Peter Whitlock Motion First Physics: Hypersoft X-Ray Sources — Full-Catalog Quantitative Analysis and Falsifiable Motion-Routing Predictions

This paper presents a full-catalog quantitative analysis of 84 hypersoft X-ray sources and applies Peter Whitlock Motion First Physics to their extreme softness, photon throughput, inferred emitting scales, variability, and possible occurrence across more than one compact-object class. It distinguishes direct observations from calibrated catalogue quantities, thermal-model inferences, and the proposed motion-routing mechanism. Readers will find the full luminosity and photon-output constraints, conservative effective-radius stress tests, the scalar loading identity derived from the Whitlock Field Equation, and a falsifiable interpretation in which continuing Injection drives increasing routing load, circulation, saturation pressure, redistribution, and lower-energy photon shedding through an expanded region. The paper also sets out specific predictions for future testing, including relationships between softness, effective scale, inflow, transition timing, nonlinear loading, recurrent state cycling, multiple compact-object classes, and possible EUV consequences. It explicitly identifies the observations that would weaken or falsify the proposed Peter Whitlock Motion First Physics explanation.