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The CHIPS Act Helps the Wrong Companies

Daniel Nenni

Admin
Staff member
The CHIPS Act Helps the Wrong Companies.jpg


The CHIPS Act promises to boost U.S. competitiveness, innovation and national security with multi-billion-dollar funding for semiconductor manufacturing, leading-edge technology programs and advanced R&D. A commendable goal of course, but the CHIPS Act is helping the wrong companies.

The dilemma facing U.S. semiconductor companies is well-known. The U.S. makes only 12% of the world's chips, a steep decline from the 1990s when it produced 37%. And in the more critical and profitable advanced designs, foundries in Asia produce over 90% of these chips. This geographic imbalance became all too obvious during the pandemic when significant supply chain disruptions had a major impact on the U.S. economy.

I am fully aligned with the goal of strengthening American manufacturing and supply chains, enabling U.S. companies to compete more effectively and reverse these trends. What’s wrong with this picture? The CHIPS Act funding is going to the nation’s largest chip companies, the same companies that lost their competitive edge to TSMC and Samsung in the first place. At best, this funding might help these large companies catch up to their Asian counterparts, rather than help smaller U.S. companies that provide the innovation behind key technologies of tomorrow to manufacture domestically.

Technology Comes Second​

Yes, the CHIPS Act has the potential to bring clear benefits to the U.S. in increased semiconductor manufacturing and a reduction in chip shortages. And yes, the program will generate new jobs. But will it create innovative semiconductor technology that will surpass foundries in Asia? The answer is no.

The U.S. semiconductor industry was out-executed years ago by the likes of TSMC, which focused on state-of-the-art technology and a culture of customer service, establishing key partnerships with companies and listening to their customers. TSMC never had internal design teams competing with their customers and never dictated design methods to their customers. They focused on manufacturing, and as a result produce more silicon wafers than anyone else. Everything that simplifies adoption of their technologies, they automated and ensured designs quickly got into their fab.

Meanwhile, TSMC has announced the opening of its second plant in Arizona, raising its investment in the state from $12 billion to $40 billion—making it one of the largest foreign investments in U.S. history. If protecting the supply chain and making semiconductors in America is the only objective, this would already achieve that.

The Limits of Moore's Law​

For U.S. investment in semiconductor technology to be sustainable in the long term, we need to surpass parity with existing leaders. The semiconductor industry is dynamic and fast-moving, with foundries announcing new process nodes every 18 months. To regain leadership, we need to solve the core issues that now limit Moore’s law, the decades-ago observation by Intel founder Gordon Moore who observed in 1965 that the number of transistors in a microprocessor would double every two years. This precept accurately predicted an exponential increase in computer performance—a phenomenon held true for decades. Today this is no longer the case. The design of today’s transistors has added extreme complexity to the design process and Moore’s Law has started slowing down, which raises both concern and opportunity for U.S. semiconductor makers .

First, the concern. The advancement predicted by Moore’s law has been interrupted by physical phenomena in semiconductor technology, such as increases in heat generation, which impedes processor performance and interconnect technology. This has now become the barrier for scaling the performance of SoC (System-on-Chip) architectures needed in increasingly necessary artificial intelligence capabilities. These phenomena hinder the performance advancements promised by Moore’s law, and so hinder an entire industry.

Now here is the opportunity: What if we could overcome these roadblocks by reclaiming the trajectory of Moore’s law?
The U.S. needs to fund semiconductor innovation and solve core problems, such as the heat and interconnect issues I mentioned today, limiting Moore’s law. We need to regain industry leadership, and I believe we can do it.

Chips off the New Block​

America has always been about leadership and has historically funded crucial projects intended to win the war against the enemy. Today, new companies with innovative semiconductor technology will help America win the chip war.

Companies solving the semiconductor heat problem include Frore (one of our portfolio companies), which has developed the world’s first solid-state chip for active device cooling. A company called JetCool provides semiconductor liquid cooling via microjets to pass liquid coolant directly to the chip’s surface.

There are also novel approaches to solving the interconnect problem, ranging from optical solutions such as Avicena (another one of our portfolio companies), offering microLED optical interconnect and Lightmatter, providing photonics supercomputers. Ayar Labs is developing multi-wavelength lasers and optical chiplets. And Astera Labs is creating a new purpose-built hardware solution of smart cable modules that overcome the reach, signal integrity and bandwidth of copper interconnect.

These are just a few companies that are ready to advance U.S. semiconductor leadership.

