Panel Discussion
summary
Discussion identifies concrete targets and limits: focus on the Fermi–Hubbard model and measuring Gibbs-state observables (Green’s functions) rather than just ground energies; compare phase estimation versus cooling/annealing for state preparation and the overlap problem; treat embedding as pragmatic for current qubit counts; seek simple, realistic average-case toy models that are classically hard but quantumly solvable; flag spin/charge fluctuations and sign problems as signposts for strong correlation and note excited-state and dynamical problems (strong-field chemistry, HHG) as promising frontiers.
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chapters (9)
- 0:00Introductions and welcome
- 1:14Frontiers in quantum chemistry
- 4:45Complexity and quantum advantage
- 9:44Identifying hard problems
- 12:33Modeling and physical systems
- 18:13State preparation and algorithms
- 24:40Dynamics and excited states
- 30:46Embedding and practical applications
- 38:45Final thoughts and outlook
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