Harnessing the Void: Scientists Replicate Black Hole Energy Extraction

ByMason Reed

July 13, 2026

Researchers at CUNY ASRC have successfully simulated the energy-harvesting properties of spinning black holes using a stationary laboratory device, opening new frontiers for wireless communication and quantum computing.

The vast reaches of the cosmos have long served as the ultimate laboratory, but a recent breakthrough has brought the extreme power of a spinning black hole down to Earth. Researchers at the City University of New York Advanced Science Research Center (CUNY ASRC) reported on July 12, 2026, that they have successfully recreated the physics of energy extraction from a rotating black hole using a stationary laboratory device. This experiment validates the Penrose-Zel’dovich theory, which suggests that energy can be amplified and harvested from the region surrounding a rapidly rotating celestial mass. Rather than spinning a physical object at impossible speeds, the team utilized a radio-frequency device with properties that vary rapidly in time and space.

This “synthetic rotation” allows waves to extract energy through amplification, transforming a theoretical curiosity into a practical tool. For the American innovator, this is not merely abstract science. The ability to manipulate wave amplification through time-engineered structures has immediate implications for national sovereignty. This technology promises to enhance the efficiency of wireless communications and provide a new foundation for quantum technologies, ensuring the infrastructure of the future remains robust and decentralized. The CUNY device uses time-engineered rotation in a stationary structure, enabling broadband, selective amplification of rotating waves.

Simultaneously, the global physics community is witnessing a surge in breakthroughs challenging the Standard Model. At the University of Manchester, researchers developed a computational method to identify two-dimensional materials with flat bands hosting exotic quantum behavior. This work complements efforts at ETH Zurich, where engineers developed vibrating mechanical memory for quantum computers. By storing more information in a smaller volume than traditional electromagnetic memory, this mechanical approach offers a path toward compact, high-density quantum processors that could outpace current centralized supercomputers.

Beyond the laboratory bench, the broader physics community is seeing a convergence of theories regarding the fabric of our universe. Recent reports on gravitational waves suggest that primordial black holes may account for a significant portion of dark matter, reviving a theory that challenges the cold dark matter assumption. This observational front is bolstered by theoretical results where evaporating black holes leave tiny remnants. These remnants possess seven-dimensional geometry that stores information in long-lived torsion vibrations, potentially solving the black hole information paradox that has puzzled physicists for decades.

In the realm of communication, the development of “optical tornado” technology is paving the way for high-dimensional quantum communication. These twisted light structures can carry vastly more information than traditional methods, offering a secure alternative to centralized data bottlenecks. This is mirrored by work at the University of Ottawa, where a programmable quantum simulator using shaped light replicated particle motion across 300 processes without massive, energy-intensive circuits. Such efficiency is vital for maintaining individual liberty in a world increasingly reliant on digital connectivity.

As we look toward the horizon, these discoveries reinforce the importance of maintaining a competitive edge in fundamental research. From MicroCloud Hologram Inc.’s breakthrough in quantum multipliers to the identification of exotic particles that explain why matter has mass, the pace of innovation is relentless. By mastering the mechanics of the stars and the vibrations of the subatomic world, we secure the technological foundations of a free society. The laboratory is no longer just a place for observation; it is the forge where the tools of the next century are being hammered into reality.

Leave a Reply

Your email address will not be published. Required fields are marked *