± 0.000400 ± 0.000200
 B128 =  B(τ− → K− η ντ)
(290 −120+130 ± 70)· 10−6
 B150 =  B(τ− → h− ω ντ)
0.0191 ± 0.0007 ± 0.0006
 B152 =  B(τ− → h− π0 ω ντ)
0.0043 ± 0.0006 ± 0.0005
SCHAEL 05C (ALEPH) [25]
 B3 =  B(τ− → µ− νµντ)
0.17319 ± 0.00070 ± 0.00032
 B5 =  B(τ− → e− νe ντ)
0.1784 ± 0.0007 ± 0.0004
 B9 =  B(τ− → π− ντ)
0.1083 ± 0.0007 ± 0.0008
 B14 =  B(τ− → π− π0 ντ)
0.2547 ± 0.0010 ± 0.0008
 B20 =  B(τ− → π− 2π0 ντ (ex.K0))
0.0924 ± 0.0009 ± 0.0009
 B27 =  B(τ− → π− 3π0 ντ (ex.K0))
0.0098 ± 0.0007 ± 0.0006
 B30 =  B(τ− → h− 4π0 ντ (ex.K0,η))
0.00112 ± 0.00037 ± 0.00035
 B62 =  B(τ− → π− π+ π− ντ (ex.K0,ω))
0.0904 ± 0.0006 ± 0.0008
 B69 =  B(τ− → π− π+ π− π0 ντ (ex.K0))
0.0460 ± 0.0006 ± 0.0006
 B76 =  B(τ− → h− h− h+ 2π0 ντ (ex.K0))
0.00435 ± 0.00030 ± 0.00035
 B103 =  B(τ− → 3h− 2h+ ντ (ex.K0))
(720 ± 90 ± 120)· 10−6
 B104 =  B(τ− → 3h− 2h+ π0 ντ (ex.K0))
(210 ± 70 ± 90)· 10−6
 B980 =  B(a1− → π− γ)
0.0021 ± 0.0008 ± 0.0000
ALBRECHT 88B (ARGUS) [75]
 B103 =  B(τ− → 3h− 2h+ ντ (ex.K0))
(640 ± 230 ± 100)· 10−6
ALBRECHT 92D (ARGUS) [30]
 B3 / 5 = 
 B(τ− → µ− νµντ)
 B(τ− → e− νe ντ)
0.9970 ± 0.0350 ± 0.0400
AUBERT 07AP (BaBar) [44]
 B16 =  B(τ− → K− π0 ντ)
0.004160 ± 0.000030 ± 0.000180
AUBERT 08 (BaBar) [62]
 B60 =  B(τ− → π− π+ π− ντ (ex.K0))
0.08830 ± 0.00010 ± 0.00130
 B85 =  B(τ− → K− π+ π− ντ (ex.K0))
0.002730 ± 0.000020 ± 0.000090
 B93 =  B(τ− → π− K− K+ ντ)
0.001346 ± 0.000010 ± 0.000036
 B96 =  B(τ− → K− K− K+ ντ)
(15.8 ± 1.3 ± 1.2)· 10−6
AUBERT 10F (BaBar) [31]
 B3 / 5 = 
 B(τ− → µ− νµντ)
 B(τ− → e− νe ντ)
0.9796 ± 0.0016 ± 0.0036
 B9 / 5 = 
 B(τ− → π− ντ)
 B(τ− → e− νe ντ)
0.5945 ± 0.0014 ± 0.0061
 B10 / 5 = 
 B(τ− → K− ντ)
 B(τ− → e− νe ντ)
0.03882 ± 0.00032 ± 0.00057
DEL-AMO-SANCHEZ 11E (BaBar) [80]
 B128 =  B(τ− → K− η ντ)
(142 ± 11 ± 7)· 10−6
LEES 12X (BaBar) [85]
 B811 =  B(τ− → π− 2π0 ω ντ)
(73 ± 12 ± 12)· 10−6
 B812 =  B(τ− → 2π− π+ 3π0 ντ (ex.K0,η,ω,f1))
(10 ± 8 ± 30)· 10−6
 B821 =  B(τ− → 3π− 2π+ ντ (ex.K0,ω,f1))
(768 ± 4 ± 40)· 10−6
 B822 =  B(τ− → K− 2π− 2π+ ντ (ex.K0))
(0.6 ± 0.5 ± 1.1)· 10−6
 B831 =  B(τ− → 2π− π+ ω ντ (ex.K0))
(84 ± 4 ± 6)· 10−6
 B832 =  B(τ− → 3π− 2π+ π0 ντ (ex.K0,η,ω,f1))
