Dr. Chance Glenn, Professor of Electrical Engineering at Alabama A&M University and founder of the Morning Bird Foundation, discusses his groundbreaking experiment potentially demonstrating spacetime distortion. Using a high-energy spark gap and laser interferometry, he observed fringe movement suggesting spacetime manipulation at energy densities of 10¹² Joules/m³. This challenges the conventional understanding of the Alcubierre drive, suggesting that creating a gravitational well, rather than expanding and contracting spacetime, may be sufficient for propulsion.

His research, published in the European Journal of Engineering and Technology Research, opens avenues for propellantless propulsion and potentially connects electromagnetism and gravitation. Dr. Glenn also highlights his work with the AT&T robot, a 3D-printable educational tool promoting STEM education.  The discussion also touches upon the implications of his research for understanding Unidentified Aerial Phenomena (UAP), exploring possibilities ranging from advanced propulsion systems to the simulation hypothesis.

Dr. Glenn has decades of experience in engineering, technology, entrepreneurship, and higher education. He has published extensively, holds patents, and traveled globally to speak on issues of science, innovation, and technology. Dr. Glenn holds a Bachelor’s degree in Electrical Engineering from the University of Maryland and a Master’s and Ph.D. degree in Electrical Engineering from the Whiting School of Engineering at Johns Hopkins University. He also holds a Management Development Certificate from the Harvard Graduate School of Education.

The Alcubierre Drive: A Dream Fueled by a Spark

The foundation of Dr. Glenn’s research lies in the Alcubierre metric, a theoretical framework for faster-than-light travel proposed by Miguel Alcubierre in 1994. This concept, often referred to as the “warp drive,” requires negative energy density to warp spacetime, compressing space in front of a spacecraft and expanding it behind. However, the requirement for negative energy density has been a significant hurdle.

Dr. Glenn’s innovative approach bypasses this roadblock. Instead of focusing on achieving negative energy density, his experiments concentrate on generating extremely high energy density in a small volume using a spark gap. This high-energy density, he theorizes, compresses spacetime, creating a gravitational well that propels the craft forward. Spacetime, naturally expanding to fill the vacuum, completes the propulsion mechanism. This elegant solution sidesteps the need for exotic negative energy.

The Experiment: Harnessing the Power of a Spark

The experiment itself is remarkably ingenious. Using a laser interferometer (similar to LIGO), Dr. Glenn measured changes in laser interference fringes to detect any spacetime distortion. By employing two laser wavelengths (650 nm and 537 nm), he mitigated the influence of other factors that could affect fringe movement. The results were striking: significant fringe movement was observed, indicating potential spacetime distortion at energy densities reaching 10¹² Joules/m³. The orientation of the laser relative to the spark gap (0-90 degrees) was varied to observe the displacement, with significant results across the range.

The spark gap apparatus, generating approximately 400,000 volts and 0.5 amps, delivers instantaneous energy to a small volume – a crucial element in the experiment’s success. Dr. Glenn’s work marks the first time interferometry has been used with a spark gap to measure such variations, opening a new avenue for spacetime distortion research. The observed gravitational waves were initiated by the change in energy density (from 0 to the experimental level), a key finding that supports the theory.

Beyond the Spark: Collaboration and Future Directions

Dr. Glenn’s research isn’t confined to the laboratory. He’s actively collaborating with Philip Lenz on a rotational approach to the Alcubierre drive and with Greg Hodgson’s group to explore the potential application of this technology in stabilizing fusion reactions. He’s also seeking funding from the National Science Foundation to further his research. His presentation at the upcoming APEC conference will undoubtedly generate significant interest within the scientific community.

The UAP Connection: A Leap into the Unknown

The podcast also delved into the intriguing connection between Dr. Glenn’s research and the Unidentified Aerial Phenomena (UAP) – commonly known as UFOs. While his current research doesn’t directly address UAP propulsion, he believes that the underlying principles could offer valuable insights into the seemingly impossible flight capabilities reported in UAP sightings. The possibility of advanced, non-human technology manipulating spacetime is a compelling consideration. Dr. Glenn acknowledges the potential implications of his work, including the simulation hypothesis, where the rules of physics might be different for a “programmer” manipulating reality.

STEM Education: Inspiring the Next Generation of Scientists

Beyond his groundbreaking research, Dr. Glenn is passionate about STEM education. He’s developed an affordable, 3D-printable humanoid robot through his Morning Bird Foundation (morningbirdspace.com) to engage students in robotics, CAD design, 3D printing, coding, engineering, and electronics. This initiative aims to spark excitement in STEM fields and inspire the next generation of scientists and engineers.

Conclusion: A Spark of Hope for the Future

Dr. Glenn’s work represents a significant leap forward in our understanding of spacetime and the potential for faster-than-light travel. His innovative approach, coupled with his collaborative spirit and commitment to STEM education, makes him a leading figure in the field. The implications of his research are far-reaching, potentially revolutionizing space travel, energy production, and our understanding of the universe itself. The future is bright, and it may just be powered by a spark.