Interaction Milieux Dilués Rayonnement (Interaction dipôlaire magnétique (RMN), Interaction dipôlaire électrique, Équations différentielles de Bloch, Applications (onde-atome, déplacement lumineux, effet Sysiphe, franges de Ramsey), Thierry Fouchet, M1, 50p

Coherent control of optical information with matter wave dynamics (Indiscernabilité des deux condensats de Bose-Einstein distants) - Ginsberg et al. 2007

Current-constrained density-matrix theory to calculate molecular conductivity with increased accuracy, Sajjan & Mazziotti, 2018

Lifetimes of alkali-metal atom Rydberg states

Quasiclassical calculations of Black Body Radiation-induced depopulation rates and effective lifetimes of Rydberg alkali-metal atoms

Nanoscale “Dark State” Optical Potentials for Cold Atoms (th. subwavelenght steep potential/optical lattice)

Dark State Optical Lattice with a Subwavelength Spatial Structure (exp. realization)

Production et détection optique d’une inégalité de population des niveaux de quantification spatiale des atomes (discussion de l'effet "lumino-frigorifique") - Alfred Kastler, 1950

Acceleration and trapping of particles by radiation pressure (first proposal for laser trapping in opt tweezers) - Ashkin, dec. 1969

Cooling of gases by laser radiation (initial proposal for Doppler cooling) - Hänsch & Schawlow, 1974

Cooling and trapping of atoms and molecules by a resonant laser field - Letokhov & Minogin, june 1976

Trapping of Atoms by Resonance Radiation Pressure (wrong!) - Ashkin, oct 1977

Trapping and Storage of Atoms in a Laser Field - Letokhov, Minogin, junuary 1978

Optical-Sideband Cooling of Visible Atom Cloud Confined in Parabolic Well (first laser Doppler cooling, on Ba+ ions, but no temperature measured) - Dehmlet et al., april 1978 @ Heidelberg

Radiation-Pressure Cooling of Bound Resonant Absorber (first laser Doppler cooling, on Mg+ ions, with sweeping, from 700K to ~0K) - Wineland at al., april 1978 @ NIST Boulder

Cooling of sodium atoms by resonant laser emission (firsts attemps at slowing/cooling with chirped laser a beam of Na atoms) - Balykin, Letokhov, Mishin, oct. 1979 @ Moscow Institute of Spectroscopy

Laser Production of a Very Slow Monoenergetic Atomic Beam (Zeeman slower v2, down to 40m/s longitudinal velocity and 70mK) - Phillips & Metcalf et al., aug. 1982 @ NIST

Cooling Neutral Atoms in a Magnetic Trap for Precision Spectroscopy (proposal for the complicated solenoidal+octupolar magnetic trap design + an idea of recoil-limited cooling, Sisyphys-like, with rf excitations) - Pritchard, june 1983

Stability of radiation-pressure particle traps: an optical Earnshaw theorem - Ashkin & Gordon, june 1983

Proposal of sable optical traps for neutral atoms - Dalibard, Reynaud, CCT, july 1983

Radiative collimation of an atomic beam by 2D cooling by a laser beam (Doppler transverse molasses on sodium D2 line, down to 3.5mK) - Balykin, Letokhov, Mishin, aug. 1984 @ Moscow Institute of Spectroscopy

Stopping atoms with laser light (Zeeman slower + stopping pulse, on sodium D2 line -> atoms at rest <100mK) - Phillips, Metcalf, Dalibard et al., oct. 1984 @ NIST

Laser Manipulation of Atomic Beam Velocities: Demonstration of Stopped Atoms and Velocity Reversal (EOM-based chirp slower, on sodium D2 line -> atoms at rest <50mK) - Zhu et al., oct 1984 @ NIST Boulder

Laser cooling and electromagnetic trapping of neutral atoms (nice review on previous slowing experiments, and prospects for radiative/magnetic trapping) - Phillips, Prodan, Metcalft, april 1985 @ NIST

Stopping Atoms with Diode Lasers (chirp-cooling Cs) - Wieman et al., 1985 @ Boulder

First Observation of Magnetically Trapped Neutral Atoms (Na, quadrupolar trap, 17mK depth (±3.5m/s capture range), after a Zeeman slower) - Prodan, Phillips, Metcalf et al., april 1985 @ NIST

Three-Dimensional Viscous Confinement and Cooling of Atoms by Resonance Radiation Pressure (first 3D molasses, Doppler temperature reached (240µK), 0.1s confinement, source=laser-ablated sodium, chirp-slowed) - S. Chu, Ashkin et al., april 1985 @ Bell labs