(36.0 ± 3.0 ± 9.0)· 10−6
 B833 =  B(τ− → K− 2π− 2π+ π0 ντ (ex.K0))
(1.1 ± 0.4 ± 0.4)· 10−6
 B910 =  B(τ− → 2π− π+ η(3π0) ντ (ex.K0))
(83 ± 9 ± 8)· 10−6
 B911 =  B(τ− → π− 2π0 η(π+ π− π0) ντ (ex.K0))
(46 ± 8 ± 5)· 10−6
 B920 =  B(τ− → π− f1(2π− 2π+) ντ)
(52.0 ± 3.1 ± 3.7)· 10−6
 B930 =  B(τ− → 2π− π+ η(π+ π− π0) ντ (ex.K0))
(53.9 ± 2.7 ± 4.1)· 10−6
 B944 =  B(τ− → 2π− π+ η(γ γ) ντ (ex.K0))
(82.6 ± 3.5 ± 5.1)· 10−6
LEES 12Y (BaBar) [55]
 B47 =  B(τ− → π− KS0 KS0 ντ)
(231.0 ± 4.0 ± 8.0)· 10−6
 B50 =  B(τ− → π− KS0 KS0 π0 ντ)
(16.0 ± 2.0 ± 2.2)· 10−6
LEES 18B (BaBar) [53]
 B37 =  B(τ− → K− K0 ντ)
0.001478 ± 0.000022 ± 0.000040
FUJIKAWA 08 (Belle) [42]
 B13 =  B(τ− → h− π0 ντ)
0.25670 ± 0.00010 ± 0.00390
INAMI 09 (Belle) [78]
 B126 =  B(τ− → π− π0 η ντ)
0.001350 ± 0.000030 ± 0.000070
 B128 =  B(τ− → K− η ντ)
(158 ± 5 ± 9)· 10−6
 B130 =  B(τ− → K− π0 η ντ)
(46 ± 11 ± 4)· 10−6
 B132 =  B(τ− → π− K0 η ντ)
(88 ± 14 ± 6)· 10−6
LEE 10 (Belle) [63]
 B60 =  B(τ− → π− π+ π− ντ (ex.K0))
0.08420 ± 0.00000 −0.00250+0.00260
 B85 =  B(τ− → K− π+ π− ντ (ex.K0))
0.003300 ± 0.000010 −0.000170+0.000160
 B93 =  B(τ− → π− K− K+ ντ)
0.001550 ± 0.000010 −0.000050+0.000060
 B96 =  B(τ− → K− K− K+ ντ)
(32.9 ± 1.7 −2.0+1.9)· 10−6
RYU 14vpc (Belle) [50]
 B35 =  B(τ− → π− K0 ντ)
0.008320 ± 0.000025 ± 0.000150
 B37 =  B(τ− → K− K0 ντ)
0.001480 ± 0.000013 ± 0.000055
 B40 =  B(τ− → π− K0 π0 ντ)
0.003860 ± 0.000031 ± 0.000135
 B42 =  B(τ− → K− K0 π0 ντ)
0.001496 ± 0.000019 ± 0.000073
 B47 =  B(τ− → π− KS0 KS0 ντ)
(233.0 ± 3.3 ± 9.3)· 10−6
 B50 =  B(τ− → π− KS0 KS0 π0 ντ)
(20.0 ± 2.2 ± 2.0)· 10−6
Belle II ADACHI 2024 [2]
 B3 / 5 = 
 B(τ− → µ− νµντ)
 B(τ− → e− νe ντ)
0.9675 ± 0.0007 ± 0.0036
BEHREND 89B (CELLO) [56]
 B54 =  B(τ− → h− h− h+ ≥ 0  neutrals ≥ 0   KL0  ντ)
0.1500 ± 0.0040 ± 0.0030
ANASTASSOV 01 (CLEO) [67]
 B78 =  B(τ− → h− h− h+ 3π0 ντ)
(220 ± 30 ± 40)· 10−6
 B104 =  B(τ− → 3h− 2h+ π0 ντ (ex.K0))
(170 ± 20 ± 20)· 10−6
ANASTASSOV 97 (CLEO) [15]
 B3 / 5 = 
 B(τ− → µ− νµντ)
 B(τ− → e− νe ντ)
0.9777 ± 0.0063 ± 0.0087
 B5 =  B(τ− → e− νe ντ)
0.1776 ± 0.0006 ± 0.0017
 B8 =  B(τ− → h− ντ)
0.1152 ± 0.0005 ± 0.0012
