Optics & Photonics R&D
Pioneering early-stage computational modeling and experimental designs at the intersection of silicon photonics, fiber coupling, and quantum computing.
Early-Stage Research Focus
XOR Technology Inc.'s optics division operates as a dedicated engineering offshoot exploring the physical principles of light manipulation.
Please note: We do not currently manufacture or sell commercialized optical products. Our initiative focuses on laying down foundational theoretical designs, performing optical software simulations, and prototyping basic electro-optic coupling schemes to position our technology stack for future contract-based manufacturing and collaborative research programs.
Foundational Exploration Areas
Applying our robust electronics design background to solve the physical alignment, control, and routing challenges of laser and optical systems.
Silicon Photonics Modeling
Simulating low-loss light propagation in silicon-on-insulator (SOI) channels. We focus on evaluating how laser waves bend, split, and switch within microscopic circuits before physical fab allocation.
Fiber-to-Chip Coupling
Designing precise mechanical sub-mounts and automated alignment structures. Our goal is to leverage mechatronics and sensors to bridge the physical gap between optical fibers and silicon substrates with minimal energy loss.
Quantum Computing Concepts
Investigating room-temperature quantum computing theories utilizing light. We study the mathematical frameworks of squeezed states, light-matter coherence, and photonic logic gate setups to design scalable simulation nodes.
Optics Wave Simulation Lab
Our research methodology relies heavily on computational wave simulations. The panel on the right represents a simplified real-time visualization of 1550nm laser light passing through a photonic splitter node.
Wavelength: 1550.000 nm
Coherence Status: 99.98 %
Phase Variance: Sub-picosecond phase-locking active
Move your cursor across the page canvas to induce simulated noise and observe how the background wave channels refract, representing real-world environmental interference on optical transmission pathways.