Skip to main content

My statement on the inaugural genesis mission annual summit


Over the last couple of months I've invested a healthy amount of time in engaging with US representatives working at the intersection of academia,industry and policy. Earlier in May the US Dept of commerce organised a “Select USA campaign” that was meant to position the USA as the leading destination for investment and I had an opportunity to connect with several Foreign service officers in Delhi promoting USA to Indian entrepreneurs. Before that, last year in December, I met online with researchers at Princeton Plasma Physics Laboratory to understand how they are using AI to accelerate fusion research.  My engagement continued with several non profit organisations like American society of Metals ,Society for automotive engineers and American institute of physics —plasma division and it enabled me to get the big picture view of the US research landscape. Which is why I was really excited to attend the inaugural genesis mission summit held last week to see what announcements would be made. 


As I expected, AI took the center stage. This was not surprising because when president Trump signed the executive order launching the initiative it was done with the express purpose of creating a centralized system to accelerate scientific output of the USA. 

Clearly the US administration, along with the extremely wealthy information technology lobby in Silicon Valley, believes that AI has created a new computing paradigm that has the potential to change how science is done. On the face of it this is a good decision because it reroutes a portion of the capital back to universities and research institutions. 

This is obviously good from the perspective of science. It will make it possible for several bright young minds in the USA to make a career out of research. Politically this is an excellent decision because President Trump has been facing a lot of criticism regarding “cutting the funding from institutions" but this nearly $ 5 BILLION announcement proves that funding is actually being streamlined rather than frozen. 

What I find really exciting about this initiative is that it is being led by the Department of Energy. Secretary Wright has recognised that it is important for the US to maintain its position as an energy leader. A good chunk of resources have been allocated to grid modernisation, nuclear energy capability building and building tools to advance US manufacturing capability that can allow it to harness energy from renewable sources on a massive scale. 

While Secretary Wright recognised the importance of AI he also understood that necessity to strengthen the infrastructure necessary to make AI work. Energy was one part of that equation,materials were another. He emphasized the importance of securing critical minerals, and continuing the material discovery process that can enable new technologies. Equal emphasis was placed on improving construction processes,water management and on life sciences. 

So while AI was the highlight of the event it's clear that the genesis mission is setting a more ambitious goal. And the fact that the goal is coming from the department of energy makes me certain that the US administration has got its innovation loop right. Invest in tech that allows you to build even more technology. 


I do believe that the focus on AI is a bit exaggerated. AI does help continuing education, building skills and in facilitating cross pollination of ideas. People who don't have a background in STEM can get good at science with dedicated work and start contributing with their core competencies in policy,economics ,business and help in diffusion of technology or even breakthrough discoveries. 

The focus on simulation of experiments is also not out of place. Science had already become computational long back. Platforms like MATLAB allowed researchers to perform virtual experiments in certain highly calculation intensive fields. AI is a natural evolution of that. 

But it has its limits. No matter how much computing power you throw at it, AI is not going to get rid of geographic mineral imbalances in the world. New Li deposits are not going to pop out to make battery problems go away. These problems can't be solved by brute force but need to be sidestepped by building new systems. I have my doubts if these can be outsourced to AI because creating a new body of knowledge is not an optimisation problem. The means to achieve those objectives are not well defined and often require backtracking and branching. If AI does manage to achieve that it would be at best as efficient as a normal human. That discovery process will be just as long-winded as if it were done by humans. 

I also don't really believe that novel research can be institutionalized. Often the example of ARPA is given as an agency that bought us the internet among other wondrous new inventions. But nearly all of them including the internet were evolutions of design that were built by painstaking hard trial and error processes. The internet is an evolved telephone network and it exists because theorists like Maxwell,experimentalists like Bell ,entrepreneurs like West and Bright together with private corporations like Atlantic Telegraph company were willing to take massive risks that would have sounded utterly foolish to everyone else. 

Every invention can be traced back to a handful of people who were willing to believe in it and see it through multiple failures. 


