S. Gilad

Probing Cold Dense Nuclear Matter

The protons and neutrons in a nucleus can form strongly correlated nucleon pairs. Scattering experiments, in which a proton is knocked out of the nucleus with high-momentum transfer and high missing momentum, show that in carbon-12 the neutron-proton pairs are nearly 20 times as prevalent as proton-proton pairs and, by inference, neutron-neutron pairs. This difference between the types of pairs is due to the nature of the strong force and has implications for understanding cold dense nuclear systems such as neutron stars.

Precision Measurement of the Neutron Spin Asymmetries and Spin-dependent Structure Functions in the Valence Quark Region

We report on measurements of the neutron spin asymmetries

-Measurement of the proton's electric to magnetic form factor ratio from 1H(over -->)(e(over -->),e'p).

A_{1,2}^n

Measurement of the proton's electric to magnetic form factor ratio from H→1(e→,e′p)

and polarized structure functions

Final analysis of proton form factor ratio data at Q2 = 4.0, 4.8, and 5.6 GeV2

g_{1,2}^n

Precision Measurement of the Neutron Spin Asymmetry A1 n and Spin-Flavor Decomposition in the Valence Quark Region

at three kinematics in the deep inelastic region, with

High-precision measurement of the proton elastic form factor ratio mu_pG_E/G_M at low Q^2.

x=0.33

Erratum: Comparison of Polarization Observables in Electron Scattering from the Proton and Deuteron [Phys. Rev. Lett. 80, 452 (1998)]

, 0.47 and 0.60 and

The Charge Form Factor of the Neutron at Low Momentum Transfer from the H-2-polarized (e-polarized, e-prime n) p Reaction

Q^2=2.7

The Charge Form Factor of the Neutron at Low Momentum Transfer from the

, 3.5 and 4.8 (GeV/c)