Experimental Spacetime Distortion: Generating Gravitational Waves in the Laboratory

This paper discusses our observations of gravitational wave generation through the rapid formation of high-energy density fields created by electrically driven spark gaps. Leveraging laser interferometry, this research investigates whether spacetime distortions are produced within the spark-gap plasma. The results indicate fringe movement correlated with spark power, distance from the laser, spark/laser orientation, and pulse repetition frequency, suggesting a possible spacetime distortion effect and the propagation of gravitational waves. We also address a number of strategies that we employed to mitigate causes of interference fringe displacement that may not be attributed to gravitational waves. These results could have profound implications for gravitational wave research, propulsion technologies, communications, biomedical applications, and even fusion reaction stabilization, among many other potential applications. The concept of a “gwavelets” phased array is proposed as a novel approach to constructively interfere gravitational waves to shape and manipulate them. Experimental results and potential technological implications are discussed.

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Publication Details

Journal
European Journal of Engineering and Technology Research
Published
2025-04-25
DOI
https://doi.org/10.24018/ejeng.2025.10.2.3246
Primary Topic
Experimental and Theoretical Physics Studies
Type
article
Field-Weighted Citation Impact
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article

Experimental Spacetime Distortion: Generating Gravitational Waves in the Laboratory

Chance Glenn
European Journal of Engineering and Technology Research
Experimental and Theoretical Physics Studies
article

Experimental Spacetime Distortion: Generating Gravitational Waves in the Laboratory

Chance Glenn
article en

Abstract

This paper discusses our observations of gravitational wave generation through the rapid formation of high-energy density fields created by electrically driven spark gaps. Leveraging laser interferometry, this research investigates whether spacetime distortions are produced within the spark-gap plasma. The results indicate fringe movement correlated with spark power, distance from the laser, spark/laser orientation, and pulse repetition frequency, suggesting a possible spacetime distortion effect and the propagation of gravitational waves. We also address a number of strategies that we employed to mitigate causes of interference fringe displacement that may not be attributed to gravitational waves. These results could have profound implications for gravitational wave research, propulsion technologies, communications, biomedical applications, and even fusion reaction stabilization, among many other potential applications. The concept of a “gwavelets” phased array is proposed as a novel approach to constructively interfere gravitational waves to shape and manipulate them. Experimental results and potential technological implications are discussed.

European Journal of Engineering and Technology ResearchVol. 10(2)
The Aerospace Corporation (US)
Openalex Percentile: Top 90%
Experimental and Theoretical Physics Studies
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