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Research & Development

Global Models for Industrial R&D

Academic R&D and the “Valley of Death”

Around the world, leading universities excel at advancing scientific knowledge through high-quality academic research. Their work results in top-tier publications, fundamental discoveries and the training of highly skilled graduates. However, only a very small proportion of these academic innovations, typically ~5%, make their way into products or manufacturing lines within a reasonable timeframe. This persistent gap between academic breakthroughs and the technology readiness required by industry is often described as the “valley of death”. It reflects a structural mismatch: universities focus on discovery, while industry needs manufacturable, reliable and scalable technologies that fit into commercial production environments. The skill sets, timelines, incentives and infrastructure required for these two missions are fundamentally different.

Centres of excellence vs Industry Co-development centres

Traditional COE Faculty Students Limited Labs Industry Co-development Centers ICC Research Faculty Students Faculty Industry Engineers on Campus Global Academic Collaborators Research technician State-of-the -art Labs

Georgia Tech Model of Industry-Centric R&D

To address this challenge, Georgia Tech pioneered a globally recognized and highly successful model of industry-centric R&D that bridges academia and manufacturing. Unlike traditional Centres of Excellences, which primarily involve faculty and students working on academic problems, the Georgia Tech model integrates industry deeply and structurally into the research ecosystem.

This approach includes several transformative elements:

1. Industry Engineers Embedded on Campus

Companies place their engineers within the university, working daily with faculty and students. This creates a continuous exchange of problems, solutions, and technical insights.

2. Manufacturability as a Core Objective

Research is not limited to conceptual demonstrations. The focus is on developing manufacturable, scalable technologies, supported by process workflows, design rules, quality systems, and pilot-line validation.

3. Full-Time Research Faculty as Program Managers

These faculty members act like technical leads in an industrial R&D organization overseeing technology roadmaps, coordinating multi-partner projects, and driving prototype development toward defined deliverables.

4. Pilot Lines and Prototype Development

Instead of stopping at device demonstrations, the model supports pilot manufacturing, allowing technologies to be validated at the subsystem or system level before industry adoption.

5. Industry-Ready Workforce Development

Students trained in this environment gain experience working with industrial tools, processes, and problems, making them workforce-ready from day one.

This comprehensive integration of academia and industry effectively shortens the development cycle, reduces risk and ensures that ideas can move from research labs to production lines with speed and reliability. It creates a powerful innovation engine where universities contribute not only through knowledge generation, but also through direct technological impact and industrial competitiveness.

Such a model is particularly relevant for India at this critical juncture, as the nation seeks to accelerate its semiconductor and advanced packaging capabilities. Implementing an industry-centric approach similar in spirit to the Georgia Tech model would enable India to systematically overcome the valley of death, build technologies at global standards and rapidly scale its manufacturing ecosystem.

Global Model Benchmark Comparison

Benchmark Category Georgia Tech / IDSPS IMEC ITRI / Fraunhofer SRC
Academic R&D
Mfg. R&D
Educated Workforce
Involvement of Large No of Academics
Industry Co-development
Technical Focus DsPS PS PS DPS
Capability Present
Partially Present
Not Present
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DPS = Design · Packaging · Systems