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<p>Metamaterials with broken spatial or temporal symmetries allow precise manipulation of electromagnetic waves. Recent developments in quantum optics have highlighted the potential for controlling quantum states via engineered classical fields. This paper proposes a new framework, antinodal engineering within symmetry-broken metamaterials, bridging quantum entanglement and classical field control. We introduce a hybrid model that integrates Kisalaya Chakrabarti’s concept of translational symmetry of intermediate nodes and antinodes, applying it to engineered electromagnetic environments. Through field localization, symmetry breaking, and dynamic tuning via acousto- or electro-optic modulation, we propose a viable pathway toward topological quantum devices, reconfigurable metasurfaces, and hybrid quantum-classical photonic platforms.</p>

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Antinodal engineering in symmetry-broken metamaterials: bridging quantum optics and classical control

  • 期刊论文

  • 发表日期：

    2025年11月4日

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  • Kisalaya Chakrabarti,
  • Angsuman Sarkar

摘要

Metamaterials with broken spatial or temporal symmetries allow precise manipulation of electromagnetic waves. Recent developments in quantum optics have highlighted the potential for controlling quantum states via engineered classical fields. This paper proposes a new framework, antinodal engineering within symmetry-broken metamaterials, bridging quantum entanglement and classical field control. We introduce a hybrid model that integrates Kisalaya Chakrabarti’s concept of translational symmetry of intermediate nodes and antinodes, applying it to engineered electromagnetic environments. Through field localization, symmetry breaking, and dynamic tuning via acousto- or electro-optic modulation, we propose a viable pathway toward topological quantum devices, reconfigurable metasurfaces, and hybrid quantum-classical photonic platforms.