I have said this before and the time that has elapsed since then has only made me more confident that intelligence is largely overrated. Inspiring moments and intuition do open up new sources of knowledge to us but every time we acquire new information it fits naturally with truths that were established previously. Through action we refine our understanding and build new tools,give structure to new ideas that continue to enrich our lives. If AI ever reaches the point where it starts to make discoveries it would look very human-like. What might change is that you could have machines using electrical energy instead of food to give rise to that discovery but it would cost just about the same in terms of energy. 

On the materials side AI promises to help discover new materials and new processes. Which could be useful but I'd be really cautious in estimating its overall impact. Abundance of materials have an overwhelming impact on the technologies that develop around it. Higher strength and toughness could be reached with exotic alloys systems but they would have to compete with moderate strength but vastly more abundant systems. 

Advanced manufacturing too is very limited. As an example compare the promises of additive manufacture the hyperbole around it that promised to revolutionize manufacturing to what it has actually delivered. 


This is the crux of the debate. Concentrated high power vs diffused low power. The industry as it currently stands is built upon centralised systems. Power generated at one spot and then distributed. Servers at one location sending information to billions of people. One steel plant producing material for the entire state. However it is also possible to distribute both energy and materials production, this would make the overall system more robust though it would require new techniques. 

It is also what the genesis mission is doing with its super-computer strategy. It's creating massive compute power to simulate complex physical problems. This means smaller transistors on the device level and more power hungry servers on the system level. But if we look at the computing history every new invention promised scientific breakthroughs. Vacuum tubes did that,transistors did that,big data and cloud computing did that and now AI is doing that. Did it lead to a breakthrough? I don't know because we are still struggling to solve equations like Navier stokes built over a century ago. Maybe a server farm could do that but how would engineers benefit from it? Would they be expected to run off to a supercomputer to determine the outcomes of every small change? Paradoxically, experiments are cheaper and faster!

In science, materials changes are actual real computation. The materials under experiment are  physically computing , or perhaps we should say changing their state, according to the laws that govern their behaviour. When you heat a slab of metal heat transfer occurs according to the heat equation. This is determinable via sensors. What goes on inside the metal, the response of the electrons and crystal lattices is real computation. It's the same in all scientific fields,chemistry,biology doesn't matter what field you choose. Material response is a common underlying theme that manifests change that is observed and controlled. Simulation can predict this because real computation is happening at the material level. 

The discovery of figuring out the governing law is a one time process. Newton's laws are discovered. They will predict outcomes according to their model of the universe forever. 

Supercomputing alternatives and more powerful AI systems would definitely make those predictions more accurate. And it pushes computer science to its limits for sure. Those who have the means and the ability to do it should go for it. But it's not a necessity for either scientific advancement or material production. Mathematical tools exist that allow probabilistic predictions of complex equations and don't even require a computer. It also allows us to build different kinds of computers that are not as powerful but still good enough probabilistic simulators relaxing the feature size limits. 

This does not mean that I'm against simulations. I find them very useful and necessary during the discovery and formulation stage. Simulation should be reasonably accurate that it gives enough confidence to actually do a real experiment. If even models can't work then no way a real experiment would. But again it does not have to be precise, only accurate enough that it allows us to proceed with experimentation and flexible enough to allow feedback of those results to the original formulation and increase accuracy.  

The fact that AI has been useful in learning is really more of a critique on how learning systems are currently designed than any inherent advantage of AI itself. Because the material is still the same only how it's approached and acquired changes. 

Geopolitics is definitely an angle here as is nearly every new technology these days. AI is now a ‘national security’ issue as well. Geopolitically speaking there is no way that any nation can catch up or level with those who have built this tech. The only way to achieve parity is to make it irrelevant. But that's easier said than done. 

 


Comments

Popular posts from this blog

Why does collapsing a bubble with a sound wave produce light?

