Following Moore’s law, the compute power of logic chips and the capacity of memory have been scaling exponentially over the past few decades. As a result, demand for I/O bandwidth is following a similar exponential trend, soon requiring in the order of Terabyte-per-second I/O aggregate bandwidth.
Join our industrial affiliation program on advanced optical I/O to explore and enable future system-level performance scaling using fully CMOS-compatible silicon-based optical links for datacom network, backplane, board, interposer and chip-level interconnects.
In particular, our research comprises:
1. System level studies
• Optical I/O system roadmaps
• Optical link architecture and benchmarking
2. Si Photonics Integration Technology
• Silicon-based Photonic Integration Platform (PIC)
• High performance Si Photonics devices
• Yield, Reliability Assessment
3. Packaging and Assembly
• CMOS to Si Photonics 3-D integration
• Laser on Si Photonics hybrid integration
• Fiber connectivity to the package/chip
4. System Demonstrators & Benchmarking
• CMOS TxRx circuit optimization for optical ICs
• Silicon prototypes for proof of concept
5. Exploratory Devices and Materials
• Explore novel devices and materials beyond Si: monolithic III-V, advanced Ge(Si),
graphene and others
Some examples of what we have done
At imec bright people build a bright future.
You could be one of these builders. Whether you are an engineer or an operator, a consultant or PhD student, we need a versatile group of people to help us create positive change.Join the forward thinkers
CEO Imec Gas Sensor Spin-off
Launching a successful imec spin-off focusing on a disruptive chip-scale laser-based gas sensing technology
Atom probe tomography for next generation 3D semiconductor nanodevice characterization
Shape the future of 3D metrology - atom by atom.
Reliability of monolithic integrated III-V laser devices
Step into the new era of optical interconnection devices, the disruptive technology that enables future-generation data communications.
Decoupling 2D materials from its growth surface via ion implantation
Changing the interaction between 2D materials and its surroundingsMore job opportunities