Fluorescence Microscopy Enables high-resolution imaging of cells and tissues using fluorescent markers (e.g., confocal, multi-photon, super-resolution).

Flow Cytometry Uses lasers and optical filters to analyze and sort cells—essential for immunology, cancer research, and cell-based assays.

Optical Coherence Tomography (OCT) Provides non-invasive, cross-sectional imaging of biological tissues widely adopted in ophthalmology and cardiovascular diagnostics.

Radiation-hardened IR lenses for orbital imaging systems

Lightweight mirrors for small satellite payloads

High-precision star tracker optics for attitude control

UV spectrometer lenses for planetary atmospheric analysis

Thermal-resistant substrates for high-temperature missions

Wide-field optics for deep space observation platforms

Anti-reflective and solar rejection coatings for durability

Adaptive optics for satellite laser communication arrays

Qubit Control – Lasers manipulate qubit states in ion, atom, and photonic platforms

State Prep & Readout – Pulse-tuned lasers enable precise quantum logic operations

Photon Generation – Pumped lasers produce entangled/single photons for comms & computing

Atom/Ion Trapping – Optical traps stabilize qubits with sub-kelvin cooling

Quantum Sensing – Laser-driven interferometry powers clocks & precision metrology