We can innovate again and reclaim semiconductor technology leadership by funding new companies just as we did in WWII. In 1941, U.S. President Franklin D. Roosevelt created the Emergency Shipbuilding Program to rapidly build cargo ships and send much-needed supplies to the Allies for the war effort. He eventually funded industrialist Henry J. Kaiser, who had never built a ship before in his life. Between 1941 and 1945, Kaiser built 2,751 Liberty cargo ships, the largest class of ships ever built … and he built them fast! Kaiser shipyards reduced the industry average of 230 days to 45 days and ultimately to less than three weeks! How did he do it? He revolutionized shipbuilding by introducing mass-production techniques, instituting modular construction and assembly techniques in which ship sections were welded together instead of riveted. The sheer number of Liberty ships at sea overwhelmed German forces. American ingenuity helped the Allies win World War II.

Inventiveness, resourcefulness and sheer brilliance are part of America’s history. We can again be the leader in semiconductors by funding truly innovative technology, and the CHIPS Act presents an opportunity to make a choice. Let’s make it a good one.

Rajeev Madhavan is co-founder and partner, Clear Ventures.

 
What a silly op-ed. The only coherent takeaway I got was "please fund one of our portfolio companies".

I know the author. He is a serious guy but always has an agenda. I’m a big fan of start-ups having worked with dozens of them over the last 40 years. We are seriously lacking in start-ups now but I’m not convinced government money is the best way to change that. A lot of the start-ups came out of Universities directly and indirectly. Maybe stuff more money in EE departments? AI is giving us a start-up boost but many of them have busted already. It was a mini version of the Dotcom bubble in the 1990s.
 
I know the author. He is a serious guy but always has an agenda. I’m a big fan of start-ups having worked with dozens of them over the last 40 years. We are seriously lacking in start-ups now but I’m not convinced government money is the best way to change that. A lot of the start-ups came out of Universities directly and indirectly. Maybe stuff more money in EE departments? AI is giving us a start-up boost but many of them have busted already. It was a mini version of the Dotcom bubble in the 1990s.
Even really smart, serious people can write silly stuff to support their agenda. As for your university funding idea, which I think is a good idea, it's not just EE departments. For semiconductors I'm thinking chemistry, chemical engineering, applied physics, materials science, in addition to electrical engineering, to name some examples.

My first thought is that AI is a bubble too, but I'm trying to have an open mind about it. For example, I wouldn't be surprised if the professional knowledge and decision-making assist markets end up being significant revenue generators, on the order of what we currently see with apps like MS Office, Synopsis, Cadence, Westlaw, Proscia, and so on. Or maybe I'm getting too optimistic in my old age. :rolleyes:
 
My biggest worry is that semiconductors reach a physics limits and then everything will naturally get outsourced to whoever can make it the cheapest. Hopefully heterogenous integration and photonics and new 2d materials can save the day.
 
My biggest worry is that semiconductors reach a physics limits
The fear that "the end of scaling is nigh" is a fear folks have had for the past 30-40 years. I will believe we have well and truly reached the end to cost per FET reductions from new nodes when it actually happens for more than a node or two (20nm to 16FF being the poster child of "cost scaling is dead" only to be proven wrong with it's successors). As for cost that has always been the main driver of driving for new nodes. Folks mostly reached for said new nodes to increase functionality/complexity for a given die cost and power footprint. Last year CC Wei was talking about how with N2 and beyond the focus would moreso be on the TVO rather than the TCO of new nodes. Based on that statement the power and performance improvements aren't going anywhere anytime soon even if the economic value of moving to more advanced nodes becomes more muted.
Hopefully heterogenous integration and photonics and new 2d materials can save the day.
This is a surprisingly common fallacy. Heterogenous doesn't actually lower cost per fet. In a vacuum it makes it more expensive since you waste die area and the oh so valuable die shoreline on die-die PHYs. You of course also raise your packaging costs and test times. Of course chip design doesn't happen in a vacuum and hetero does give you a better ability to optimize for the right process for any given part of an SOC (be that wafer pricing, minimizing the cost of redesign IP blocks, or because you don't have a process technology with every feature you want). Of course there is also the obvious benefit of improving die yields on large die products without having to make massive improvements to defect density, or the ability to make products larger than the reticle limit. TLDR disaggregated chip design is important and valuable, but it is far from the silver bullet that many make it out to be.
 
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My biggest worry is that semiconductors reach a physics limits and then everything will naturally get outsourced to whoever can make it the cheapest. Hopefully heterogenous integration and photonics and new 2d materials can save the day.
Why is this a worry ? Surely that will eventually happen - and when it does wouldn't you rather the end products were cheaply mass-produced than not (the alternative presumably being to pay more to monopolistic suppliers) ?

And if we can't directly innovate semiconductors any more, then we can always pay more attention to other areas.
 
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