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Atomically Perfect 2D Semiconductors

The global demand for computation is accelerating, but silicon has reached its physical limit. Tessellate 2D manufactures defect-free, monolayer semiconductors to enable the next decade of Moore’s Law.
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Higher Mobility
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technology

Gold-Stamp Technology

Tessellate 2D grows the highest quality 2D semiconductor crystals. Our revolutionary Gold-Stamp technology can deterministically isolate the over 100,000 atomic-scale monolayers from every bulk crystal, making top-down fabrication of high-quality 2D semiconductors scalable for the first time!
Atomic-Level Precision
Intrinsic bulk crystal quality is preserved, with 100× fewer point defects than direct growth methods.
Wafer-Scale Potential
Improved crystal growth and automated exfoliation enables future 50–300 mm platforms.
High-Mobility Transport
Monolayers are inherently single-crystal, and exhibit 5× higher mobility than CVD films.
High-Mobility Transport
Monolayers are inherently single-crystal, and exhibit 5× higher mobility than CVD films.
Wafer-Scale Potential
Improved crystal growth and automated exfoliation enables future 50–300 mm platforms.
Atomic-Level Precision
Intrinsic bulk crystal quality is preserved, with 100× fewer point defects than direct growth methods.
applications

Who we serve?

Describe the industries product applies to
Electric utilities
to supply base-load clean energy, supporting grids with high renewables penetration
Heavy industry & process heat
steel, cement, chemical, and refining industries need high-temperature heat without carbon emissions
Space & extreme environments
applications where compact, reliable power sources are crucial (e.g., remote research, off-planet)
Electric utilities
to supply base-load clean energy, supporting grids with high renewables penetration
Heavy industry & process heat
steel, cement, chemical, and refining industries need high-temperature heat without carbon emissions
Space & extreme environments
applications where compact, reliable power sources are crucial (e.g., remote research, off-planet)
FAQ

Everything You Need to Know

Key insights into our materials, methods, and roadmap.

Why do 2D semiconductors matter?

They maintain high electronic mobility even at a single-atom thickness, unlike silicon, which loses performance below ~3 nm. This makes 2D materials the only viable path to continued transistor scaling.

What makes Gold-Stamp™ technology unique?

It is the only scalable, top-down method that can isolate individual monolayers with defect rates 100× lower than CVD films. Quality is limited only by the parent crystal.

Can Tessellate 2D materials be used in industrial semiconductor fabrication?

Yes. Our monolayers are compatible with industry workflows and are already being tested by top semiconductor manufacturers (per customer discovery notes).

What is your current product?

We supply macroscopic TMD monolayers for research customers and are scaling toward 50 mm → 200 mm → 300 mm wafers.

When will Tessellate 2D be ready for high-volume manufacturing?

According to our roadmap, industrial scale fabrication aligns with A2 node adoption (~2036), with progressive scaling milestones in 2026, 2028, and 2032.

blog

Shaping the Future of Computation

Deep dives into 2D materials, scaling challenges, and the future beyond silicon
team

Our team

A multidisciplinary group with deep expertise in materials science, semiconductor engineering, and advanced fabrication.
career

Join Our Team

We're looking for talented individuals, passionate about building the future of computaton
View Open Positions ▸
partners

Investing in
the future
of computation

We are supported by leading technology investors.
Please contact us for partnership or investment opportunities.
contacts

Get In touch

Questions? Suggestions? Get in touch with us now!
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