Matches in SemOpenAlex for { <https://semopenalex.org/work/W2336393482> ?p ?o ?g. }
- W2336393482 abstract "A set of global optical potential parameters describing the $A=3$ particles ($^{3}mathrm{He}$ and ${}^{3}mathrm{H}$) elastic scattering from $1p$-shell nuclei, $mathrm{HT}1p$, is obtained by simultaneously fitting 118 sets of experimental data of $^{3}mathrm{He}$ and ${}^{3}mathrm{H}$ elastic scattering from $^{9}mathrm{Be},{}^{10}mathrm{B},{}^{11}mathrm{B},{}^{12}mathrm{C},{}^{13}mathrm{C},{}^{14}mathrm{C},{}^{14}mathrm{N},{}^{15}mathrm{N},{}^{16}mathrm{O},{}^{17}mathrm{O}$, and ${}^{18}mathrm{O}$ with incident energies from $4ensuremath{le}Eensuremath{le}118.5$ MeV and 24 sets of elastic scattering data with the $^{6}mathrm{Li}$ and $^{7}mathrm{Li}$ targets from $3ensuremath{le}Eensuremath{le}44$ MeV. $mathrm{HT}1p$ is found to be superior to GDP08 [D. Y. Pang, P. Roussel-Chomaz, H. Savajols, R. L. Varner, and R. Wolski, Phys. Rev. C 79, 024615 (2009)], which is a systematic potential designed for the heavy-target region, in the reproduction of the angular distributions of elastic scattering cross sections of $^{3}mathrm{He}$ and ${}^{3}mathrm{H}$ from $1p$-shell nuclei at energies below 100 MeV. At energies above 100 MeV, GDP08 is found to be better than HT1p." @default.
- W2336393482 created "2016-06-24" @default.
- W2336393482 creator A5008766995 @default.
- W2336393482 creator A5022989303 @default.
- W2336393482 creator A5041826017 @default.
- W2336393482 date "2015-02-18" @default.
- W2336393482 modified "2023-10-17" @default.
- W2336393482 title "Optical model potential of<mml:math xmlns:mml=http://www.w3.org/1998/Math/MathML><mml:mrow><mml:mi>A</mml:mi><mml:mo>=</mml:mo><mml:mn>3</mml:mn></mml:mrow></mml:math>projectiles for<mml:math xmlns:mml=http://www.w3.org/1998/Math/MathML><mml:mrow><mml:mn>1</mml:mn><mml:mi>p</mml:mi></mml:mrow></mml:math>-shell nuclei" @default.
- W2336393482 cites W1598973876 @default.
- W2336393482 cites W1628094491 @default.
- W2336393482 cites W1825030427 @default.
- W2336393482 cites W1868339964 @default.
- W2336393482 cites W1965090142 @default.
- W2336393482 cites W1966383270 @default.
- W2336393482 cites W1967679403 @default.
- W2336393482 cites W1973269247 @default.
- W2336393482 cites W1973967548 @default.
- W2336393482 cites W1974608217 @default.
- W2336393482 cites W1974792979 @default.
- W2336393482 cites W1975934058 @default.
- W2336393482 cites W1977894608 @default.
- W2336393482 cites W1981691017 @default.
- W2336393482 cites W1987028746 @default.
- W2336393482 cites W1987562717 @default.
- W2336393482 cites W1990052327 @default.
- W2336393482 cites W1993958101 @default.
- W2336393482 cites W1994456774 @default.
- W2336393482 cites W1998052412 @default.
- W2336393482 cites W1999919843 @default.
- W2336393482 cites W2000311118 @default.
- W2336393482 cites W2003537968 @default.
- W2336393482 cites W2004480234 @default.
- W2336393482 cites W2006748870 @default.
- W2336393482 cites W2006820723 @default.
- W2336393482 cites W2008611632 @default.
- W2336393482 cites W2008956452 @default.
- W2336393482 cites W2010484781 @default.
- W2336393482 cites W2010759842 @default.
- W2336393482 cites W2010857919 @default.
- W2336393482 cites W2011687901 @default.
- W2336393482 cites W2011744819 @default.
- W2336393482 cites W2015727472 @default.
- W2336393482 cites W2016966780 @default.
- W2336393482 cites W2017979814 @default.
- W2336393482 cites W2018515521 @default.
- W2336393482 cites W2019540807 @default.
- W2336393482 cites W2024431386 @default.
- W2336393482 cites W2032356059 @default.
- W2336393482 cites W2035490005 @default.
- W2336393482 cites W2036093459 @default.
- W2336393482 cites W2036798805 @default.
- W2336393482 cites W2039155201 @default.
- W2336393482 cites W2041313948 @default.
- W2336393482 cites W2041534833 @default.
- W2336393482 cites W2043946154 @default.
- W2336393482 cites W2043977249 @default.
- W2336393482 cites W2044696683 @default.
- W2336393482 cites W2048125254 @default.
- W2336393482 cites W2050428908 @default.
- W2336393482 cites W2055614651 @default.
- W2336393482 cites W2055986546 @default.
- W2336393482 cites W2056493719 @default.
- W2336393482 cites W2060550422 @default.
- W2336393482 cites W2061071440 @default.
- W2336393482 cites W2063695143 @default.
- W2336393482 cites W2063937481 @default.
- W2336393482 cites W2064496647 @default.
- W2336393482 cites W2067464974 @default.
- W2336393482 cites W2067822189 @default.
- W2336393482 cites W2068602392 @default.
- W2336393482 cites W2070860769 @default.
- W2336393482 cites W2075001480 @default.
- W2336393482 cites W2075092824 @default.
- W2336393482 cites W2078681337 @default.
- W2336393482 cites W2083207833 @default.
- W2336393482 cites W2083956757 @default.
- W2336393482 cites W2085876925 @default.
- W2336393482 cites W2088824492 @default.
- W2336393482 cites W2089410323 @default.
- W2336393482 cites W2091563234 @default.
- W2336393482 cites W2092119817 @default.
- W2336393482 cites W2095000579 @default.
- W2336393482 cites W2096812640 @default.
- W2336393482 cites W2150988362 @default.
- W2336393482 cites W2159341295 @default.
- W2336393482 cites W2164112803 @default.
- W2336393482 cites W2268520238 @default.
- W2336393482 cites W2293701994 @default.
- W2336393482 cites W2326811332 @default.
- W2336393482 cites W2603950357 @default.
- W2336393482 cites W2790834053 @default.
- W2336393482 cites W3021481235 @default.
- W2336393482 cites W3048319400 @default.
- W2336393482 cites W3098615902 @default.
- W2336393482 cites W3123822601 @default.
- W2336393482 doi "https://doi.org/10.1103/physrevc.91.024611" @default.
- W2336393482 hasPublicationYear "2015" @default.
- W2336393482 type Work @default.
- W2336393482 sameAs 2336393482 @default.
- W2336393482 citedByCount "16" @default.