HGX: Un Material Cuántico Regenerativo Autorreparable y Multifuncional para una nueva era Tecnológica

A novel advanced material, HGX, is emerging as the core of a multidisciplinary revolution. Thanks to its unprecedented properties ranging from exceptional electrical and thermal conductivity to a self-healing fractal structure at the nanoscale HGX is enabling disruptive breakthroughs across diverse fields. In this article, we explore how HGX simultaneously drives next-generation batteries (high energy density, ultrafast charging, and enhanced safety), innovative optical fibers (multicore, hollow-core, ultra-high capacity, and low latency), improved quantum chips (greater coherence, efficient cryogenic packaging, and hybrid interconnection), and the High-Luminosity Large Hadron Collider (HL-LHC) envisioned as a “Sphere of Infinities” (structural improvements, cryogenic sealing, heat dissipation, and data telecommunications). Furthermore, we assess the potential impact of HGX on sustainability, international scientific cooperation, and human technological progress. The tone is ambitious yet grounded, highlighting why HGX represents a historic leap in materials science an evolution from ancient durable concretes to quantum-regenerative composites and why it could be worthy of the highest scientific distinctions.

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Publication Details

Journal
Ibero Ciencias - Revista Científica y Académica - ISSN 3072-7197
Published
2025-09-26
DOI
https://doi.org/10.63371/ic.v4.n3.a303
Primary Topic
Spacecraft Design and Technology
Type
article
Field-Weighted Citation Impact
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article

HGX: Un Material Cuántico Regenerativo Autorreparable y Multifuncional para una nueva era Tecnológica

Aurora Caballero Palomares
Ibero Ciencias - Revista Científica y Académica - ISSN 3072-7197
Spacecraft Design and Technology
article

HGX: Un Material Cuántico Regenerativo Autorreparable y Multifuncional para una nueva era Tecnológica

Aurora Caballero Palomares
article en

Abstract

A novel advanced material, HGX, is emerging as the core of a multidisciplinary revolution. Thanks to its unprecedented properties ranging from exceptional electrical and thermal conductivity to a self-healing fractal structure at the nanoscale HGX is enabling disruptive breakthroughs across diverse fields. In this article, we explore how HGX simultaneously drives next-generation batteries (high energy density, ultrafast charging, and enhanced safety), innovative optical fibers (multicore, hollow-core, ultra-high capacity, and low latency), improved quantum chips (greater coherence, efficient cryogenic packaging, and hybrid interconnection), and the High-Luminosity Large Hadron Collider (HL-LHC) envisioned as a “Sphere of Infinities” (structural improvements, cryogenic sealing, heat dissipation, and data telecommunications). Furthermore, we assess the potential impact of HGX on sustainability, international scientific cooperation, and human technological progress. The tone is ambitious yet grounded, highlighting why HGX represents a historic leap in materials science an evolution from ancient durable concretes to quantum-regenerative composites and why it could be worthy of the highest scientific distinctions.

Ibero Ciencias - Revista Científica y Académica - ISSN 3072-7197Vol. 4(3)
Global Strategy Group (US)
Openalex Percentile: Top 65%
Spacecraft Design and Technology
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