  We present computational results and tables of the equation-of-state,
thermodynamic properties, and shock Hugoniot for hot dense fluid deuterium. The
present results are generated using a recently developed chemical model that
takes into account different high density effects such as Coulomb interactions
among charged particles, partial degeneracy, and intensive short range hard
core repulsion. Internal partition functions are evaluated in a
statistical-mechanically consistent way implementing recent developments in the
literature. The shock Hugoniot curve derived from the present tables is in
reasonable overall agreement with the Hugoniot derived from the Nova-laser
shock wave experiments on liquid deuterium, showing that deuterium has a
significantly higher compressibility than predicted by the SESAME tables or by
Path Integral Monte Carlo (PIMC) calculations. Computational results are
presented as surface plots for the dissociated fraction, degree of ionization,
pressure, and specific internal energy for densities ranging from 0.0001 to 40
g/cm3 and temperatures from 2000 to ~ 106 K. Tables for values of the above
mentioned quantities in addition to the specific heat at constant pressure, cp,
ratio of specific heats, cp/cv, sound speed and Hugoniot curve (for a specific
initial state) are presented for practical use.
