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S. Upadhyayula

0000-0001-6918-2488
nucl-exhep-exphysics.ins-detnucl-thastro-ph.COastro-ph.SRastro-ph.HEastro-ph.IMhep-phquant-ph

On Valency

published · living versions
W_8y6b69wh·v1 · currentpublished
Direct measurement of the 23Mg(p,γ)24Al{}^{23}\mathrm{Mg}(p, γ){}^{24}\mathrm{Al} reaction using the DRAGON recoil separator and a hybrid array of γγ-ray detectors
with A. C. Edwin, G. Christian, A. Lennarz, I. Casandjian +17
1 version

Preprints & journals

25 papers in the corpus · 2014–2025
Direct measurement of 59^{59}Cu(pp,α\alpha)56^{56}Ni precludes a strong NiCu cycle in Type-I X-ray bursts2512.12025v1 · N. Bhathi, J. S. Randhawa, R. Kanungo et al.2025 · 0 citationsarXiv
Direct experimental constraints on the spatial extent of a neutrino wavepacket.39939769 · Smolsky, Joseph, Leach, Kyle G, Abells, Ryan et al.2025 · 10 citationsNature. 2025;638(8051):640-644
First In-Beam Demonstration of a hybrid LaBr3/CeBr3/BGO array to measure radiative capture resonance energies in an extended gas target using a novel time of flight technique2501.03861v1 · G. Christian, D. Hutcheon, I. Casandjian et al.2025 · 2 citationsarXiv
Study of the in34in ^{34}Ar(α,p\alpha,p)37^{37}K reaction rate via proton scattering on 37^{37}K, and its impact on properties of modeled X-Ray bursts2411.09918v2 · A. Lauer-Coles, C. M. Deibel, J. C. Blackmon et al.2024 · 0 citationsarXiv
Signal processing and spectral modeling for the BeEST experiment2409.19085v3 · Inwook Kim, Connor Bray, Andrew Marino et al.2024 · 7 citationsPhys. Rev. D 111, 052010 - Published 19 March, 2025
alpha-cluster structure of 18Ne2206.10659v2 · M. Barbui, A. Volya, E. Aboud et al.2022 · 8 citationsarXiv
Horizons: Nuclear Astrophysics in the 2020s and Beyond2205.07996v1 · H. Schatz, A. D. Becerril Reyes, A. Best et al.2022 · 51 citationsarXiv
First direct measurement of 59^{59}Cu(p,α\alpha)56^{56}Ni: A step towards constraining the Ni-Cu cycle in the Cosmos2107.05606v1 · J.S. Randhawa, R. Kanungo, J. Refsgaard et al.2021 · 14 citationsarXiv
Study of (6^6Li, dd) and (6^6Li, tt) reactions on 22^{22}Ne and implications for ss-process nucleosynthesis2107.00131v1 · S. Ota, G. Christian, W. N. Catford et al.2021 · 18 citationsPhys. Rev. C 104, 055806 (2021)
Elastic scattering measurements for the 10^{10}C + 208^{208}Pb system at Elab_{\rm lab} = 66 MeV2106.05693v1 · R Linares, Mandira Sinha, E N Cardozo et al.2021 · 16 citationsPhysical Review C 103, 044613 (2021)
Evidence against the Efimov effect in 12C^{12}\mathrm{C} from spectroscopy and astrophysics2012.08432v5 · J. Bishop, G.V. Rogachev, S. Ahn et al.2020 · 14 citationsPhys. Rev. C 103, 051303 (2021)
Almost medium-free measurement of the Hoyle state direct-decay component with a TPC2012.08437v1 · J. Bishop, G.V. Rogachev, S. Ahn et al.2020 · 20 citationsPhys. Rev. C 102, 041303(R) (2020)
An evidence-based assumption that helps to reduce the discrepancy between the observed and predicted 7^7Be abundances in novae2010.09825v2 · Pavel A. Denissenkov (UVic), Chris Ruiz (TRIUMF), Sriteja Upadhyayula (TRIUMF) et al.2020 · 11 citationsarXiv
Search for the high-spin members of the α\alpha:2n:α\alpha band in 10^{10}Be2003.07910v1 · Sriteja Upadhyayula, Grigory V. Rogachev, Jack Bishop et al.2020 · 6 citationsarXiv
Constraining the 22^{22}Ne(α\alpha,γ\gamma)26^{26}Mg and 22^{22}Ne(α\alpha,n)25^{25}Mg reaction rates using sub-Coulomb α\alpha-transfer reactions2001.08316v2 · H. Jayatissa, G.V. Rogachev, V.Z. Goldberg et al.2020 · 29 citationsPhys. Lett. B, 802 (2020) 135267
Decay properties of 22Ne+α^{22}\mathrm{Ne} + \alpha resonances and their impact on ss-process nucleosynthesis2001.08206v2 · S. Ota, G. Christian, G. Lotay et al.2020 · 24 citationsarXiv
Texas Active Target (TexAT) detector for experiments with rare isotope beams1906.07845v2 · E. Koshchiy, G.V. Rogachev, E. Pollacco et al.2019 · 49 citationsNuclear Inst. and Methods in Physics Research, A 957 (2020) 163398
Structure of 9C through proton resonance scattering with Texas Active Target detector1903.01402v2 · J. Hooker, G.V. Rogachev, E. Koshchiy et al.2019 · 13 citationsPhys. Rev. C 100, 054618 (2019)
Structure of 10N in 9C+p resonance scattering1703.01366v1 · J. Hooker, G.V. Rogachev, V.Z. Goldberg et al.2017 · 19 citationsarXiv
New Results from the Search for Low-Mass Weakly Interacting Massive Particles with the CDMS Low Ionization Threshold Experiment.26943526 · Agnese, R, Anderson, A J, Aramaki, T et al.2016 · 368 citationsPhysical review letters. 2016;116(7):071301
Improved WIMP-search reach of the CDMS II germanium data1504.05871v2 · R. Agnese, A.J. Anderson, M. Asai et al.2015 · 75 citationsPhys. Rev. D 92, 072003 (2015)
First direct limits on lightly ionizing particles with electric charge less than e/6.25839256 · Agnese, R, Anderson, A J, Balakishiyeva, D et al.2015 · 24 citationsPhysical review letters. 2015;114(11):111302
Dark matter effective field theory scattering in direct detection experiments1503.03379v3 · K. Schneck, B. Cabrera, D.G. Cerdeno et al.2015 · 60 citationsPhys. Rev. D 91, 092004 (2015)
Cryogenic Dark Matter Search Detector Fabrication Process and Recent Improvements1408.0295v3 · Andrew Jastram, Rusty Harris, Rupak Mahapatra et al.2014 · 13 citationsarXiv
Search for low-mass weakly interacting massive particles with SuperCDMS.24996080 · Agnese, R, Anderson, A J, Asai, M et al.2014 · 516 citationsPhysical review letters. 2014;112(24):241302
Career total: 61 works. 25 are in this corpus.

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