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The 19 pages that link to Quantum simulation, each with the reason it gives.

• Quantum computingRelated: Simulating quantum matter is a natural target because classical descriptions can grow prohibitively large.

• Bose–Einstein condensateRelated: Ultracold condensates can reproduce and investigate many-body quantum phenomena.

• SuperfluidityRelated: Ultracold superfluids let experiments investigate quantum-fluid dynamics under adjustable conditions.

• Absolute zeroRelated: Ultracold atoms near absolute zero serve as tunable simulators of quantum materials.

• Ground stateRelated: Simulators can probe ground states that are difficult to calculate or create directly.

• Hubbard modelRelated: Optical-lattice experiments simulate Hubbard physics beyond some classical computational limits.

• Simulation hypothesisRelated: It shows that simulating physical processes is already a concrete scientific practice.

• Carl WiemanRelated: Bose–Einstein condensates opened experimental routes to studying quantum phenomena in controllable gases.

• Claude Cohen-TannoudjiRelated: Trapped, laser-cooled atoms can emulate complex many-body quantum behavior.

• Lie product formulaRelated: Product formulas approximate evolution generated by sums of Hamiltonian terms.

• Cold atoms and matter wavesRelated: Ultracold atoms can emulate models of magnetism and interacting particles.

• Eric Allin CornellRelated: Ultracold atoms made possible laboratory simulations of interacting quantum matter.

• William Daniel PhillipsRelated: Trapped ultracold atoms provide adjustable platforms for studying complex quantum phenomena.