Summary

In this paper the author describes a concrete and relatively simple experiment capable of proving (or disproving) the validity of Field Distortion Theory (FDT). Contrary to Special Relativity (SR), under FDT it is possible to exceed the speed of light. In very simple terms, FDT accounts for the effects previously explained with SR's constancy of the speed of light by postulating an aerodynamic like distortion of electromagnetic fields in the presence of gravitational wells. The author points out that all experimental data in support of SR that has been collected so far, also supports FDT. He then suggests a reproduction of the classic Michelson-Morley interferometry experiment aboard the Space Shuttle, where due to the high velocity of the shuttle relative to the dominating gravitational object (the Earth) a distinct effect is predicted by FDT, but not by SR. Hence, this experiment could provide the empirical backing for FDT to decide for or against favoring it over Einstein's theory of SR.

Abstract

The prospects for interstellar travel under Einstein's Special Relativity Theory are dim. Dinowitz's Field Distortion Theory (FDT) is intended to replace Einstein Special Relativity Theory (SRT). To date, all experimental data that appear to support SRT also support FDT, and under most conditions the equations of FDT reduce to those of SRT. However, under certain conditions, Field Distortion Theory predicts that matter can be accelerated to light speed, and beyond without experiencing the increase in mass or dilation of time associated with near-light speeds under Special Relativity Theory. Such a possibility would have enormous implications for the prospect of interstellar travel. The amount of propellant believed necessary to reach near-light speeds would be greatly reduced. More importantly, because there is no limiting velocity under FDT, the minimum amount of time currently believed necessary to reach other star systems would be greatly reduced. Field Distortion Theory can be experimentally tested by conducting the Michelson-Morley experiment on NASA's space shuttle. This possible experiment is described along with specific estimates of the predicted effect. It is found that the predicted effect is well within the detectable range of current instrumentation.

Paper