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New chip materials could make future electronics more efficient, but scaling is difficult.
Imagine discovering a material that makes future chips cooler, faster or cheaper—and being able to test it virtually before expensive fabrication.
The future of computer chips depends not only on making familiar parts smaller, but on discovering materials that behave in useful new ways. Powerful models can help researchers search for promising substances and predict how they might interact with advanced manufacturing processes. A successful material could lead to more efficient electronics or make a difficult design possible. But the path from a laboratory candidate to a reliable component used in millions of products is long. Manufacturing yield, cost and durability are as important as an exciting scientific prediction.
Big change is fascinating. Its implications are what matter.
New chip materials could make future electronics more efficient, but scaling is difficult.
Novel semiconductor materials must pass fabrication yield and reliability tests.
Foundries, electronics firms and materials suppliers depend on complex joint innovation.
Jim’s semiconductor presentations focus on the collision of design acceleration and physical fabrication constraints.
Meet the futurist behind YottaBit ↗Which process qualification is the true bottleneck for a promising semiconductor material?
Here's what researchers have demonstrated, what's still ahead, and where to check the source. It should deepen the story—not get in the way of understanding it.
What's happening today: GNoME and TSMC demonstrate separate capacities.
The next challenge: Fabrication yield and qualification can take years regardless of how quickly a model suggests a material.
How the technologies connect: Material discovery + lithography + physical simulation.
Google DeepMind — GNoME materials discovery; Nov 2023 ↗