New data from LIGO for event GW151226 was used to improve the modifications to Polarizable Vacuum Theory, and choose among the many possible solutions of energy and momentum at high speed for deep space transport. Heisenberg Uncertainty Limit provided the best known Modification to Polarizable Vacuum Theory. A constant coefficient was varied over the possible range and also changed to a variable, but provided no improvement over the Heisenberg Limit. Warp and frame dragging resulted from modifications of Polarizable Vacuum, but with more than one possible solution. A choice of solutions was made eliminating invariant Planck constant and previous cases derived from conservation of energy in blue shifted microwaves near a black hole. It was found that velocity terms could not be brought into PV theory without formalism for exchange of kinetic energy with the vacuum space. Energy changes in the local vacuum provide the driving force for relativistic frame dragging. Accumulating kinetic energy in space was found to polarize the vacuum in a way equivalent to the polarizing parameter K of Harold Puthoff. Frame dragging results from the continual increase of vacuum stress energy trailing longitudinally and propagating transversely from an accelerating deep space vehicle. Results predict that in the LIGO observations part of the mass loss and speed increase occur during the ring down phase.