My thoughts on a reddit discussion  https://www.reddit.com/r/AskPhysics/comments/1lwxxc3/comment/n2jx8gp/?utm_source=share&utm_medium=mweb3x&utm_name=mweb3xcss&utm_term=1&utm_content=share_button The collapsing of a bubble with sound wave leads to the emission of light in a phenomenon known as sonoluminescnce.  The bubble collapse is rapid and the gas inside the core doesn't have time to exchange heat with the surroundings as it's compressed rapidly leading to what is known as adiabatic compression.  This compression heats up the gas to very high temp. The exact temperatures are inferred from the spectrum of emission which is thought to be a blackbody. But some sophisticated models have also been developed that put the temp in the range 5000k-20000k some even higher.  There's also debate on whether the bubble emission spectrum is truly a blackbody or is it line emission or bremsstrahlung? Personally I think its a mix of all three. The pressures create...

WeWork India Sustainability Summit 2025 Tackling Technical Challenges in Green Building Innovation

I thank we work India for organising sustainability summit 2025 to help drive real change towards decarbonising the commercial real estate sector. I gained valuable insights from the esteemed speakers especially around policy and regulation in this space.  My own thoughts kept pulling me towards some of the more technical challenges which are quite significant.  The current strategy of making buildings sustainable focuses on reducing the carbon footprint of a building during its operation and construction. In the operational stage the challenge is to ensure that the building can run on green energy. Heating and cooling are the heaviest users of energy and thus obvious targets for decarbonisation.  Since buildings these days scale vertically it's impossible to cover the energy requirements from rooftop solar panels. Unless solar panels can be installed vertically along the facade, the surface area would be too limited to generate any significant power. The idea has been tr...

Can you compress water and turn it solid?

A question asked on reddit https://www.reddit.com/r/askscience/comments/1n02vlg/ Yes and this has been experimentally confirmed. Shock compression of water has produced different forms of ice crystals.  SOME REFERENCES Experimental evidence for superionic water ice using shock compression https://www.nature.com/articles/s41567-017-0017-4 This particular form of ice melted at 5000K at 200Gpa.  https://www.llnl.gov/article/44081/first-experimental-evidence-superionic-ice An interesting tidbit from the research is in this paragraph  >Using diamond anvil cells (DAC), the team applied 2.5 GPa of pressure (25 thousand atmospheres) to pre-compress water into the room-temperature ice VII, a cubic crystalline form that is different from "ice-cube" hexagonal ice, in addition to being 60 percent denser than water at ambient pressure and temperature.  I'm not really sure at what temp this compression was performed but ice vii is known to exist at room temp at high enough pre...

What IMC 2025 Revealed About the State of Telecom

IMC 2025 lived up to its reputation as India's most anticipated communication event attracting big industry players—Intel,Qualcomm,Mediatek,Ericsson,Nokia along with research institutions and startups. All the 7 layers of the networking stack from the PHY to APPLICATION were well represented by various organisations.  Mobile operators serve as the face of the network but we often forget that they are powered by a long list of manufacturers and service providers. IMC gave them a platform to showcase their products and directly engage with customers.  5G is already here and very predictably there were talks around whether it has delivered on the promises it made. Speakers shared their thoughts and while the general consensus was that 5G did bring about somewhat faster speeds and a bit of lower latency the massive promises that it made especially around remote healthcare AR,VR and smart cities have all been forgotten.  mmwave is no where to be seen or even heard of. It's qui...

Steel composites integrating diamonds and carbon nanotubes

Incorporating hard materials like diamond or carbon nanotubes (CNTs) into steel presents unique challenges, particularly when using traditional melt processing techniques. Diamond, for example, is extremely difficult to integrate into steel via melting due to its thermal instability. However, diamond is routinely embedded in steel surfaces for cutting applications. In the electronics industry, steel wires coated with diamond are used to slice silicon crystals into thin wafers. Two main techniques are commonly employed for embedding diamond in metals: 1. Electroplating: Diamond powder is suspended in a metal ion electrolyte, usually nickel. When an electric current is applied, nickel deposits on the metal wire, trapping the diamond particles in place. 2. Sintering: For more demanding cutting tools, diamond can be embedded on metal surfaces using sintering, which fuses the particles to the substrate at high temperatures without melting the metal. Similar challenges exist when attempting ...

