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1 Decay Scheme Eu- disintegrates 100 % via beta minus disintegration to excited levels and to the ground state in Gd-. L europium se désintègre par émission bêta moins vers des niveaux excités et le niveau fondamental de gadolinium. 2 Nuclear Data T 1/2 ( Eu ) : 4,753 (14) a Q ( Eu ) : 252,1 (11) 2.1 β Transitions Probability Nature lg f t 100 β0,6 106,1 (11) 0,73 (7) 1st Forbidden 8,83 β0,5 134,2 (11) 1,85 (23) Allowed 8,75 β0,4 144,6 (11) <0,01 2nd Forbidden >11,1 β0,3 146,9 (11) 46,1 (29) Allowed 7,47 β0,2 165,7 (11) 25,5 (29) Allowed 7,89 β0,1 192,2 (11) 9,2 (4) 1st Forbidden 8,54 β0,0 252,2 (11) 16,6 (11) Allowed 8,65 2.2 Gamma Transitions and Internal Conversion Coefficients P γce Multipolarity α K α L α M α T 100 γ 5,4(Gd) 10,4183 (13) 1,2 (1) M10,11%E2 265 (22) 59 (5) 340 (23) γ 3,2(Gd) 18,763 (2) 17,7 (28) M17,1%E2 284 (22) 65,9 (30) 367 (22) KRI /V. P. Chechev, V. O. Sergeev 1 14/02/2002 21/6/2004

P γce Multipolarity α K α L α M α T 100 γ 4,2(Gd) 21,035 (4) 1,2 (1) E2 2013 (60) 471 (14) 2600 (70) γ 2,1(Gd) 26,531 (21) 0,94 (7) E1 1,55 (5) 0,342 (11) 1,98 (6) γ 5,2(Gd) 31,444 (7) 0,50 (15) M117%E2 53 (13) 12,5 (30) 69 (14) γ 3,1(Gd) 45,299 (1) 1,89 (7) E1 0,347 (10) 0,0758 (23) 0,443 (11) γ 5,1(Gd) 57,989 (1) 0,150 (14) E1 1,021 (10) 0,173 (5) 0,0377 (11) 1,243 (11) γ 1,0(Gd) 60,0086 (10) 12,8 (6) M14,1%E2 7,48 (9) 1,55 (6) 0,347 (14) 9,48 (11) γ 6,1(Gd) 86,0591 (10) 0,65 (7) M13,0%E2 2,66 (3) 0,443 (17) 0,098 (4) 3,23 (4) γ 2,0(Gd) 86,5479 (10) 44,0 (5) E1 0,360 (4) 0,0561 (17) 0,0122 (4) 0,432 (7) γ 3,0(Gd) 105,3083 (10) 26,5 (8) E1 0,214 (2) 0,0323 (10) 0,00701 (21) 0,255 (3) γ 6,0(Gd) 146,071 (1) 0,084 (7) E2 0,397 (4) 0,198 (6) 0,0462 (14) 0,653 (8) 3 Atomic Data 3.1 Gd ω K : 0,932 (4) ω L : 0,176 (6) n KL : 0,850 (4) 3.1.1 X Radiations Relative probability K Kα 2 42,3093 55,59 Kα 1 42,9967 100 Kβ 3 48,556 } Kβ 1 48,697 } Kβ 5 49,053 } 31,8 Kβ 2 49,961 } Kβ 4 50,099 } 8,1 KO 2,3 50,219 } L Ll 5,36 Lγ 8,35 KRI /V. P. Chechev, V. O. Sergeev 2 14/02/2002 21/6/2004

