I propose a single falsifiable hypothesis: that Exotic Vacuum Objects (EVOs), as documented by Kenneth Shoulders, produce a localized anomaly in gravitational coupling that is detectable by co-located gravimetric instrumentation during formation events, and that this anomaly would exceed what is predictable from the mass-energy of the charge cluster alone. From the standpoint of standard physics, a null result is the expected and predicted outcome. The mass-energy of a typical EVO is negligible — on the order of 10¹¹ to 10¹³ electron masses — and should produce no measurable gravitational signature at any practical detector distance. The weak equivalence principle predicts identical gravitational behavior for all matter states regardless of composition or internal configuration. Standard physics therefore predicts this experiment finds nothing. This paper is not primarily an argument that the null result is wrong. It is an argument that the null result has never been confirmed experimentally, and that the documented anomalous behavior of EVOs in other domains — combined with existing theoretical literature connecting EVO dynamics to spacetime geometry concepts — provides sufficient motivation to run the experiment and confirm it. A confirmed null result is itself a contribution: it closes an open experimental question and establishes that the equivalence principle holds for dense charge cluster states. Any deviation from the null would require immediate independent replication and careful theoretical analysis. To date, no experiment has co-located gravimetric instrumentation with an EVO production apparatus during formation events. This paper motivates that experiment, provides a replicable experimental protocol, and situates the hypothesis within existing theoretical literature that has gestured at this connection without pursuing it experimentally.
Justin Dew (Sun,) studied this question.