Cooling algorithms based on the 3-bit majority

Cooling and Low Energy State Preparation for 3-local Hamiltonians are FQMA-complete

Cooling and squeezing the fluctuations of a nanomechanical beam by indirect quantum feedback control

Cooling atom-cavity systems into entangled states

Cooling atomic motion with quantum interference

Cooling atoms into entangled states

Cooling by heating

Cooling in a Bistable Optical Cavity

Cooling many particles at once

Cooling many particles to very low temperatures

Cooling of a mirror by radiation pressure

Cooling of a mirror in cavity optomechanics with a chirped pulse

Cooling of a particle by coupling to its own reflection

Cooling of a single atom in an optical trap inside a resonator

Cooling of a small sample of Bose atoms with accidental degeneracy

Cooling of Nanomechanical Resonator Based on Periodical Coupling to Cooper Pair Box

Cooling the Collective Motion of Trapped Ions to Initialize a Quantum Register

Cooling to the Ground State of Axial Motion for One Atom Strongly Coupled to an Optical Cavity

Cooling trapped atoms in optical resonators

Cooper Pair Boxes Weakly Coupled to External Environments