3.1.2 Auger Electrons Relative probability Auger K KLL 33,49 35,75 100 KLX 39,98 42,86 51,3 KXY 47,98 48,95 6,58 Auger L 3,4 8,3 4 Electron Emissions Electrons per 100 disint. e AL (Gd) 3,4-8,3 35,1 (20) e AK (Gd) 1,71 (11) KLL 33,49-35,75 } KLX 39,98-42,86 } KXY 47,98-48,95 } ec 5,4 L (Gd) 2,043-3,175 0,93 (13) ec 5,1 K (Gd) 7,75 (3) 0,068 (7) ec 5,4 M (Gd) 8,538-9,233 0,21 (3) ec 1,0 K (Gd) 9,770 (3) 9,1 (4) ec 3,2 L (Gd) 10,387-11,520 13,6 (23) ec 4,2 L (Gd) 12,659-13,792 0,93 (18) ec 3,2 M (Gd) 16,882-17,578 3,2 (5) ec 2,1 L (Gd) 18, - 19,288 0,49 (4) ec 4,2 M (Gd) 19,154-19,850 0,22 (4) ec 5,2 L (Gd) 23,068-24,201 0,38 (4) ec 2,1 M (Gd) 24,650-25,346 0,108 (8) ec 5,2 M (Gd) 29,563-30,259 0,09 (3) ec 6,1 K (Gd) 35,820 (3) 0,41 (5) ec 2,0 K (Gd) 36,309 (3) 11,05 (16) ec 3,1 L (Gd) 36,923-38,056 0,45 (2) ec 3,1 M (Gd) 43,418-44,114 0,100 (5) ec 5,1 L (Gd) 49,613-50,746 0,012 (1) ec 1,0 L (Gd) 51,633-52,766 1,89 (11) ec 3,0 K (Gd) 55,069 (3) 4,52 (14) ec 5,1 M (Gd) 56,108-56,804 0,0030 (3) ec 1,0 M (Gd) 58,128-58,823 0,42 (3) ec 6,1 L (Gd) 77,683-78,816 0,068 (8) ec 2,0 L (Gd) 78,172-79,305 1,72 (5) ec 6,1 M (Gd) 84,178-84,874 0,015 (2) ec 2,0 M (Gd) 84,667-85,363 0,375 (13) KRI /V. P. Chechev, V. O. Sergeev 3 14/02/2002 21/6/2004

Electrons per 100 disint. ec 6,0 K (Gd) 95,832 (3) 0,0202 (16) ec 3,0 L (Gd) 96,933-98,066 0,68 (3) ec 3,0 M (Gd) 103,428-104,123 0,148 (8) ec 6,0 L (Gd) 137,696-138,829 0,0101 (8) ec 6,0 M (Gd) 144,190-144,886 0,0024 (2) β0,6 max: 106,1 (11) 0,73 (7) β0,6 avg: 27,8 (3) β0,5 max: 134,2 (11) 1,85 (23) β0,5 avg: 35,6 (3) β0,4 max: 144,6 (11) 0,01 β0,4 avg: β0,3 max: 146,9 (11) 46,1 (29) β0,3 avg: 39,2 (3) β0,2 max: 165,7 (11) 25,5 (29) β0,2 avg: 44,6 (3) β0,1 max: 192,2 (11) 9,2 (4) β0,1 avg: 52,3 (3) β0,0 max: 252,2 (11) 16,6 (11) β0,0 avg: 70,2 (3) 5 Photon Emissions 5.1 X-Ray Emissions Photons per 100 disint. XL (Gd) 5,36 8,35 7,5 (5) XKα 2 (Gd) 42,3093 6,70 (13) } Kα XKα 1 (Gd) 42,9967 12,05 (23) } XKβ 3 (Gd) 48,556 } XKβ 1 (Gd) 48,697 } 3,84 (11) K β 1 XKβ 5 (Gd) 49,053 } XKβ 2 (Gd) 49,961 } XKβ 4 (Gd) 50,099 } 0,977 (26) K β 2 XKO 2,3 (Gd) 50,219 } KRI /V. P. Chechev, V. O. Sergeev 4 14/02/2002 21/6/2004

