Vanadium-45
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Naturally occurring
vanadium Vanadium is a chemical element with the symbol V and atomic number 23. It is a hard, silvery-grey, malleable transition metal. The elemental metal is rarely found in nature, but once isolated artificially, the formation of an oxide layer ( pas ...
(23V) is composed of one stable isotope 51V and one radioactive isotope 50V with a half-life of 1.5×1017 years. 24 artificial radioisotopes have been characterized (in the range of mass number between 40 and 65) with the most stable being 49V with a half-life of 330 days, and 48V with a half-life of 15.9735 days. All of the remaining radioactive isotopes have half-lives shorter than an hour, the majority of them below 10 seconds, the least stable being 42V with a half-life shorter than 55 nanoseconds, with all of the isotopes lighter than it, and none of the heavier, have unknown half-lives. In 4 isotopes, metastable excited states were found (including 2 metastable states for 60V), which adds up to 5 meta states. The primary
decay mode Radioactive decay (also known as nuclear decay, radioactivity, radioactive disintegration, or nuclear disintegration) is the process by which an unstable atomic nucleus loses energy by radiation. A material containing unstable nuclei is consid ...
before the most abundant stable isotope 51V is electron capture. The next most common mode is beta decay. The primary
decay product In nuclear physics, a decay product (also known as a daughter product, daughter isotope, radio-daughter, or daughter nuclide) is the remaining nuclide left over from radioactive decay. Radioactive decay often proceeds via a sequence of steps ( ...
s before 51V are element 22 ( titanium) isotopes and the primary products after are element 24 (
chromium Chromium is a chemical element with the symbol Cr and atomic number 24. It is the first element in group 6. It is a steely-grey, lustrous, hard, and brittle transition metal. Chromium metal is valued for its high corrosion resistance and hardne ...
) isotopes.


