This seems like a decent explanation of what I had in mind: https://oxsci.org/quantum-computing-for-quantum-chemistry/ https://oxsci.org/quantum-computing-for-q

This seems like a decent explanation of what I had in mind: https://oxsci.org/quantum-computing-for-quantum-chemistry/ https://oxsci.org/quantum-computing-for-quantum-chemistry/ and this one a slightly more math based explanation: https://ahelwer.ca/post/2019-12-21-quantum-chemistry/ https://ahelwer.ca/post/2019-12-21-quantum-chemistry/ I'm trying to recall another far less outlandish result (than wormholes) that was also verified via quantum computer, but no dice at the moment. Edit: I might've been thinking of the simulation of a discrete time crystal on Google's quantum computer: https://physics.aps.org/articles/v14/131 https://physics.aps.org/articles/v14/131 'The researchers stress that this DTC behavior can also, in principle, be simulated on a classical computer. But in that case, “the bits in the computer evolve in a way that looks nothing like the physics we're interested in but nevertheless output numbers that replicate the outcomes of a hypothetical experiment,” Ippoliti says. In contrast, on a quantum computer, the qubits themselves exhibit the DTC behavior.'