Update on the ASM committee meeting on the State of the Art in Material Upcycling for Additive Manufacturing

May 15 2026 I thank ASM sustainable manufacturing committee for organising a highly informative talk by Dr Sweta Baruah on the topic of Materials Upcycling in Additive manufacturing.  As it stands AM is far more material efficient than traditional manufacturing processes— producing less waste than subtractive manufacturing techniques (milling/turning/drilling/grinding).  Yet feedstock cost in AM remains high due to energy intensive processes used in its manufacturing. Typical powderisation techniques using gas or water atomisation consume much energy as do wire extrusion processes.  The desire to cut down the input energy serves as a powerful motivator to develop processes that can lower the cost and make AM more sustainable.  Traditional melt processing technologies for making powder or wire help with the reusability of waste streams and reduce energy input because compared to fresh feedstock there is no need for crushing ,chemical treatment,reduction etc.  Yet...

Is there a future for materials science students in tribology?

My comments on a reddit discussion https://www.reddit.com/r/materials/comments/1nmooy5/comment/nfg6vub/ Tribology is a very important subfield of Mat sci and highly relevant anywhere there are moving parts. Like many other materials science domains its cross disciplinary and overlaps with automotive , aerospace ,manufacturing and even nano systems. I think its definitely worth studying and one should atleast  know about core concepts. From a purely research point of view the field is quite deep especially as it is being developed for nano systems and other emerging areas like triboluminescence. It does have a future. Wear is one of the major failure mechanism in materials and lots of resources are allocated to minimise it. Turbines,engine components, tyres ,cutting tools all suffer from wear and constant monitoring and refinement of process parameters is necessary.Many coatings are designed to reduce friction and wear Diamond like carbon films are cutting edge if you can build some...

Perspective from EU Research & Innovation (R&I) Days 2025

I thank the European Commission for organising European Research & Innovation (R&I) Days 2025 and giving me a chance to participate in the event discussing the future of European research. Europe has had a long and storied tradition of science with philosophers like Locke,Hobbes,Descartes,Spinoza laying the groundwork for a scientific revolution producing the finest scientists who pushed the boundaries of human knowledge ,ushered the industrial revolution and birthed the modern world. Yet today the EU finds itself at crossroads struggling to retain talent and capitalise on its inventions. Horizon Europe defines key enabling technologies that could propel the EU far ahead of its competitors. Past Records show that Europe has the capability to do it. Its achievements in electronics,semiconductors,wind energy and development of advanced composites like GLARE are a testament to its enterprising citizens. Europe has made strong contributions in open source software and while some of...

The Promise of Physical AI

11 Mar 2026 Yesterday at the 60th Edition of Cobotalks organised by I-Hub Foundation for Cobotics Technology Innovation Hub of IIT Delhi, I had a chance to attend a talk on physical AI by Dr Santanu Chaudhary, Former Professor, Department of Electrical Engineering, IIT Delhi. This talk came just weeks after the India AI impact summit but I was excited nonetheless to learn more about some of the academic aspects of AI.  Dr. Santanu emphasized that while chatbots have taken over the mindspace there is more to AI than just interactions with a server on the cloud. The chatbots represent a more general-purpose intelligence, they are quietly disrupting several industries in the ‘knowledge-work’ space but physical AI is narrow task specific intelligence that has applications in industrial automation and handling tasks that are either too dangerous for humans or too much of a chore.  Autonomous vehicles are a great example of physical AI. They have demonstrated that it is...

Reflections from Semicon India 2025: Beyond Moore, Toward Plasma

Absolutely electrifying experience at the Semicon India 2025. I got a chance to interact with representatives from Imec,Tokyo electron, SMC,LAM research,STI,Canon,AMD,Micron,Canon, ASML,Zeiss and learn about their expansion plans in India.  I was really excited to learn about companies manufacturing SIC crystals to meet the demands of the power sector. Manufacturers were highly optimistic about its chances claiming that it outperforms GaN in both cost and efficiency. Another surprise was learning about glass surface patterning through electrochemical discharge. It was especially encouraging to see enthusiastic participation from students eager to learn about the semiconductor industry and drive the transformation in the coming decades. Among the thought leaders AI unsurprisingly remained a topic of much discussion — though concerns were raised around its sustainability & the need to decarbonise the manufacturing process. The conference provided a much needed thrust ...