List of isotopes

, - , 40V , style="text-align:right" , 23 , style="text-align:right" , 17 , 40.01109(54)# , , p , 39Ti , 2−# , , , - , 41V , style="text-align:right" , 23 , style="text-align:right" , 18 , 40.99978(22)# , , p , 40Ti , 7/2−# , , , - , 42V , style="text-align:right" , 23 , style="text-align:right" , 19 , 41.99123(21)# , <55 ns , p , 41Ti , 2−# , , , - , 43V , style="text-align:right" , 23 , style="text-align:right" , 20 , 42.98065(25)# , 80# ms , β+ , 43Ti , 7/2−# , , , - , rowspan=2, 44V , rowspan=2 style="text-align:right" , 23 , rowspan=2 style="text-align:right" , 21 , rowspan=2, 43.97411(13) , rowspan=2, 111(7) ms , β+ (>99.9%) , 44Ti , rowspan=2, (2+) , rowspan=2, , rowspan=2, , - , β+, α (<.1%) , 40Ca , - , style="text-indent:1em" , 44mV , colspan="3" style="text-indent:2em" , 270(100)# keV , 150(3) ms , β+ , 44Ti , (6+) , , , - , 45V , style="text-align:right" , 23 , style="text-align:right" , 22 , 44.965776(18) , 547(6) ms , β+ , 45Ti , 7/2− , , , - , 46V , style="text-align:right" , 23 , style="text-align:right" , 23 , 45.9602005(11) , 422.50(11) ms , β+ , 46Ti , 0+ , , , - , style="text-indent:1em" , 46mV , colspan="3" style="text-indent:2em" , 801.46(10) keV , 1.02(7) ms , IT , 46V , 3+ , , , - , 47V , style="text-align:right" , 23 , style="text-align:right" , 24 , 46.9549089(9) , 32.6(3) min , β+ , 47Ti , 3/2− , , , - , 48V , style="text-align:right" , 23 , style="text-align:right" , 25 , 47.9522537(27) , 15.9735(25) d , β+ , 48Ti , 4+ , , , - , 49V , style="text-align:right" , 23 , style="text-align:right" , 26 , 48.9485161(12) , 329(3) d , EC , 49Ti , 7/2− , , , - , rowspan=2, 50V
Primordial Primordial may refer to: * Primordial era, an era after the Big Bang. See Chronology of the universe * Primordial sea (a.k.a. primordial ocean, ooze or soup). See Abiogenesis * Primordial nuclide, nuclides, a few radioactive, that formed before ...
radionuclide A radionuclide (radioactive nuclide, radioisotope or radioactive isotope) is a nuclide that has excess nuclear energy, making it unstable. This excess energy can be used in one of three ways: emitted from the nucleus as gamma radiation; transfer ...
, rowspan=2 style="text-align:right" , 23 , rowspan=2 style="text-align:right" , 27 , rowspan=2, 49.9471585(11) , rowspan=2, 1.4(4)×1017 y , EC (83%) , 50Ti , rowspan=2, 6+ , rowspan=2, 0.00250(4) , rowspan=2, 0.002487–0.002502 , - , β (17%) , 50Cr , - , 51V , style="text-align:right" , 23 , style="text-align:right" , 28 , 50.9439595(11) , colspan=3 align=center, Stable , 7/2− , 0.99750(4) , 0.997498–0.997513 , See V-51 nuclear magnetic resonance , - , 52V , style="text-align:right" , 23 , style="text-align:right" , 29 , 51.9447755(11) , 3.743(5) min , β , 52Cr , 3+ , , , - , 53V , style="text-align:right" , 23 , style="text-align:right" , 30 , 52.944338(3) , 1.60(4) min , β , 53Cr , 7/2− , , , - , 54V , style="text-align:right" , 23 , style="text-align:right" , 31 , 53.946440(16) , 49.8(5) s , β , 54Cr , 3+ , , , - , style="text-indent:1em" , 54mV , colspan="3" style="text-indent:2em" , 108(3) keV , 900(500) ns , , , (5+) , , , - , 55V , style="text-align:right" , 23 , style="text-align:right" , 32 , 54.94723(11) , 6.54(15) s , β , 55Cr , (7/2−)# , , , - , rowspan=2, 56V , rowspan=2 style="text-align:right" , 23 , rowspan=2 style="text-align:right" , 33 , rowspan=2, 55.95053(22) , rowspan=2, 216(4) ms , β (>99.9%) , 56Cr , rowspan=2, (1+) , rowspan=2, , rowspan=2, , - , β, n , 55Cr , - , rowspan=2, 57V , rowspan=2 style="text-align:right" , 23 , rowspan=2 style="text-align:right" , 34 , rowspan=2, 56.95256(25) , rowspan=2, 0.35(1) s , β (>99.9%) , 57Cr , rowspan=2, (3/2−) , rowspan=2, , rowspan=2, , - , β, n (<.1%) , 56Cr , - , rowspan=2, 58V , rowspan=2 style="text-align:right" , 23 , rowspan=2 style="text-align:right" , 35 , rowspan=2, 57.95683(27) , rowspan=2, 191(8) ms , β (>99.9%) , 58Cr , rowspan=2, 3+# , rowspan=2, , rowspan=2, , - , β, n (<.1%) , 57Cr , - , rowspan=2, 59V , rowspan=2 style="text-align:right" , 23 , rowspan=2 style="text-align:right" , 36 , rowspan=2, 58.96021(33) , rowspan=2, 75(7) ms , β (>99.9%) , 59Cr , rowspan=2, 7/2−# , rowspan=2, , rowspan=2, , - , β, n (<.1%) , 58Cr , - , rowspan=2, 60V , rowspan=2 style="text-align:right" , 23 , rowspan=2 style="text-align:right" , 37 , rowspan=2, 59.96503(51) , rowspan=2, 122(18) ms , β (>99.9%) , 60Cr , rowspan=2, 3+# , rowspan=2, , rowspan=2, , - , β, n (<.1%) , 59Cr , - , style="text-indent:1em" , 60m1V , colspan="3" style="text-indent:2em" , 0(150)# keV , 40(15) ms , , , 1+# , , , - , style="text-indent:1em" , 60m2V , colspan="3" style="text-indent:2em" , 101(1) keV , >400 ns , , , , , , - , 61V , style="text-align:right" , 23 , style="text-align:right" , 38 , 60.96848(43)# , 47.0(12) ms , β , 61Cr , 7/2−# , , , - , 62V , style="text-align:right" , 23 , style="text-align:right" , 39 , 61.97378(54)# , 33.5(20) ms , β , 62Cr , 3+# , , , - , 63V , style="text-align:right" , 23 , style="text-align:right" , 40 , 62.97755(64)# , 17(3) ms , β , 63Cr , (7/2−)# , , , - , 64V , style="text-align:right" , 23 , style="text-align:right" , 41 , 63.98347(75)# , 10# ms 300 ns, , , , , , - , 65V , style="text-align:right" , 23 , style="text-align:right" , 42 , 64.98792(86)# , 10# ms , , , 5/2−# , ,


References

* Isotope masses from: ** * Isotopic compositions and standard atomic masses from: ** ** * Half-life, spin, and isomer data selected from the following sources. ** ** ** * History of discovery: A. Shore, A. Fritsch, M. Heim, A. Schuh, M. Thoennessen. Discovery of the Vanadium Isotopes
arXiv:0907.1994
(2009). {{Navbox element isotopes Vanadium
Vanadium Vanadium is a chemical element with the symbol V and atomic number 23. It is a hard, silvery-grey, malleable transition metal. The elemental metal is rarely found in nature, but once isolated artificially, the formation of an oxide layer ( pas ...