A Theoretical Framework for a Universal Matter Regeneration Engine: Integrating Energy-to-Matter Conversion, Atomic Assembly, and Controlled Self-Replication

The ability to generate matter from energy and organize it into functional structures has long been regarded as one of humanity’s most ambitious scientific aspirations. Recent advances in quantum physics, nanotechnology, artificial intelligence, molecular manufacturing, and self-replicating systems have created new theoretical opportunities for the development of universal matter regeneration technologies. This study proposes a conceptual framework for a Universal Matter Regeneration Engine (UMRE), a hypothetical system designed to integrate energy-to-matter conversion, atomic-scale assembly, and controlled self-replication within a unified architecture. The proposed framework is founded upon principles derived from relativistic physics, molecular nanotechnology, computational design, and autonomous systems engineering. The primary objective of this research is to establish a multiscale theoretical architecture that describes how matter can be generated, organized into complex structures, and reproduced through controlled self-replication processes. In addition, the concept of a Digital Matter Genome is introduced as an information-processing layer capable of storing, managing, and executing construction blueprints for both biological and non-biological systems. The proposed framework is expected to provide a theoretical foundation for future investigations in advanced manufacturing, autonomous resource generation in extraterrestrial environments, self-sustaining intelligent systems, and next-generation matter engineering technologies. Furthermore, it seeks to bridge the conceptual gap between fundamental physics, molecular manufacturing, artificial intelligence, and self-replicating systems, thereby offering a unified perspective on future matter-generation infrastructures.