Computational lithography predicts how a chip pattern will print... before it reaches a wafer. Using physical models and advanced algorithms, we optimize the reticle design, illumination and imaging conditions so patterns print exactly as intended.show more

From early design to volume manufacturing, our computational lithography... software enables chipmakers to optimize the chip patterning process. Layer by layer, chip by chip, wafer by wafer, computational lithography is helping push microchip technology to new limits.show more

Learning how to precisely print microchip patterns starts in... R&D. By integrating computational lithography, optical metrology and e-beam inspection with lithography systems, holistic lithography helps chipmakers fine-tune their patterns before volume production begins.show more

Before chip patterns are printed in volume production, they’re... perfected in R&D. That’s when holistic lithography helps chipmakers model, measure and fine-tune the process so printed patterns match the intended design as closely as possible.show more

Making advanced chips requires more than advanced lithography. It... takes metrology, inspection and computational lithography working together – from R&D to high-volume manufacturing – to keep chipmaking economical. That’s holistic lithography. Watch the animation for more. 👇show more

How to Print a pattern on a concrete path...

A video on how I achieved the receipt print... design. ✨show more

What if we could decode the mysteries of how... we think? 🧐 New research from our Connectomics team and Harvard University University reveals surprising new insights about our human brain, using scientific imaging and our advanced AI algorithms. Learn more →show more

Insane precision from $ASML in this video. Watch from... ~1:30 onward "Fun fact: the movement of the reticle stage and wafer stage are synced, but *light speed has to be taken into account*. The reticle stage needs to move slightly earlier, since it can shift more than 100 nanometers in the time between when a photon leaves the reticle and when it reaches the wafer." Sweet video ASML, keep 'em coming.show more

For just $699, the Formlabs Form Studio 1 is... the first affordable, professional-grade resin 3D printer with a powerful, long-lasting print engine and an open platform. Print most parts in under two hours with razor-sharp detail and a workflow that's safe, reliable, and mess-free from start to finish. Find all the details at Bottle design inspired by High-end surface modeling and computational design experts.show more

"The government can't print #Bitcoin, and the government can... print dollars, and they're gonna print a shitload of dollars."show more

Took me 2 weeks to 3D design it, print... it, and build it. The Hullcrackershow more

$ASML EUV tools print features as small as ~13nm... making them essential for manufacturing AI chips. Every chip like $NVDA Blackwell, $AMD MI300, $AAPL M4, $GOOGL TPU & $AMZN Trainium requires EUV lithography. You either use ASML’s machines or you don’t make advanced chips.show more

excited to share a new project! we've developed Co-ML:... a collaborative experience for building machine learning models on iPads. we show how families can learn about ML together using Co-ML in a playful at-home activity. pre-print for Interaction Design and Children (IDC) conference 2023:show more

Our extreme ultraviolet (EUV) lithography systems print features just... 13 nm wide – orders of magnitude smaller than the letters in even the densest books – because that’s the level of detail and complexity needed to make today’s advanced chips a reality.show more

Why exactly are we borrowing in a currency that... we print ourselves?show more

One of our engineers built an interactive math art... generator using the new 3.6 Flash model. You can customize speed, colors, and geometry parameters on the fly, then export the design directly to a 3D-printable STL file. Watch the video to see how the physical print turned out!show more

When we started Cerebras, we knew we would have... to solve difficult problems in yield, power, and cooling. What became clear was that making wafer-scale work would require rethinking almost the entire system. Today, we answered questions from the community about those engineering decisions, how we run larger models, and what it takes to program the hardware. 2:15 Why hasn't NVIDIA gone wafer-scale? 4:10 How we build a working chip out of an imperfect wafer 8:07 What happens when a model won't fit on one wafer? 11:34 Why we chose SRAM over HBM 14:26 How much of a barrier is NVIDIA's CUDA moat?show more