A Proposal for Optically Cooling Atoms to Temperature of 10^−6 K (the velocity-position mapping trick in harmonic trap) - S. Chu, Ashkin, Gordon et al, 1985

Possibility of applying laser-cooling techniques to the observation of collective quantum effects - Vigué, march 1986

Experimental Observation of Optically Trapped Atoms - S. Chu, Ashkin, Cable et al., april 1986 @ Bell Labs

Cooling Atoms with Stimulated Emission (purely two-level, blue-detuned standing wave Sisyphus molasses, arbitrarily fast (no saturation) but hotter-than-Doppler) (demonstrated on transverse cooling of Cs) - CCT et al. @ LKB, july 1986

Continuous Stopping and Trapping of Neutral Atoms (Na, complicated solenoidal+octupolar trap with superconducting magnets, 120mK depth, after Zeeman slower with a continuous stopping beam -> 10⁹at, 2.5min lifetime) - Pritchard, Raab et al., feb. 1987 @ MIT

Trapping of Neutral Sodium Atoms with Radiation Pressure (first MOT : Na D2 line J=2→3 or J=2→2, 10G/cm, 3Mat (up to 100Mat), 2·10¹⁰at/cm³, source=laser-ablated sodium, ack seminal idea of Dalibard) - Raab, S. Chu, Prichard, et al., july 1987 @ Bell Labs

Production of a cold atomic vapor using diode-laser cooling (chirp cooling and 100µK 10^7at molasses with FP-locked laser diodes) - Wieman et al., nov 1987, NIST Boulder

Cooling, Stopping, and Trapping Atoms (review & historical timeline) - William D. Phillips, Phillip L. Gould, Paul D. Lett, feb. 1988

Observation of Atoms Laser Cooled below the Doppler Limit (surpise 40µK on J=2→J=3 3D molasses on Na, 4 different methods to measure temperature) - Phillips, Metcalf et al., april 1988 @ NIST

Laser Cooling below the One-Photon Recoil Energy by VSCPT (1D transverse sub-recoil cooling of He* beam, 2µK) - CCT et al., july 1988

Bimodal Speed Distributions in Laser-Cooled Atoms (Na 3D molasses showing normal- and sub-Doppler cooling, polarization-gradient-based mechanism proposal (by them and Dalibard/Cohen-Tannoudji simultaneously), chirp slower) - S. Chu et al., sept. 1988 @ Stanford

Laser cooling below the Doppler limit by polarization gradients: simple theoretical models (Sisyphus cooling in details) - Dalibard & CCT, april 1989

Optical molasses (review & current status of Doppler & sub-Doppler theories) - Westbrook, Phillips, et al., april 1989

Observations of sodium atoms in a magnetic molasses trap loaded by a continuous uncooled source (direct loading of MOT from 290-590K thermal beam, 10^6 at, measurement of thermal-slow cross section) - Cable, Prentiss, Bigelow, feb 1989 @ Bell Labs

Collisional Losses from a Light-Force Atom Trap (Cs MOT) - Wieman et al., june 1989 @ NIST Boulder

Collective Behavior of Optically Trapped Neutral Atoms (crazy oscillating/orbiting ring Cs MOT) - Wieman et al., oct 1989 @ NIST Bouler

Laser Cooling of Cesium Atoms below 3µK (3.6 recoil vel., 3D Cs sub-Doppler molasses, verification of some predictions of Sisyphus cooling) - Salomon, Dalibard, Phillips et al., may 1990 (observed actually earlier) @ ENS

Very Cold Trapped Atoms in a Vapor Cell (Cs, first MOT in a glass cell directly from vapor, then molasses, then magnetic trapping, and velocity->position mapping in harmonic potential : 1.1µK) - Wieman et al, may 1990 @ NIST Boulder

Laser Cooling below the Doppler Limit in a MOT (30±15µK, Cs, also measured spring constant) - Steane & Foot, sept 1990 @ Oxford

Laser cooling and trapping of neutral atoms : short but nice review - CCT at al. at the Trento BEC 93 workshop

Trapping Atoms in a Dark Optical Lattice - Esslinger, Zimmermann, Hänch et al., dec 1994 @ MPQ

Behavior of atoms in a compressed magneto-optical trap - Cornell, Rb85, 1994

Bose-Einstein Condensation of Atoms in a Uniform Potential - Hadzibabic, 2013

Low-temperature high-density (5μK and 10¹⁰cm⁻³) magneto-optical trapping of potassium 40 using the open 4S→5P transition at 405nm, 2011

Laser cooling for quantum gases - Schreck, 2022 review

Three-Dimensional Laser Cooling at the Doppler limit - D. Clément et al., 2015

Demagnetization cooling of a gas (Cr52) - T. Pfau et al., 2006