Optical Computing
The emerging field of optical computing is redefining how data is processed, enabling faster, more efficient computation by harnessing the power of light. As electronic systems approach physical and thermal limits, optics-based architectures offer transformative advantages in speed, parallelism, and energy efficiency. The global optical-computing market is forecast to reach USD 3 billion by 2034, growing at about a 50 % compound annual growth rate.
Leveraging deep expertise in precision optical design and opto-mechanical integration, Optopax develops custom optical components and imaging modules that support the next generation of photonic processors, AI accelerators, and hybrid compute platforms—delivering sophisticated optical assemblies incorporating the functionality, alignment precision, and manufacturability essential for scalable optical computing systems.
Solutions Offered
Optopax partners with leading innovators in AI-driven optical-compute systems to design the custom optics required for massively parallel computation and high-bandwidth optical interconnects. In these emerging architectures, precise beam shaping, alignment stability, wavefront control, and low-loss propagation are essential for computational speed and communication bandwidth.
By engineering application-specific optical pathways, freeform elements, diffractive optics, micro-optics, and high-density interconnects, Optopax delivers the foundations for next-generation optical-compute systems. We provide complete design, prototype fabrication, and testing services to validate performance early in development. Leveraging integrated OEM manufacturing resources, we streamline the transition from prototype to production with scalable, cost-efficient solutions ready for seamless integration into advanced optical-compute platforms.
How Optopax can help
Optical Pathway & Free-Space Relay Design
Optopax engineers precise free-space optical pathways that control beam shape, wavefront quality, and alignment into PIC interfaces. We support designs with dense optical I/O, vertical grating couplers, and massively parallel optical channels while targeting low loss, high stability, and manufacturability at scale.
Micro-Optics, DOE, and Meta-Optics Integration
We design and integrate micro-lens arrays, DOEs, and metasurfaces that route and shape light with high precision. These elements enable dense fan-out, controlled mode shaping, and efficient coupling with PICs or emitter arrays, supporting compact, scalable optical-compute and interconnect architectures.
Near-Field Electromagnetic Modeling
Optopax has in-house modelling tools and expertise for near-field electric field propagation at optical–PIC boundaries. We simulate source fields, grating coupler in-coupling, and waveguide interactions, ensuring that free-space and micro-optic elements deliver maximum performance in combination with customer PIC structures.
Optomechanical Alignment & Packaging Architectures
We develop mechanically stable, thermally aware packaging architectures compatible with sub-micron active alignment. Our designs ensure robust integration of optics, PICs, detectors, DOE and metasurface components—maintaining optical stability under vibration, temperature variation, and high-density assembly constraints.
Source, Receivers & Metasurfaces Integration
Optopax aligns and integrates custom optical pathways with customer-defined lasers, detectors, PIC ports, and metasurface interfaces. We optimize physical placement, coupling geometry, and tolerance budgets to ensure minimal loss, high repeatability, and seamless mechanical and thermal compatibility.
Test, Metrology & Calibration Workflows
We create complete metrology strategies for optical-compute modules, including wavefront analysis, near-field/far-field characterization, alignment verification, and thermal drift testing. Optopax defines calibration workflows to ensure each module performs consistently across manufacturing runs and environmental conditions.