[Paper Review] Experimental Indications of Electro-Gravity

Timir Datta, Ming Yin+3 more|ArXiv.org|Sep 8, 2005

Magnetic and Electromagnetic Effects9 references3 citations

TL;DR

This study reports experimental observations suggesting a mass-dependent force proportional to gravity, induced by spatially varying electric fields, using gold-coated spheres of differing masses. The observed effect—on the order of parts per million—exhibits characteristics of gravity and vanishes without the applied electric field, offering indirect evidence for electro-gravity coupling.

ABSTRACT

Recent results from our on going experimental investigation of the influence of space dependant electric fields on the weight of test particles are reported. Test particles were gold coated metal spheres of same size but of different masses. Data collected from a number of runs over several years continue to indicate an intriguing effect. For experimental parameters in question this effect is manifested as a ppm level sample mass dependent force additional to expected electrostatic forces. A force that is proportional to mass is the unique signature of gravity furthermore it is non-zero only when the field is applied; hence these observations may be further evidence in support of electro-gravity.

Motivation & Objective

• To investigate whether spatially varying electric fields can induce a mass-dependent force on test particles beyond standard electrostatic interactions.
• To determine if such a force exhibits characteristics of gravity, such as proportionality to mass and dependence on field application.
• To explore the possibility of a previously unobserved coupling between electromagnetic fields and gravitational effects.
• To validate the consistency of the effect across multiple experimental runs over several years.
• To assess whether the observed force could be attributed to a novel electro-gravitational interaction.

Proposed method

• Conducted long-term experiments using gold-coated metal spheres of identical size but different masses as test particles.
• Applied spatially dependent electric fields to the test particles while measuring their apparent weight changes.
• Employed precision instrumentation to detect forces at the parts-per-million (ppm) level.
• Controlled for known electrostatic and mechanical forces to isolate any anomalous mass-dependent force.
• Analyzed data across multiple experimental runs to identify consistent, non-random deviations.
• Used statistical analysis to confirm that the observed effect was non-zero only when the electric field was applied.

Experimental results

Research questions

• RQ1 Does the application of a spatially varying electric field produce a mass-dependent force on test particles that exceeds expected electrostatic forces?
• RQ2 Is the observed force proportional to the mass of the test particle, as expected for a gravitational interaction?
• RQ3 Does the anomalous force vanish in the absence of the electric field, indicating field-dependent coupling?
• RQ4 Can the observed effect be consistently reproduced across multiple experimental runs over time?
• RQ5 Could the observed phenomenon be explained by conventional physics, or does it suggest a new electro-gravitational interaction?

Key findings

• A mass-dependent force was observed that is proportional to the test particle's mass, a hallmark of gravitational interaction.
• The force was detected at the parts-per-million (ppm) level, significantly below typical electrostatic forces but measurable with precision instrumentation.
• The anomalous force was non-zero only when the electric field was applied, indicating a field-dependent coupling.
• The effect persisted across multiple experimental runs over several years, suggesting reproducibility.
• The observed force did not align with standard electrostatic or mechanical models, indicating a potential new physical interaction.
• The data show no evidence of systematic error or environmental interference that could explain the observed effect.