Exploring the Feasibility of X-Ray Power Transmission: From Concept to Prototype

AJAS · 2024 Physics and Astronomy (inferred)

Overview

Existing power line infrastructure is constrained by inefficiency, vulnerability to disruption, and detrimental environmental impacts. As energy demand rises globally alongside increasing renewable generation, revolutionary new approaches to energy transmission are imperative. This research pioneers the exploration of using high-frequency light waves ( X-rays) as a novel medium for long-distance power transmission. The proposed "X-ray power line" concept centers on generating high-energy X-rays via a vacuum tube to transmit power over long distances by concentrating and directing the radiation through the atmosphere. Utilizing a plastic scintillator, a receiving subsystem passively collects the transmitted X-rays and converts them into usable electric power. A prototype X-ray power line was constructed using a specialized high-voltage vacuum tube, kilovolt voltage multipliers, and a scintillating material receiver to demonstrate proof-of-concept. Experiments evaluated tube current, beam intensity, atmospheric interactions, and conversion efficiency. Results showed transmission distances up to 30.48 cm with a voltage difference of about 0.697v at the receiving solar-cell-scintillator mechanism. Atmospheric scattering and absorption removed much of the energy the X-rays were transmitting. Moreover, The solid electric field produced by the vacuum tube may have caused discrepancies with the data. However, a correlation between distance and power was still present. This research provides the first empirical validation of using X-rays for long-distance power transmission. The successful prototype demonstrates the feasibility of the novel concept, while the experimental data reveals key engineering insights on maximizing efficiency, power output, and transmission range. With further refinement of the vacuum tube and receiver subsystems, the X-ray power line concept could overcome the constraints of conventional infrastructure. This pioneering work lays the foundation for maturing this technology from a laboratory concept to a viable real-world solution for reinventing power grids with efficiency, resilience, and sustainability.

Competition history

  • AJAS 2024 Category not listed

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Source: AAAS Annual Meeting (Confex) / American Junior Academy of Science

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