The Nuclear Physics group's research is in experimental Intermediate Energy Nuclear Physics. This work is based on experiments carried out at the Thomas Jefferson National Accelerator Facility, a national particle accelerator laboratory in Newport News, VA, and focuses on studies of very light nuclei (few-nucleon systems), typically hydrogen and helium isotopes, but it also includes studies on some very heavy nuclei, e.g. lead. The goals of this work is to study properties of the substructure of nucleons and characteristics of nuclear reactions. The group is part of the Jefferson Lab Hall A Collaboration, a larger collaboration that includes nuclear physicists from this country and abroad whose research is based at the CEBAF electron accelerator of Jefferson Lab. Typically an experiment, including all data taking, is done at Jefferson Lab, while planning, preparation, specialized equipment development and testing, and data analysis are done on campus. Several undergraduate and graduate students have participated in this work over the years. The research of this group is funded by the National Science Foundation.
Konrad A. Aniol
Martin B. Epstein
Demetrius J. Margaziotis
Research Opportunities for Students
A number of positions (hourly or in the form of stipends) are typically available for students who wish to participate in this research. Funding may also be available for qualified students who are able to spend 8-10 weeks during summers at Jefferson Lab. In addition, students of this group have often competed successfully in securing Department of Energy summer fellowships that provide full funding for a 10 week stay at Jefferson Lab, where they assist the CSULA faculty or Jefferson Lab staff in ongoing experimental work. Students interested in joining this group should contact one of the faculty members listed above.
“Cross Sections and Rosenbluth Separations in 1^H(e,e'K + )? up to Q^2 = 2.35 GeV^2”, M. Coman et al., Phys. Rev. C81, 052201(R), (2010).
“Recoil Polarization Measurements of the Proton Electromagnetic Form Factor Ratio to Q^2 = 8.5 GeV^2”, A. J. R. Puckett et al., Phys. Rev. Letters 104, 242301 (2010).
“Polarization Transfer in the 4^He(e,e'p )3^H Reaction at Q^2 = 0.8 and 1.3 (GeV/c)^2 ”, M. Paolone et al., Phys. Rev. Letters 105 , 072001 (2010).
“ Measurements of the Electric Form Factor of the Neutron up to Q^2 = 3.4 GeV^2 using the Reaction 3^He(e,e'n)pp”, S. Riordan et al., Phys. Rev. Letters 105 , 262302 (2010).
“Exclusive Neutral Pion Electroproduction in the Deeply Virtual Regime”, E. Fucheyet al., Phys. Rev. C83 , 025201 (2011).
“A precise extraction of the induced polarization in the 4^He(e,e'p)3^H reaction”, S.P. Malace et al., Phys. Rev. Letters 106 , 052501 (2011).
“Single Spin Asymmetries in Charged Pion Production from Semi-Inclusive Deep Inelastic Scattering on a Transversely Polarized 3^He Target at Q^2 = 1.4–2.7 GeV^2 ”, X. Qian et al., Phys. Rev. Letters 107 , 072003 (2011).
“High Precision Measurement of the Proton Elastic Form Factor Ratio µpGE/GM at Low Q^2 ”, X. Zhan et al., Phys. Letters B705 , 59 (2011).
“Search for Effects Beyond the Born Approximation in Polarization Transfer Observables in ep Elastic Scattering”, M. Meziane et al., Phys. Rev. Letters 106 , 132501 (2011 ).
“ Probing the high momentum component of the deuteron at high Q^2 ”, W.U. Boeglin et al., Phys. Rev. Letters 107 , 262501 (2011).
“Beam-Target Double Spin Asymmetry ALT in Charged Pion Production from Deep Inelastic Scattering on a Transversely Polarized 3^He Target at 1 . 4 < Q^2 < 2 . 7 GeV^2 ”, J. Huang et al., Phys. Rev. Letters 108 , 052001 (2012).
Techical Information may be found in a separate web site maintained by this group.