Jody Geiger is a theoretical physicist, an independent researcher and a graduate of the University of Florida. His research regards the physical significance of measure using an approach called Measurement Quantization (MQ). Using a new discrete solution to the description of gravitational curvature, Geiger advances classical description beyond competing models such as String Theory, Loop Quantum Gravity and Supersymmetry. It is notable that each of these models have lost their standing in light of failed predictions with respect to super collider experiments and specific cosmological studies.

Meanwhile, MQ stands on a formidable foundation, existing classical mechanics. The only notable feature of MQ is a physically significant expansion of the existing nomenclature. Correlating measure with experiment, Geiger demonstrates - using his new discrete solution to gravitational curvature - that measure is discrete and countable. Importantly, the nomenclature is expanded such that phenomena are now described using counts

of fundamental measures. Writing the expressions for the speed of light, escape velocity and Heisenberg’s uncertainty principle anew, Geiger shows that there are three frames of reference, most significant being the difference between the discrete Measurement Frame of the observer and the non-discrete Target Frame of the universe.

Using this difference, Geiger derives expressions and value for the physical constants and the laws of nature. After establishing these relations, values for the fundamental measures, the physical constants and many phenomena in nature can be resolved and verified.

Notably, as is expected of any classical expression, MQ offers many predictions. To most notable regards a new form of length contraction not related to relativity. He calls this effect the Informativity differential and verifies its effects on the measures of G and ħ using existing measurement data.