Light–phonon bridge where vibrational quanta modulate optical properties

 TENGENA redefines the future of computing through a vertically integrated, light-native architecture that eliminates the constraints of classical electronic interconnects.  Unlike conventional silicon photonics and thin-film systems that remain confined to passive routing and basic modulation, TENGENA’s design initiates a paradigm shift.  Where conventional photonic systems remain fragmented—separating quantum processors, analog accelerators, and photonic algebra—TENGENA converges these domains into a singular substrate of intelligence. This unified platform integrates plasmonic logic, quantum photonics, and power-over-light delivery to enable simultaneous inference, memory, and sensing within a coherent, self-powered photonic space. The result is a system that doesn’t just compute—it perceives, adapts, and evolves through light alone.

 At the core of TENGENA’s architecture lies a paradigm-shifting fusion of quantum-class spiral memory, anisotropic microring crossbars for native vector–matrix multiplication, and fully optical inference fabrics. These are energized by single-fiber optical carriers that transmit both data and power, activating on-chip photovoltaic biasing modules and eliminating resistive losses. This design enables sub-100 ns inference latencies, radiation resilience, and EMI immunity—ideal for edge intelligence, orbital compute fabrics, and secure environments. Our deterministic plasma-assisted synthesis of chemically pure, sub-nanometer plasmonic inclusions within perovskite-type spiral resonators unlocks nonlinear gain modulation, quantum confinement, and optothermal responsiveness, forming the foundation for dynamic, reconfigurable AI acceleration.