(PR) Imec Launches University Consortium Around Next Generation of Chips

Key Takeaways

• Imec forms 26-university consortium for CMOS 2.0 research.
• Focus on design automation, 3D wafer stacking, chip architecture.
• NanoIC pilot line provides early access to advanced process kits.
• 26 PhDs funded to bridge academia and industry in Europe.
• CMOS 2.0 aims to boost AI, edge, high‑performance computing.

Summary

Imec announced a European university consortium of 26 institutions to develop CMOS 2.0, a post‑CMOS scaling paradigm that leverages fine‑grain wafer stacking and heterogeneous integration. The partnership will fund 26 PhD researchers who will remain at their home universities while accessing imec’s NanoIC pilot line and its advanced process design kits. The initiative targets design automation, chip architecture, and system‑level thinking to accelerate energy‑efficient compute platforms for AI, edge and high‑performance workloads. By linking academia directly to industry, the consortium aims to keep Europe at the forefront of next‑generation semiconductor technology.

Pulse Analysis

The semiconductor industry is confronting the physical limits of traditional CMOS scaling, prompting a search for new architectures that can sustain performance growth. Imec’s CMOS 2.0 concept expands the manufacturing toolbox by introducing fine‑grain wafer stacking and heterogeneous integration, enabling designers to create multi‑layer chips with tailored functions. By assembling a consortium of 26 leading European universities, imec is creating a collaborative research engine that can explore these novel design spaces faster than isolated academic labs.

A core strength of the initiative lies in its practical bridge between theory and production. The NanoIC pilot line in Leuven offers participating PhD students direct exposure to state‑of‑the‑art process design kits, allowing them to test design‑automation tools and system‑level architectures on real silicon early in their careers. This hands‑on approach not only accelerates technology transfer but also cultivates a skilled workforce fluent in both electronic design automation (EDA) and advanced packaging, addressing Europe’s talent gap in high‑end semiconductor engineering.

From a market perspective, CMOS 2.0 promises to unlock energy‑efficient compute platforms critical for next‑generation AI, high‑performance computing, and edge applications. By fostering cross‑disciplinary research and aligning academic output with industry roadmaps, the consortium positions Europe to compete with US and Asian semiconductor hubs. The model also sets a precedent for future consortia focused on emerging materials and alternative compute paradigms, potentially reshaping the global semiconductor ecosystem over the next decade.