The 31P(d, n)32S reaction at 25 MeV

Miura, K.; Tohhei, T.; Nakagawa, T.; Satoh, A.; Ishimatsu, T.; Kawamura, T.; Furukawa, K.; Kabasawa, M.; Takahashi, Yutaka; Orihara, H.; Niizeki, T.; Ishii, K.; Ohnuma, H.

doi:10.1016/0375-9474(87)90329-0

Cited by 8 publications

(2 citation statements)

References 12 publications

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“…The DWBA analysis of single particle transfer reactions 'P( He, d) S [14] and 'P(d, n) S [20] to this unbound state, using the method described by Vincent and Fortune [21], yields (2J+1)I'&=9.1X 10 " eV (see Table III) Tables I and II. The resonance strengths of most of the (p, y) resonances on 'P and Cl have been measured directly in previous work [7 -9] and are compiled in Tables III and IV 'Results of a DWBA analysis of single particle transfer the quoted proton widths.…”

Section: Experimental Setup and Resultsmentioning

confidence: 99%

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Indirect study of low-energy resonances inP31(p,α)28
Ross
¹
,
Iliadis
²
,
Vouzoukas
³

et al. 1995
Phys. Rev. C
35
0
20
0
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The reaction sequences governing the reaction How in the rp process are important for the understanding of the energy generation and nucleosynthesis of heavy elements in hot and explosive stellar hydrogen burning. Of considerable interest are (p, n) reactions along the process path which lead to the formation of reaction cycles rather than to chains of proton capture processes and P decays. Previous direct attempts to measure the low-energy reaction cross sections for 'P(p, n) Si and Cl(p, a) S resulted only in upper limits for the strengths of possible low-energy resonances which may dominate the reaction rates. In this paper an indirect experimental approach is presented to study the structure of the low-energy unbound states in the compound nuclei S and Ar. The results allow a more accurate determination of the contributions of these low-energy levels in the (p, n) reaction channel.PACS number(s): 25.40.Ny, 25.40.Hs, 27.30.+t, 97.10.Cv

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Section: Experimental Setup and Resultsmentioning

confidence: 99%

“…reactions [14,20]. A 40% uncertainty is assigned to in the proton and o. resonance capture yields, [9].A 40% uncertainty is assigned to the quoted proton widths.…”

Section: Experimental Setup and Resultsmentioning

confidence: 99%

Indirect study of low-energy resonances inP31(p,α)28
Ross
¹
,
Iliadis
²
,
Vouzoukas
³

et al. 1995
Phys. Rev. C
35
0
20
0
View full text Add to dashboard Cite

show abstract

Nuclear Reactions

Bertulani

2015

Digital Encyclopedia of Applied Physics

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Nuclear reactions generate energy in nuclear reactors, in stars, and are responsible for the existence of all elements heavier than hydrogen in the universe. Nuclear reactions denote reactions between nuclei, and between nuclei and other fundamental particles, such as electrons and photons. A short description of the conservation laws and the definition of basic physical quantities is presented, followed by a more detailed account of specific cases: (a) formation and decay of compound nuclei; (b)direct reactions; (c) photon and electron scattering; (d) heavy ion collisions; (e) formation of a quark-gluon plasma; (f) thermonuclear reactions; (g) and reactions with radioactive beams. Whenever necessary, basic equations are introduced to help understand general properties of these reactions.

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Nuclear Reactions

Bertulani

2003

Digital Encyclopedia of Applied Physics

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Nuclear reactions generate energy in nuclear reactors, in stars, and are responsible for the existence of all elements heavier than hydrogen in the Universe. Nuclear reactions denote reactions between nuclei, and between nuclei and other fundamental particles, such as electrons and photons. A short description of the conservation laws and the definition of basic physical quantities is presented, followed by a more detailed account of specific cases: (i) formation and decay of compound nuclei; (ii)direct reactions; (iii) photon and electron scattering; (iv) heavy ion collisions; (v) formation of a quark–gluon plasma; (vi) thermonuclear reactions; and (vii) reactions with radioactive beams. Whenever necessary, basic equations are introduced to help understand general properties of these reactions.

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The 31P(d, n)32S reaction at 25 MeV

Cited by 8 publications

References 12 publications

Indirect study of low-energy resonances inP31(p,α)28
Ross
¹
,
Iliadis
²
,
Vouzoukas
³

et al. 1995
Phys. Rev. C
35
0
20
0
View full text Add to dashboard Cite

Indirect study of low-energy resonances inP31(p,α)28
Ross
¹
,
Iliadis
²
,
Vouzoukas
³

et al. 1995
Phys. Rev. C
35
0
20
0
View full text Add to dashboard Cite

Nuclear Reactions

Nuclear Reactions

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The 31P(d, n)32S reaction at 25 MeV

Cited by 8 publications

References 12 publications

Indirect study of low-energy resonances inP31(p,α)28Ross1, Iliadis2, Vouzoukas3 et al. 1995Phys. Rev. C350200View full textAdd to dashboardCite

Indirect study of low-energy resonances inP31(p,α)28Ross1, Iliadis2, Vouzoukas3 et al. 1995Phys. Rev. C350200View full textAdd to dashboardCite

Nuclear Reactions

Nuclear Reactions

Contact Info

Product

Resources

About

Indirect study of low-energy resonances inP31(p,α)28
Ross
¹
,
Iliadis
²
,
Vouzoukas
³

et al. 1995
Phys. Rev. C
35
0
20
0
View full text Add to dashboard Cite

Indirect study of low-energy resonances inP31(p,α)28
Ross
¹
,
Iliadis
²
,
Vouzoukas
³

et al. 1995
Phys. Rev. C
35
0
20
0
View full text Add to dashboard Cite