Counterdiabatic driving for long-lived singlet state preparation
arXiv:2305.02096 · doi:10.1063/5.0159448
Abstract
The quantum adiabatic method, which maintains populations in their instantaneous eigenstates throughout the state evolution, is an established and often a preferred choice for state preparation and manipulation. Though it minimizes the driving cost significantly, its slow speed is a severe limitation in noisy intermediate-scale quantum (NISQ) era technologies. Since adiabatic paths are extensive in many physical processes, it is of broader interest to achieve adiabaticity at a much faster rate. Shortcuts to adiabaticity techniques which overcome the slow adiabatic process by driving the system faster through non-adiabatic paths, have seen increased attention recently. The extraordinarily long lifetime of the long-lived singlet states (LLS) in nuclear magnetic resonance, established over the past decade, has opened several important applications ranging from spectroscopy to biomedical imaging. Various methods, including adiabatic methods, are already being used to prepare LLS. In this article, we report the use of counterdiabatic driving (CD) to speed up LLS preparation with faster drives. Using NMR experiments, we show that CD can give stronger LLS order in shorter durations than conventional adiabatic driving.
References in corpus (34)
- Shortcuts to adiabaticity: concepts, methods, and applications
- Fast optimal frictionless atom cooling in harmonic traps
- Shortcut to adiabatic passage in two and three level atoms
- Quantum Computation by Adiabatic Evolution
- Shortcuts to adiabaticity by counter-diabatic driving
- Geometry and non-adiabatic response in quantum and classical systems
- Assisted finite-rate adiabatic passage across a quantum critical point: Exact solution for the quantum Ising model
- Fast atomic transport without vibrational heating
- Floquet-engineering counterdiabatic protocols in quantum many-body systems
- Adiabatic Quantum Simulation of Quantum Chemistry
- Adiabatic tracking of quantum many-body dynamics
- Shortcut to Adiabaticity in the Lipkin-Meshkov-Glick Model
- Scaling-up quantum heat engines efficiently via shortcuts to adiabaticity
- Superadiabatic Controlled Evolutions and Universal Quantum Computation
- Digitized-counterdiabatic quantum approximate optimization algorithm
- Counterdiabaticity and the quantum approximate optimization algorithm
- Spin quantum heat engines with shortcuts to adiabaticity
- Performance of shortcut-to-adiabaticity quantum engines
- Controlling the speed and trajectory of evolution with counterdiabatic driving
- Reinforcement Learning for Many-Body Ground-State Preparation Inspired by Counterdiabatic Driving
- Counterdiabatic Optimised Local Driving
- Shortcut-to-adiabaticity Otto engine: A twist to finite-time thermodynamics
- Shortcuts to adiabaticity for quantum annealing
- Counterdiabatic driving in the quantum annealing of the -spin model: a variational approach
- Portfolio Optimization with Digitized-Counterdiabatic Quantum Algorithms
- Controlling and exploring quantum systems by algebraic expression of adiabatic gauge potential
- Rapid counter-diabatic sweeps in lattice gauge adiabatic quantum computing
- Speeding-up a quantum refrigerator via counter-diabatic driving
- Constant-adiabaticity RF-pulses for generating long-lived singlet spin states in NMR
- Shortcuts to Adiabaticity for Open Systems in Circuit Quantum Electrodynamics
- Adiabatic perturbation theory: from Landau-Zener problem to quenching through a quantum critical point
- Shortcuts to Quantum Approximate Optimization Algorithm
- Optimizing Counterdiabaticity by Variational Quantum Circuits
- Steady state preparation of long-lived nuclear spin singlet pair at room temperature
Cited by in corpus (3)
- Highly Efficient Creation and Detection of Deeply-bound Molecules via Invariant-based Inverse Engineering with Feasible Modified Drivings
- Long-Lived Singlet State in an Oriented Phase and its Survival across the Phase Transition Into an Isotropic Phase
- Counterdiabatic driving for random-gap Landau-Zener transitions