ARTUSO 92 (CLEO) [79]
 B126 =  B(τ− → π− π0 η ντ)
0.001700 ± 0.000200 ± 0.000200
ARTUSO 94 (CLEO) [43]
 B13 =  B(τ− → h− π0 ντ)
0.25870 ± 0.00120 ± 0.00420
BALEST 95C (CLEO) [61]
 B57 =  B(τ− → h− h− h+ ντ (ex.K0))
0.0951 ± 0.0007 ± 0.0020
 B66 =  B(τ− → h− h− h+ π0 ντ (ex.K0))
0.0423 ± 0.0006 ± 0.0022
 B150 / 66 = 
 B(τ− → h− ω ντ)
 B(τ− → h− h− h+ π0 ντ (ex.K0))
0.464 ± 0.016 ± 0.017
BARINGER 87 (CLEO) [83]
 B150 =  B(τ− → h− ω ντ)
0.0160 ± 0.0027 ± 0.0041
BARTELT 96 (CLEO) [81]
 B128 =  B(τ− → K− η ντ)
(260 ± 50 ± 50)· 10−6
BATTLE 94 (CLEO) [39]
 B10 =  B(τ− → K− ντ)
0.00660 ± 0.00070 ± 0.00090
 B16 =  B(τ− → K− π0 ντ)
0.005100 ± 0.001000 ± 0.000700
 B23 =  B(τ− → K− 2π0 ντ (ex.K0))
0.00090 ± 0.00100 ± 0.00030
 B31 =  B(τ− → K− ≥ 0  π0 ≥ 0  K0 ≥ 0  γ ντ)
0.01700 ± 0.00120 ± 0.00190
BISHAI 99 (CLEO) [82]
 B130 =  B(τ− → K− π0 η ντ)
(177 ± 56 ± 71)· 10−6
 B132 =  B(τ− → π− K0 η ντ)
(220 ± 70 ± 22)· 10−6
BORTOLETTO 93 (CLEO) [66]
 B76 / 54 = 
 B(τ− → h− h− h+ 2π0 ντ (ex.K0))
 B(τ− → h− h− h+ ≥ 0  neutrals ≥ 0   KL0  ντ)
0.0340 ± 0.0020 ± 0.0030
 B152 / 76 = 
 B(τ− → h− ω π0 ντ)
 B(τ− → h− h− h+ 2π0 ντ (ex.K0))
0.81 ± 0.06 ± 0.06
COAN 96 (CLEO) [49]
 B34 =  B(τ− → h− K0 ντ)
0.00855 ± 0.00036 ± 0.00073
 B37 =  B(τ− → K− K0 ντ)
0.001510 ± 0.000210 ± 0.000220
 B39 =  B(τ− → h− K0 π0 ντ)
0.00562 ± 0.00050 ± 0.00048
 B42 =  B(τ− → K− K0 π0 ντ)
0.001450 ± 0.000360 ± 0.000200
 B47 =  B(τ− → π− KS0 KS0 ντ)
(230.0 ± 50.0 ± 30.0)· 10−6
EDWARDS 00A (CLEO) [65]
 B69 =  B(τ− → π− π+ π− π0 ντ (ex.K0))
0.0419 ± 0.0010 ± 0.0021
GIBAUT 94B (CLEO) [73]
 B102 =  B(τ− → 3h− 2h+ ≥ 0   neutrals  ντ (ex.K0))
0.00097 ± 0.00005 ± 0.00011
 B103 =  B(τ− → 3h− 2h+ ντ (ex.K0))
(770 ± 50 ± 90)· 10−6
PROCARIO 93 (CLEO) [46]
 B19 / 13 = 
 B(τ− → h− 2π0 ντ (ex.K0))
 B(τ− → h− π0 ντ)
0.342 ± 0.006 ± 0.016
 B26 / 13 = 
 B(τ− → h− 3π0 ντ)
 B(τ− → h− π0 ντ)
0.0440 ± 0.0030 ± 0.0050
 B29 =  B(τ− → h− 4π0 ντ (ex.K0))
0.0016 ± 0.0005 ± 0.0005
RICHICHI 99 (CLEO) [68]
 B80 / 60 = 
 B(τ− → K− π− h+ ντ (ex.K0))
 B(τ− → π− π+ π− ντ (ex.K0))
0.0544 ± 0.0021 ± 0.0053
 B81 / 69 = 
 B(τ− → K− π− h+ π0 ντ (ex.K0))
 B(τ− → π− π+ π− π0 ντ (ex.K0))