5.2 Gamma Emissions Photons per 100 disint. γ 5,4 (Gd) 10,4183 (13) 0,0035 (4) γ 3,2 (Gd) 18,763 (2) 0,048 (7) γ 4,2 (Gd) 21,035 (4) 0,00046 (3) γ 2,1 (Gd) 26,531 (21) 0,316 (22) γ 5,2 (Gd) 31,444 (7) 0,0071 (15) γ 3,1 (Gd) 45,299 (1) 1,31 (5) γ 5,1 (Gd) 57,989 (1) 0,067 (6) γ 1,0 (Gd) 60,0086 (10) 1,22 (5) γ 6,1 (Gd) 86,0591 (10) 0,154 (17) γ 2,0 (Gd) 86,5479 (10) 30,7 (3) γ 3,0 (Gd) 105,3083 (10) 21,1 (6) γ 6,0 (Gd) 146,071 (1) 0,051 (4) 6 Main Production Modes { Sm 154(n,γ)Sm Possible impurities : Eu 152, Eu 154 7 References - J.A.Marinsky, L.E.Glendenin, F.Metzger. MIT-LNS Progr Report NP-1272 (1949) 67 - M.R.Lee, R.Katz. Phys.Rev. 93 (1954) - V.S.Dubey, C.E.Mandeville, M.A.Rothman. Phys.Rev. 103 (1956) 1430 - M.C. Joshi, B.V.Thosar. Proc. Indian Acad. Sci. 50A (1959) 342 - J. de Boer, M.Martin, P.Marmier. Helv. Phys. Acta 32 (1959) 658 - E.N.Hatch, F.Boehm. Z. Physik (1959) 609 (Gamma ray energies and relative emission probabilities) - B.N. Subba Rao. Nuovo Cim. 16 (1960) 283 - B.N. Subba Rao. Nucl.Phys. 28 (1961) 503 - B. Harmatz, T.H. Handley, J.W. Mihelich. Phys.Rev. 128 (1962) 1176 - D.Ashery, A.E.Blaugrund, R.Kalish. Nucl.Phys. 76 (1966) 336 - C.Foin, J.Oms, J-L.Barat. J.Phys.(Paris) 28 (1967) 861 (G-energies, P(KX), Pce, multipolarity mixing ratios) - J.Kormicki, H.Niewodniczanski, Z.Stachura, K.Zuber, A.Budziak. Nucl.Phys. A102 (1967) 253 KRI /V. P. Chechev, V. O. Sergeev 5 14/02/2002 21/6/2004

- P.H.Blichert-Toft, E.G.Funk, J.W.Mihelich,. Nucl.Phys. A96 (1967) 190 (KX-ray emission probabilities) - R.E.Berg, J.L.Snelgrove, E.Kashy. Phys.Rev. 153 (1967) 1165 - R.S.Hager, E.C.Seltzer. Nucl. Data Tables A4 (1968) 1 (Theoretical ICC) - J.Oms, C.Foin, A.Baudry. Comp. Rend. Acad. Sci. (Paris) 266B (1968) 1292 (KX ray emission probabilities) - P.Alexander. Nucl.Phys. A108 (1968) 145 - R.A.Meyer, J.W.T.Meadows. Nucl.Phys. A132 (1969) 177 (Gamma and KX ray energies and emission probabilities) - R.S Mowatt. Can J.Phys. 48 (1970) 1933 - D.E.Raeside. Nucl. Instrum. Methods 87 (1970) 7 (Gamma ray energies) - J.D.Reierson, G.C.Nelson, E.N.Hatch. Nucl.Phys. A153 (1970) 109 (Gamma ray energies and relative emission probabilities) - R.J.Gehrke, R.A.Lokken. Nucl. Instrum. Methods 97 (1971) 219 - J.F.Emery, S.A.Reynolds, E.I.Wyatt, G.I.Gleason. Nucl.Sci.Eng. 48 (1972) 319 - B.N. Subba Rao. Current Sci. (India) 41 (1972) 692 - S.I.Salem, S.L.Panossian, R.A.Krause. At.Data.Nuc.Data.Tables 14 (1974) 91 (KX ray relative emission probabilities) - W.R.Daniels, D.W Barr, G.F.Grisham, F.O.Lawrence. J. Inorg. Nucl. Chem. 36 (1974) 3874 - R.L.Heath. Report Ancr 1000-2 (1974) - P.Christmas, P.Cross. J.Phys.(London) G1 (1975) 113 (Gamma ray energies, multipolarity mixing ratios) - H. J. Krell, S. Hofmann. Z. Physik A272 (1975) 257 (Egamma, P gamma, multipolarity mixing ratios) - R.A.Meyer, R.Gunnink, C.M.Lederer, E.Browne. Phys.Rev. C13 (1976) 2466 (Gamma ray energies) - F.P.Larkins. At.Data.Nuc.Data.Tables 20 (1977) 313 (Auger electron energies) - I.M.Band, M.B.Trzhaskovskaya. Special report of Leningrad nuclear physics institute (1978) (Theoretical ICC) - F.Rösel, H.M.Friess, K.Alder, H.C.Pauli. At.Data.Nuc.Data.Tables 21 (1978) 92 (Theoretical ICC) - B.M.Coursey, D.D.Hoppes, F.J. Schima. Nucl. Instrum. Methods 193 (1982) 1 - K.F.Walz, K.Debertin, H.Schrader. Int. J. Appl. Radiat. Isotop. 34 (1983) 1191 - H.H.Schmidt, W.Stoffl, T.Egidy, P.Hungerford, H.J. Scheerer, K. Schreckenbach, H.G.Borner, D.D.Warner, R.E.Chrien, R.C.Greenwood, C.W. Reich. J.Phys.(London) G12 (1986) 411 (Gamma ray and level energies, multipolarity mixing ratios) - F. Lagoutine, Coursol N., Legrand J. Table de Radionucleides, ISBN-2-7272-0078-1. (LMRI, 1982-1987) (1987) ( of Auger electrons) - R.A.Meyer. Fizika (Zagreb) 22 (1990) 153 (Gamma ray energies and relative emission probabilities) - V.M. Gorozhankin, A.Kovalik, L.E.Ir, M.A. Makhmud, Ya.Novak, A.F. Novgorodov. Program and Thesis, Proc 40th Ann Conf Nucl Spectrosc Struct At Nuclei, Leningrad (1990) 97 (Gamma ray energies, multipolarity mixing ratios) - T.E.Sazonova, G.A.Isaakyan, N.I.Karmalitsyn, S.V. Sepman, A.V. Zanevsky. Nucl. Instrum. Methods Phys. Res. A312 (1992) 372 (105,31 gamma ray absolute emission probability) KRI /V. P. Chechev, V. O. Sergeev 6 14/02/2002 21/6/2004

