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April 1, 20260 citationsOpen Access

QuantumChar Photonic Architecture: Toward a Dense-Symbol, Photon-Native Computing Paradigm

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EPElizeu Almeida Prudente

Key Points

  • This research aims to address physical limitations in computing architectures by proposing the QuantumChar Photonic Architecture (QCPA).
  • Developed a framework integrating high-density multidimensional symbols encoding 1,000 bits.
  • Utilized photonic interconnects on graphene substrates for improved connectivity.
  • Implemented all-optical switching through photonic crystal bandgap engineering.
  • Incorporated laser-induced molecular cooling to enhance performance.
  • Proposed solutions aim for orders-of-magnitude improvements in energy efficiency.
  • Framework suggests overcoming limitations like the memory wall and thermal dissipation.

Abstract

Contemporary computing architectures face a convergence of fundamental physical limitations: the memory wall, thermal dissipation ceilings, electromagnetic crosstalk in dense interconnects, and the semantic poverty of binary-byte primitives. This paper proposes the QuantumChar Photonic Architecture (QCPA), a unified theoretical framework addressing these limitations through high-density multidimensional symbols encoding 1,000 bits as native computational atoms, photonic interconnects on graphene substrates, all-optical switching via photonic crystal bandgap engineering, and laser-induced molecular cooling. The synthesis of these currently isolated research frontiers could yield orders-of-magnitude improvements in energy efficiency — with direct implications for sustainable large-scale AI infrastructure.

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Cite This Study

Elizeu Almeida Prudente (2026) studied this question.

synapsesocial.com/papers/69ccb71716edfba7beb88e8ahttps://doi.org/10.5281/zenodo.19326319
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