0.0261 ± 0.0045 ± 0.0042
 B93 / 60 = 
 B(τ− → π− K− K+ ντ)
 B(τ− → π− π+ π− ντ (ex.K0))
0.01600 ± 0.00150 ± 0.00300
 B94 / 69 = 
 B(τ− → π− K− K+ π0 ντ)
 B(τ− → π− π+ π− π0 ντ (ex.K0))
0.0079 ± 0.0044 ± 0.0016
ARMS 05 (CLEO3) [71]
 B88 =  B(τ− → K− π− π+ π0 ντ (ex.K0))
(0.74 ± 0.08 ± 0.11)· 10−3
 B94 =  B(τ− → π− K− K+ π0 ντ)
(55 ± 14 ± 12)· 10−6
 B151 =  B(τ− → K− ω ντ)
(0.41 ± 0.06 ± 0.07)· 10−3
BRIERE 03 (CLEO3) [64]
 B60 =  B(τ− → π− π+ π− ντ (ex.K0))
0.09130 ± 0.00050 ± 0.00460
 B85 =  B(τ− → K− π+ π− ντ (ex.K0))
0.003840 ± 0.000140 ± 0.000380
 B93 =  B(τ− → π− K− K+ ντ)
0.001550 ± 0.000060 ± 0.000090
ABDALLAH 06A (DELPHI) [36]
 B8 =  B(τ− → h− ντ)
0.1157 ± 0.0012 ± 0.0011
 B13 =  B(τ− → h− π0 ντ)
0.25740 ± 0.00201 ± 0.00138
 B19 =  B(τ− → h− 2π0 ντ (ex.K0))
0.0950 ± 0.0032 ± 0.0027
 B25 =  B(τ− → h− ≥ 3  π0  ντ (ex.K0))
0.0140 ± 0.0021 ± 0.0022
 B57 =  B(τ− → h− h− h+ ντ (ex.K0))
0.0932 ± 0.0009 ± 0.0008
 B66 =  B(τ− → h− h− h+ π0 ντ (ex.K0))
0.0454 ± 0.0011 ± 0.0010
 B74 =  B(τ− → h− h− h+ ≥ 2  π0  ντ (ex.K0))
0.00561 ± 0.00068 ± 0.00095
 B103 =  B(τ− → 3h− 2h+ ντ (ex.K0))
(970 ± 150 ± 50)· 10−6
 B104 =  B(τ− → 3h− 2h+ π0 ντ (ex.K0))
(160 ± 120 ± 60)· 10−6
ABREU 92N (DELPHI) [33]
 B7 =  B(τ− → h− ≥ 0   KL0  ντ)
0.1240 ± 0.0070 ± 0.0070
ABREU 94K (DELPHI) [40]
 B10 =  B(τ− → K− ντ)
0.00850 ± 0.00180 ± 0.00000
 B31 =  B(τ− → K− ≥ 0  π0 ≥ 0  K0 ≥ 0  γ ντ)
0.01540 ± 0.00240 ± 0.00000
ABREU 99X (DELPHI) [27]
 B3 =  B(τ− → µ− νµντ)
0.17325 ± 0.00095 ± 0.00077
 B5 =  B(τ− → e− νe ντ)
0.1788 ± 0.0011 ± 0.0011
BYLSMA 87 (HRS) [74]
 B102 =  B(τ− → 3h− 2h+ ≥ 0   neutrals  ντ (ex.K0))
0.00102 ± 0.00029 ± 0.00000
 B103 =  B(τ− → 3h− 2h+ ντ (ex.K0))
(510 ± 200 ± 0)· 10−6
ACCIARRI 01F (L3) [28]
 B3 =  B(τ− → µ− νµντ)
0.17342 ± 0.00110 ± 0.00067
 B5 =  B(τ− → e− νe ντ)
0.1781 ± 0.0010 ± 0.0008
ACCIARRI 95 (L3) [34]
 B7 =  B(τ− → h− ≥ 0   KL0  ντ)
0.1247 ± 0.0026 ± 0.0043
 B13 =  B(τ− → h− π0 ντ)
0.25050 ± 0.00350 ± 0.00500
 B19 =  B(τ− → h− 2π0 ντ (ex.K0))
0.0888 ± 0.0037 ± 0.0042
 B26 =  B(τ− → h− 3π0 ντ)
0.0170 ± 0.0024 ± 0.0038
ACCIARRI 95F (L3) [51]
 B35 =  B(τ− → π− K0 ντ)
0.009500 ± 0.001500 ± 0.000600