- M.P.Unterweger, D.D.Hoppes, F.J.Schima. Nucl. Instrum. Methods Phys. Res. A312 (1992) 349 - I.M.Band, M.B.Trzhaskovskaya. At.Data.Nuc.Data.Tables 55 (1993) 43 (Theoretical ICC) - J.L.Thompson, and A.R.Cartwright. Appl. Rad. Isotopes 44 (1993) 707 - B.M.Coursey, J.M.Calhoun, J.Cessna, D.B.Golas, F.J.Schima, M.P. Unterweger. Nucl. Inst. Meth. Phys. Res. A339 (1994) 26 (86,55 gamma ray absolute emission probability) - A.G.Egorov, V.P.Chechev. Nucl. Instrum. Methods Phys. Res. A339 (1994) 248 (Gamma and KX ray absolute emission probabilities) - C.W.Reich. Nucl.Data Sheets 71 (1994) 709 (Decay scheme and level energies) - G. Audi, A.H Wapstra. Nucl.Phys. A595 (1995) 409 (Q value) - V.P.Chechev, A.G.Egorov, G.E.Shchukin. Appl. Rad. Isotopes 47 (1996) 329 - E.Schönfeld, H.Janssen. Nucl. Instrum. Methods Phys. Res. A369 (1996) 527 (Atomic data) - H.Siegert, H.Schrader, U.Schotzig. Appl. Rad. Isotopes 49 (1998) 1397 - E.Schönfeld, G.Rodloff. Report PTB-6.11, Braunschweig 1999-1 (1999) (KX ray energies and relative emission probabilities) - V.P.Chechev, A.G.Egorov. Appl. Rad. Isotopes 52 (2000) 601 (Evaluation of half-life) - M.P.Unterweger. Appl. Rad. Isotopes 56 (2002) 125 KRI /V. P. Chechev, V. O. Sergeev 7 14/02/2002 21/6/2004

BNM - LNHB/CEA - Table de Radionucléides Eu 63 92 0 Eu 63 92 5/2 ; 0 β - 4,753 (14) a γ Emission probabilities per 100 disintegrations 0,73 6 4 1 0,15 0,05-7/2 ; 146,0711 0,101 ns 1,85 0,01 46,1 5 4 3 3 5 7 1 7 0,00 0,00 0,06 0,00 0 46 8 0,04 1,31 2 1,1 7/2 ; 117,998 9/2 ; 107,583 3/2 ; 105,3083 1,16 ns 25,5 2 6 0,31 3 0,7 5/2 ; 86,5479 6,50 ns 9,2 1 1,22-5/2 ; 60,0086 0,193 ns 16,6 0 Gd 64 91 - Q = 252,1 % β - = 100-3/2 ; 0 Stable KRI / V.P. Chechev, V.O. Sergeev Scheme page : 1/1 14/02/02-16/07/03