BlackVision: A Proposed Space‐Based Multi‐Spectral Telescope System for Observing Extreme Gravitational Environments Near Black Holes

BlackVision is a next-generation multi-spectral observation system designed to detect and visualize relativistic time-dilation phenomena near black holes, often described as "frozen time" effects. Unlike single-band observatories, BlackVision integrates a 15-meter offset-fed radio dish with a 7.5-meter primary mirror for both infrared and visible-light observations, enabling simultaneous data capture across optical, infrared, and radio frequencies. The system leverages advanced interferometry, adaptive optics, and AI-driven reconstruction pipelines to overcome signal degradation caused by extreme gravitational lensing. Initial simulations, validated against datasets from Sagittarius A*, demonstrate that BlackVision can achieve sub-millimeter precision in modeling temporal distortions and light-delay effects near event horizons. Deployed in a halo orbit around Lagrange Point 2 (L₂), the platform benefits from a stable thermal environment and the absence of atmospheric interference, enabling long-duration, high-fidelity observations essential for gravitational lensing and relativistic physics studies. By uniting multi-wavelength instrumentation with machine learning techniques, BlackVision offers a novel pathway to studying general relativity under extreme conditions. The project contributes to advancing astrophysical research, refining gravitational models, and laying groundwork for future deep-space exploration missions.contact :Email: [email protected]: www.linkedin.com/in/fadl-mostafa-cybersecurity

Publication Details

Journal
Zenodo (CERN European Organization for Nuclear Research)
Published
2025-09-04
DOI
https://doi.org/10.5281/zenodo.17051532
Primary Topic
Geochemistry and Geologic Mapping
Type
article
Field-Weighted Citation Impact
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article

BlackVision: A Proposed Space‐Based Multi‐Spectral Telescope System for Observing Extreme Gravitational Environments Near Black Holes

Zenodo (CERN European Organization for Nuclear Research)
Geochemistry and Geologic Mapping
article

BlackVision: A Proposed Space‐Based Multi‐Spectral Telescope System for Observing Extreme Gravitational Environments Near Black Holes

article en

Abstract

BlackVision is a next-generation multi-spectral observation system designed to detect and visualize relativistic time-dilation phenomena near black holes, often described as "frozen time" effects. Unlike single-band observatories, BlackVision integrates a 15-meter offset-fed radio dish with a 7.5-meter primary mirror for both infrared and visible-light observations, enabling simultaneous data capture across optical, infrared, and radio frequencies. The system leverages advanced interferometry, adaptive optics, and AI-driven reconstruction pipelines to overcome signal degradation caused by extreme gravitational lensing. Initial simulations, validated against datasets from Sagittarius A*, demonstrate that BlackVision can achieve sub-millimeter precision in modeling temporal distortions and light-delay effects near event horizons. Deployed in a halo orbit around Lagrange Point 2 (L₂), the platform benefits from a stable thermal environment and the absence of atmospheric interference, enabling long-duration, high-fidelity observations essential for gravitational lensing and relativistic physics studies. By uniting multi-wavelength instrumentation with machine learning techniques, BlackVision offers a novel pathway to studying general relativity under extreme conditions. The project contributes to advancing astrophysical research, refining gravitational models, and laying groundwork for future deep-space exploration missions.contact :Email: [email protected]: www.linkedin.com/in/fadl-mostafa-cybersecurity

Zenodo (CERN European Organization for Nuclear Research)
Openalex Percentile: Top 53%
Geochemistry and Geologic Mapping
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