Plate Nº 61 · recorded October 10, 2026
Science Policy & FundingReported finding
NSF Launches ELEGANT to Move Lab Semiconductors Toward U.S. Factories
The NSF has launched ELEGANT, a five-theme program aimed at moving low-dimensional semiconductor research from academic laboratories into U.S. microelectronics factories, with industry validation built into every stage of progress review.
By Nathan Brooks3 min read668 words
In brief
- NSF launched ELEGANT, organized around five translation themes, to move low-dimensional semiconductor research from labs to U.S. manufacturers.
- Five themes cover: manufacturable materials, process design kits, device and chip demonstrations, manufacturing readiness, and AI-enabled acceleration.
- NSF issued an Other Transaction Agreement (OTASO) solicitation seeking one Ecosystems Coordinator and five Expert Performer Teams; no total dollar figure has been published.
- Quote: NSF's Erwin Gianchandani said the program aims to 'de-risk' advanced microelectronics manufacturing for industry adoption.
- Target applications include artificial intelligence, high-performance computing, advanced communications, and national security.
The U.S. National Science Foundation has launched NSF ELEGANT, a program organized around five themes that aims to move low-dimensional semiconductor research from academic laboratories into U.S. microelectronics factories.
The acronym stands for Ecosystem for Low-dimensional Electronics: Growth, Assembly, Nanoelectronics, and Translation. Each theme tackles a step between laboratory demonstration and industrial deployment.
What are low-dimensional semiconductors?
Low-dimensional semiconductors are materials only a few atoms thick or wide — typically two-dimensional sheets, one-dimensional wires, or zero-dimensional dots. Engineers consider them promising for next-generation chips because their electronic properties can outperform silicon at very small scales. "Microelectronics" is the broader category of tiny circuits that power phones, satellites, data centers, and modern vehicles.
The materials in question are still mostly experimental. Researchers have published papers describing them for years, but scaling up production has remained a stubborn barrier. NSF frames ELEGANT as a bridge across that gap.
Why does the program exist now?
The NSF argues that current microelectronics manufacturing cannot keep pace with demand for smaller, faster devices. Building these chips requires fabrication plants — "fabs" — that cost substantial sums to construct and equip, and the industry is reluctant to adopt new materials without strong evidence they can be produced reliably at scale.
That reluctance is what ELEGANT specifically tries to address.
"NSF ELEGANT aims to de-risk advanced microelectronics manufacturing technology to the point where industry can make a timely, credible, evidence-based commitment to its adoption," said Erwin Gianchandani, NSF Assistant Director for Technology, Innovation and Partnerships.
He added that industry validation runs through every stage of the program. "Every performing team's progress is validated by industry partners at each stage, so the technologies advancing through ELEGANT are the ones manufacturers are ready to adopt."
What are the five themes?
NSF structured the work around five themes, each to be handled by an Expert Performer Team selected through a competitive solicitation:
- Theme 1: Manufacturable Materials Platform — producing low-dimensional materials at industrial scale with consistent quality.
- Theme 2: Process Technology and Process Design Kit — developing fabrication recipes and the design tools engineers use.
- Theme 3: Device, Circuit and Full-Chip Demonstration — building test chips that integrate many components into working circuits.
- Theme 4: Manufacturing Readiness and Transition — preparing designs for transfer to existing factory lines.
- Theme 5: AI-Enabled Acceleration — applying machine-learning tools to speed up design, simulation, and testing.
An Ecosystems Coordinator will manage collaboration across the five themes and serve as the single point of contact with NSF.
Who can apply, and how much money is involved?
NSF released an Other Transaction Agreement Solutions Offering, or OTASO — a flexible funding instrument that bypasses traditional grant cycles — seeking the Coordinator and the five Expert Performer Teams. The agency has not published a total dollar figure for ELEGANT in its announcement. The scale of funding will depend on proposals submitted through the OTASO solicitation.
Where does the program sit inside NSF?
ELEGANT lives inside the agency's Directorate for Technology, Innovation and Partnerships (NSF TIP), which coordinates federal work on critical and emerging technologies. That directorate focuses on three strategies: accelerating emerging technology, expanding the geographic reach of American innovation, and training a workforce ready for advanced manufacturing.
What applications is the program targeting?
NSF lists artificial intelligence, high-performance computing, and advanced communications among the priority uses. Officials also frame the work as essential to national security and economic competitiveness — part of a broader push to keep the U.S. competitive with nations investing heavily in chip research and production.
What are the limits of this announcement?
The ELEGANT release describes intent and structure, not results. No specific companies, universities, or dollar amounts appear in the announcement. Outcomes will depend on which teams apply, which proposals win awards, and how quickly the Expert Performers can convert laboratory methods into factory-ready processes.
For now, the program remains a framework. Its real test begins once the Expert Performer Teams are selected and start producing measurable progress.
via sam.gov (Original)
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