We co-led the Seed round with a plan to extend Moore’s Law beyond the limits of light litho, down to true 1nm resolution.

CEO Bodil Holst was formerly full Professor in the Nanophysics Group at the University of Bergen where she pioneered novel uses of molecular beams. CTO Adrià Salvador Palau holds a PhD in Machine Learning from the University of Cambridge and a second PhD in optical systems from the University of Bergen, and was a Senior Applied Scientist at Microsoft.

The company is based in Norway and is in stealth mode for now. Teaser site: LaceLithography.com

And for a nice historical account of lithography’s history, see the current issue of MIT Tech Review. It reminds me of my first trip to my Dad’s workplace as a 5 or 6 year old… He showed me the ruby-lith patterns, cut by hand with Xacto knives. He started at the Motorola fab in 1966.

4 responses to “Our latest investment: Lᴀᴄᴇ Lɪᴛʜᴏɢʀᴀᴘʜʏ”

  1. Deep Future wrote up a summary: "Hyperbole fails me when trying to describe the importance of computer chips to the world today. Everything made possible by computers relies on chips. Chips rely on transistors. Transistors rely on silicon. Silicon relies on lithography.

    Lithography the process of putting an image onto the surface of the silicon. Pretty much like the way a silkscreen puts text on a T-shirt. Except that this image has to be the highest resolution, with the smallest microscopic features, of anything humans produce. The state of the art uses Extreme Ultraviolet (EUV) light to do the lithography. The machine that can do this cost $50 billion to develop. It has 500,000 parts. Only the Large Hadron Collider is more complicated. To buy one costs $250 million and you’ll be stuck on a waiting list that is $40 billion long. The machine comes from ASML in the Netherlands and they don’t have a single competitor, in the entire world.

    That machine shoots a tiny ball of molten tin into a vacuum and blasts it with two lasers to produce a flash of 13.5 nanometer ultraviolet light that gets aimed at the surface of a silicon wafer – the pinnacle of human engineering achievement. ASML, light path in purple:ASML advanced from 193nm to 13.5nm light to make this possible, but there’s a problem. The diffraction limit of 13.5 nanometer light was set by either God or Issac Newton and there’s nothing we can do about it. We can’t print features smaller than that and there’s no practical way to do lithography with a shorter wavelength. When people say that Moore’s Law is over, this is why. We can’t keep making smaller transistors.

    The semiconductor industry knows this, so they’ve tried to solve the problem by handing it over to the marketing department where the laws of physics don’t apply. You’ve seen them progress from 45nm to 30nm to 20nm over the last decade, then all of the sudden, 12nm, 7nm, 5nm & soon 3nm chips are coming. Well guess what, it is all just marketing bullshit.

    This measurement in chips used to be half the distance between the centers of two features. Once marketing took over, they started measuring half the distance between the edges of two features. Instant improvement! Then they started measuring other random stuff. Other kinds of improvements in chip design helped to gloss over the fact that we are no longer able to shrink the size of transistors by 50% every 18 months anymore.

    Today, there are extraordinary geopolitical machinations to control chip production. The U.S. has new tariffs and export controls akin to those for fighter jets and ICBMs (both are largely made of chips anyway). Access to chip production is as critical to superpowers as oil.

    So what is Lace Lithography? I can’t tell you. Yet. But this is the technology that can go well beyond Extreme UV and put Moore’s Law back on track. ASML is worth $300 billion. Lace Lithography will be their successor."

  2. Gosh, I sure hope Lace is the successor. I also hope that hope has nothing to do with their success.

  3. Wild sci-fi guess: DNA-biodeposition-nano-assembly of nickel full wafer templates with 1 nm features feeding a novel nano-imprint production process? 😉

  4. 🙂 to be disclosed later… making progress. I learned something cool at the first board meeting today: the Apple ][ CPU was the 6502, and Lace will be able to fit an entire 6502 chip in the space of one transistor on the original 6502 chip.

    I just happened to buy one of those vintage motherboards this week too… with the 6502 CPU, front and center

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