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Quantum computing for materials is moving closer to practical use because quantum computers, GPUs, CPUs, and AI coding tools are beginning to work together.
Pranav Gokhale explains how future battery design could depend on simulating electrons, splitting materials problems between GPU workflows and quantum subroutines, and using Hamiltonian simulation where classical computers fall short.
The conversation connects logical qubits, Nvidia, quantum-GPU orchestration, material science, chemistry, drug discovery, and why 2028 could be an important threshold for early quantum applications.
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By Mark Fielding and Jeremy GilbertsonQuantum computing for materials is moving closer to practical use because quantum computers, GPUs, CPUs, and AI coding tools are beginning to work together.
Pranav Gokhale explains how future battery design could depend on simulating electrons, splitting materials problems between GPU workflows and quantum subroutines, and using Hamiltonian simulation where classical computers fall short.
The conversation connects logical qubits, Nvidia, quantum-GPU orchestration, material science, chemistry, drug discovery, and why 2028 could be an important threshold for early quantum applications.
--
Other ways to connect with us:
Listen to every podcast
Follow us on Instagram
Follow us on X
Follow Mark on LinkedIn
Follow Jeremy on LinkedIn
Read our Substack
Email: [email protected]