Manufacturing Methodology of Artificial Resonant Structured Materials for Coupling Higher-Order Medium Transverse Waves under Continuous Elastic Medium Theory

Abstract

Within the framework of Continuous Elastic Medium Theory (CET), the universe is built upon a fundamental continuous elastic background medium. Apart from well-known electromagnetic wave modes, the background medium supports higher-order transverse shear modes with shorter wavelengths. Naturally occurring matter only couples with electromagnetic frequency bands and fails to interact with these high-order medium fluctuations, leading to permanent observation blind regions. According to the modal matching principle derived from CET measurement theory, modal resonance and structural topology matching are mandatory conditions to achieve energy exchange between materials and high-order medium transverse waves. This paper systematically proposes a complete manufacturing methodology for artificial resonant structured materials. By designing microscale geometric topology, intrinsic natural frequency and vortex deformation characteristics, the artificially constructed material can realize effective coupling, emission and demodulation of high-order medium transverse waves. We list core physical constraints, microstructure design logic and fabrication principles. If this kind of new material can be physically manufactured, humans will obtain a brand-new experimental tool to directly detect the underlying cosmic elastic medium. Furthermore, the material can be adopted to verify multiple core predictions of CET, including the modal blind zone effect related to dark matter. This work is a theoretical preprint and has not been subjected to formal peer review. Relevant experimental verification schemes will be carried out in follow-up research. No external financial support is obtained for this research.