Abstract
This UCF invention introduces a novel imaging system that leverages analog photonic interleaving to overcome limitations in conventional high-speed cameras. By converting analog electrical signals from photodetector arrays into analog optical signals and interleaving them using photonic multiplexers, the system achieves ultra-fast, continuous imaging with reduced latency. Imagine capturing ultra-fast events in real time with unprecedented clarity and speed. The approach supports integration on microchips and is scalable for various spectral ranges and imaging resolutions.
Technical Details: This invention uses photodetector arrays to capture analog electrical signals, which are conditioned and converted into analog optical signals via micro-ring or micro-disk modulators. These optical signals are then interleaved using photonic multiplexers through time-division, wavelength-division, polarization-division, and mode-division multiplexing. A controller synchronizes the components, enabling high-speed, continuous imaging. Optional modules include photonic processors for real-time analysis and photodetectors for converting optical signals back to electrical format.
Benefit
Ultra-Fast Throughput: Supports imaging rates from 100 MP/s to 100 GP/s. Low Latency: Real-time processing in optical domain reduces digital bottlenecks. Scalable Integration: Compatible with monolithic or heterogeneous microchip architectures. Spectral Flexibility: Operates across visible, SWIR, MWIR, and LWIR ranges.Market Application
Defense & Surveillance: High-speed event capture in tactical environments. Scientific Research: Real-time imaging of fast phenomena (e.g., plasma, fluid dynamics). Industrial Inspection: Continuous monitoring of high-speed manufacturing processes. Medical Imaging: High-resolution, low-latency imaging for diagnostics and surgery.
Brochure
