Traditional copper interconnects are reaching fundamental bandwidth and power-density limitations. As data center bandwidth demands surge past 800G and beyond, electrical interconnects face insurmountable walls in signal integrity, power consumption, and thermal dissipation.
Silicon photonics replaces copper with light, enabling orders-of-magnitude improvements in data throughput at a fraction of the energy cost. However, realizing these gains requires solving deeply complex packaging challenges.
Silicon photonics is transforming five key sectors where optical performance, bandwidth density, and energy efficiency are non-negotiable.
Our photonic packaging workflow is engineered for precision at every stage, with dedicated equipment and processes for each assembly step.
High-accuracy die placement with eutectic and epoxy bonding for photonic and electronic dies on common substrates. Placement accuracy within ±5µm for initial positioning.
Fine-pitch wire bonding and flip-chip assembly for high-density electrical connections between photonic and electronic components. RF-optimized routing.
Sub-micron precision alignment of fiber arrays and waveguides with real-time optical feedback and UV-cure fixation. <2 dB insertion loss per channel.
Custom optical characterization: insertion loss, return loss, polarization-dependent loss, and spectral response across all channels at operating wavelengths.
End-to-end photonic packaging capabilities built on decades of advanced semiconductor assembly experience.
Multi-die assembly combining silicon photonic dies, III-V laser sources, and electronic ASICs into a single cohesive package.
Real-time optical feedback alignment systems for fiber arrays and waveguides, achieving less than 2 dB insertion loss per channel.
Photonic engines integrated with switch ASICs on a common substrate for next-generation data center architectures.
ISO 9001:2015 certified assembly environment with full traceability for every photonic package produced.
Eliminates the transceiver bottleneck by placing photonic engines directly adjacent to switch ASICs, slashing power per bit by up to 50% while enabling 51.2T switch bandwidth and beyond.
Our packaging supports multi-channel fiber I/O with low-insertion-loss attachment optimized for high-radix, spine-leaf topologies.
As the exclusive industry partner of the Centre for Programmable Photonic Integrated Circuits and Systems (CPPICS) at IIT Madras, izmomicro holds a unique position at the intersection of photonics research and industrial-scale packaging. This partnership enables joint development of next-generation photonic technologies, with izmomicro providing the packaging infrastructure to translate laboratory breakthroughs into manufacturable products.
Field-programmable photonic gate arrays enabling reconfigurable optical signal processing for telecom switching, RF filtering, and neural network inference
Advanced packaging for quantum photonic circuits and AI-accelerated photonic systems, including entangled-photon sources and programmable linear optical networks
High-speed coherent transceiver packaging, co-packaged optics for hyperscale data centers, and photonic interposers for chiplet-based computing architectures
Photonic Chip Packaging Initiative
Whether you're developing a silicon photonic transceiver, co-packaged optics module, or a novel photonic integrated circuit, our team provides end-to-end packaging support from design consultation through volume manufacturing.
Photonic circuit design-for-packaging consultation
Prototype assembly with sub-micron alignment
Custom optical test & characterization protocols
Mid-volume to production-scale manufacturing
IP-secure Class 1000 cleanroom environment