 B40 =  B(τ− → π− K0 π0 ντ)
0.004100 ± 0.001200 ± 0.000300
ACHARD 01D (L3) [59]
 B55 =  B(τ− → h− h− h+ ≥ 0   neutrals  ντ (ex.K0))
0.1456 ± 0.0010 ± 0.0008
 B102 =  B(τ− → 3h− 2h+ ≥ 0   neutrals  ντ (ex.K0))
0.00170 ± 0.00022 ± 0.00026
ADEVA 91F (L3) [57]
 B54 =  B(τ− → h− h− h+ ≥ 0  neutrals ≥ 0   KL0  ντ)
0.1440 ± 0.0060 ± 0.0030
ABBIENDI 00C (OPAL) [52]
 B35 =  B(τ− → π− K0 ντ)
0.009330 ± 0.000680 ± 0.000490
 B38 =  B(τ− → K− K0 ≥ 0   π0  ντ)
0.00330 ± 0.00055 ± 0.00039
 B43 =  B(τ− → π− K0 ≥ 1   π0  ντ)
0.00324 ± 0.00074 ± 0.00066
ABBIENDI 00D (OPAL) [72]
 B92 =  B(τ− → π− K− K+ ≥ 0   neutrals  ντ)
0.001590 ± 0.000530 ± 0.000200
ABBIENDI 01J (OPAL) [41]
 B10 =  B(τ− → K− ντ)
0.00658 ± 0.00027 ± 0.00029
 B31 =  B(τ− → K− ≥ 0  π0 ≥ 0  K0 ≥ 0  γ ντ)
0.01528 ± 0.00039 ± 0.00040
ABBIENDI 03 (OPAL) [29]
 B3 =  B(τ− → µ− νµντ)
0.17340 ± 0.00090 ± 0.00060
ABBIENDI 04J (OPAL) [45]
 B16 =  B(τ− → K− π0 ντ)
0.004710 ± 0.000590 ± 0.000230
 B85 =  B(τ− → K− π+ π− ντ (ex.K0))
0.004150 ± 0.000530 ± 0.000400
ABBIENDI 99H (OPAL) [32]
 B5 =  B(τ− → e− νe ντ)
0.1781 ± 0.0009 ± 0.0006
ACKERSTAFF 98M (OPAL) [37]
 B8 =  B(τ− → h− ντ)
0.1198 ± 0.0013 ± 0.0016
 B13 =  B(τ− → h− π0 ντ)
0.25890 ± 0.00170 ± 0.00290
 B17 =  B(τ− → h− ≥ 2   π0  ντ)
0.0991 ± 0.0031 ± 0.0027
ACKERSTAFF 99E (OPAL) [76]
 B103 =  B(τ− → 3h− 2h+ ντ (ex.K0))
(910 ± 140 ± 60)· 10−6
 B104 =  B(τ− → 3h− 2h+ π0 ντ (ex.K0))
(270 ± 180 ± 90)· 10−6
AKERS 94G (OPAL) [48]
 B33 =  B(τ− → KS0 (particles)− ντ)
0.00970 ± 0.00090 ± 0.00060
AKERS 95Y (OPAL) [60]
 B55 =  B(τ− → h− h− h+ ≥ 0   neutrals  ντ (ex.K0))
0.1496 ± 0.0009 ± 0.0022
 B57 / 55 = 
 B(τ− → h− h− h+ ντ (ex.K0))
 B(τ− → h− h− h+ ≥ 0   neutrals  ντ (ex.K0))
0.6600 ± 0.0040 ± 0.0140
ALEXANDER 91D (OPAL) [35]
 B7 =  B(τ− → h− ≥ 0   KL0  ντ)
0.1210 ± 0.0070 ± 0.0050
AIHARA 87B (TPC) [58]
 B54 =  B(τ− → h− h− h+ ≥ 0  neutrals ≥ 0   KL0  ντ)
0.1510 ± 0.0080 ± 0.0060
BAUER 94 (TPC) [69]
 B82 =  B(τ− → K− π− π+ ≥ 0   neutrals  ντ)
0.00580 −0.00130+0.00150 ± 0.00120
 B92 =  B(τ− → π− K− K+ ≥ 0   neutrals  ντ)
0.001500 −0.000700+0.000900 ± 0.000300
 


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