J. Manfredi
Washington University in St. Louis
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Publication
Featured researches published by J. Manfredi.
Physical Review Letters | 2012
I. A. Egorova; R. J. Charity; L. V. Grigorenko; Z. Chajecki; D. Coupland; J. M. Elson; T. K. Ghosh; M. E. Howard; H. Iwasaki; M. Kilburn; Jenny Lee; W. G. Lynch; J. Manfredi; S. T. Marley; A. Sanetullaev; R. Shane; D. V. Shetty; L. G. Sobotka; M. B. Tsang; J. Winkelbauer; A. H. Wuosmaa; M. Youngs; M. V. Zhukov
The interaction of an E/A=70-MeV (7)Be beam with a Be target was used to populate levels in (6)Be following neutron knockout reactions. The three-body decay of the ground and first excited states into the α+p+p exit channel were detected in the High Resolution Array. Precise three-body correlations extracted from the experimental data allowed us to obtain insight into the mechanism of the three-body democratic decay. The correlation data are in good agreement with a three-cluster-model calculation and thus validate this theoretical approach over a broad energy range.
Physical Review Letters | 2012
I. A. Egorova; R. J. Charity; L. V. Grigorenko; Z. Chajecki; D. Coupland; J. M. Elson; T. K. Ghosh; M. E. Howard; H. Iwasaki; M. Kilburn; Jenny Lee; W. G. Lynch; J. Manfredi; S. T. Marley; A. Sanetullaev; R. Shane; D. V. Shetty; Lee G. Sobotka; M. B. Tsang; J. Winkelbauer; A. H. Wuosmaa; M. Youngs; M. V. Zhukov
The interaction of an E/A=70-MeV (7)Be beam with a Be target was used to populate levels in (6)Be following neutron knockout reactions. The three-body decay of the ground and first excited states into the α+p+p exit channel were detected in the High Resolution Array. Precise three-body correlations extracted from the experimental data allowed us to obtain insight into the mechanism of the three-body democratic decay. The correlation data are in good agreement with a three-cluster-model calculation and thus validate this theoretical approach over a broad energy range.
Journal of Physics: Conference Series | 2013
R. J. Charity; J. M. Elson; S Komarov; L. G. Sobotka; J. Manfredi; R. Shane; I. A. Egorova; L. V. Grigorenko; K Hagino; D. Bazin; Z. Chajecki; D. Coupland; A. Gade; H. Iwasaki; M Kilbrun; Jenny Lee; S M Lukyanov; W. G. Lynch; M. Mocko; S P Lobastov; A Rodgers; A. Sanetullaev; M. B. Tsang; M. S. Wallace; J. Winkelbauer; M. Youngs; S. Hudan; C Metelko; M A Famino; S. T. Marley
Two-proton decay is discussed in a number of light isobaric multiplets. For the lightest two-proton emitter, 6Be, the momentum correlations between the three decay products were measured and found to be consistent with quantum-mechanical three-cluster-model calculations. Two-proton decay was also found for two members of the A=8 and A=11 quintets. Finally, a third member of the A=11 sextet, the double isobaric analog of the halo nucleus 11Li in 11B was observed by its two-proton decay.
Physical Review C | 2010
R. J. Charity; J. M. Elson; J. Manfredi; R. Shane; Z. Chajecki; D. Coupland; H. Iwasaki; M. Kilburn; Jenny Lee; W. G. Lynch; A. Sanetullaev; M. B. Tsang; J. Winkelbauer; M. Youngs; S. T. Marley; D. V. Shetty; A. H. Wuosmaa; T. K. Ghosh; M. E. Howard
8 C is found to decay to four protons and an α particle in two 2p emission steps. The correlations between the protons in the first step ( 8 C to 6 Be) exhibit a significant enhancement in the region of the decay phase space where the two protons have small relative energy, a region sometimes called the diproton region. The decay of the isobaric analog of 8 C in 8 B is also found to decay by 2p emission. This is the first case of isospin-allowed 2p decay between isobaric analog states.
Physical Review C | 2012
J. Manfredi; R. J. Charity; K. Mercurio; R. Shane; L. G. Sobotka; A. H. Wuosmaa; A. Banu; L. Trache; R. E. Tribble
Physical Review C | 2012
M. F. Jager; R. J. Charity; J. M. Elson; J. Manfredi; M. H. Mahzoon; L. G. Sobotka; M. McCleskey; R. G. Pizzone; B. T. Roeder; A. Spiridon; E. Simmons; L. Trache; M. Kurokawa
Physical Review C | 2011
R. J. Charity; J. M. Elson; J. Manfredi; R. Shane; L. G. Sobotka; B. A. Brown; Z. Chajecki; D. Coupland; H. Iwasaki; M. Kilburn; Jenny Lee; W. G. Lynch; A. Sanetullaev; M. B. Tsang; J. Winkelbauer; M. Youngs; S. T. Marley; D. V. Shetty; A. H. Wuosmaa; T. K. Ghosh; M. E. Howard
Physical Review C | 2011
R. J. Charity; J. M. Elson; J. Manfredi; R. Shane; L. G. Sobotka; Z. Chajecki; D. Coupland; H. Iwasaki; M. Kilburn; Jenny Lee; W. G. Lynch; A. Sanetullaev; M. B. Tsang; J. Winkelbauer; M. Youngs; S. T. Marley; D. V. Shetty; A. H. Wuosmaa; T. K. Ghosh; M. E. Howard
Physical Review C | 2010
R. J. Charity; J. M. Elson; J. Manfredi; R. Shane; L. G. Sobotka; Z. Chajecki; D. Coupland; H. Iwasaki; M. Kilburn; Jenny Lee; W. G. Lynch; A. Sanetullaev; M. B. Tsang; J. Winkelbauer; M. Youngs; S. T. Marley; D. V. Shetty; A. H. Wuosmaa; T. K. Ghosh; M. E. Howard
Physical Review C | 2015
R. J. Charity; J. M. Elson; J. Manfredi; R. Shane; L. G. Sobotka; Z. Chajecki; D. Coupland; H. Iwasaki; M. Kilburn; Jenny Lee; W. G. Lynch; A. Sanetullaev; M. B. Tsang; J. Winkelbauer; M. Youngs; S. T. Marley; D. V. Shetty; A. H. Wuosmaa