Deputy Team Director @riken_en, Assistant Professor @UTokyo_News_en, exploring strongly interacting matter with AI, working on machine learning physics.
We even ran proof-of-concept experiments on IBM Quantum hardware — showing quantum computers could shed light on social behavior. 🚀 #QuantumComputing#Sociophysics
New (crazy) preprint out: “Quantum Simulations of Opinion Dynamics” explores how quantum superposition, entanglement, and measurement-induced collapse can model consensus formation, polarization, and collective decision-making. https://t.co/7TQn238LQP
Thrilled to start my new journey as an Assistant Professor(concurrent) at Institute for Physics of Intelligence in UTokyo! Exciting times ahead 🚀
https://t.co/WdWfYUe59f
The Institute remembers Chen Ning Yang, past Professor in the School of Mathematics/Natural Sciences, who died on October 18. At IAS, he produced a body of work which redefined how we conceptualize the fundamental forces and symmetries of the universe: https://t.co/nowev4yMCx
More on CNN history: https://t.co/HdCanIaCCl Why did "modern" CNNs emerge in Japan 1979-1988 (Fukushima's 1979 CNN architecture → Zhang et al.'s 1988 backpropagation-trained CNN)? Let's look back at the 1980s. Back then, Japan was the envy of the world. Before the 1990 crash, the Tokyo stock market was the world's largest, and the world's 6 most valuable public companies were all Japanese. So were the world's richest business men. According to the real estate market, tiny Japan was 4 times more valuable than the much bigger US. The central square mile of Tokyo had the value of California. Japan had far more robots than any other country, and by far the most expensive AI project: the 5th Generation Project. Interestingly, this project had little to do with neural networks; it was mostly about logic programming and expert systems. So Fukushima and colleagues were outsiders back then. But at least there was sufficient funding in Japan, even for such unpopular types of blue skies research. Today, the rest of the world can be thankful for that. See also https://t.co/3Xfc5qoWQT
Autoregressive model: alphabets, actions, and atoms https://t.co/UQvHvzcq0M This lecture tried to offer a unified perspective to LLM, RL, and atomistic modeling!
Riken, including our center R-CCS, is hiring researchers big time, from PIs to postdocs to interns. We have the best support for international researches; in fact the % of non-JP researchers at R-CCS is approaching 50 % now. Come work with us! https://t.co/DhTYia461v
🥇Announcing the 1st commercial application for quantum computers!
Quantinuum, along with our partners JPMorganChase, @Argonne, @ORNL, and @UTAustin, have turned our quantum computer into a reliable and accessible source of high-quality randomness.
🔗https://t.co/cThUiu3Oc5
🚀 Excited to share our latest Perspective paper !
🔑 Key Insight: Physics-driven learning integrates domain-specific physics into ML, revolutionizing how we solve inverse problems in diverse physical sciences🤖🔬#PhysicsAI
I’m pretty excited about our new paper, which is a follow up to our last paper using AI to help solve a problem in theoretical particle physics. (With Lance, @f_charton, Matthias, Tianji, and @merz_garrett
@rothkopfAK We can only emphasize physics-driven designs for machine learning/deep learning. Regarding the works you mentioned, we fully acknowledge their significance. These topics are thoroughly discussed in our longer review in PPNP https://t.co/v3WW3alTTC
🚀 Excited to share our latest Perspective paper !
🔑 Key Insight: Physics-driven learning integrates domain-specific physics into ML, revolutionizing how we solve inverse problems in diverse physical sciences🤖🔬#PhysicsAI