Evolution from a molecular Rydberg gas to an ultracold plasma in a seeded supersonic expansion of NO
arXiv:0804.1986 · doi:10.1103/PhysRevLett.101.205005
Abstract
We report the spontaneous formation of a plasma from a gas of cold Rydberg molecules. Double-resonant laser excitation promotes nitric oxide, cooled to 1 K in a seeded supersonic molecular beam, to single Rydberg states extending as deep as 80 cm below the lowest ionization threshold. The density of excited molecules in the illuminated volume is as high as 1 x 10 cm. This population evolves to produce prompt free electrons and a durable cold plasma of electrons and intact NO ions.
4 pages (two column) 3 figures; smaller figure files, corrected typos
References in corpus (5)
- Creation of an Ultracold Neutral Plasma
- Many-body theory of excitation dynamics in an ultracold Rydberg gas
- Electron Temperature of Ultracold Plasmas
- Using Three-Body Recombination to Extract Electron Temperatures of Ultracold Plasmas
- Modeling many-particle mechanical effects of an interacting Rydberg gas
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- Cold and Ultracold Molecules: Science, Technology, and Applications
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- Imaging the evolution of an ultracold strontium Rydberg gas
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- Strongly Coupled Plasmas via Rydberg-Blockade of Cold Atoms
- The limit of strong ion coupling due to electron shielding
- Rydberg atom formation in strongly correlated ultracold plasmas
- The very slow expansion of an ultracold plasma formed in a seeded supersonic molecular beam of NO
- On the formation and decay of a molecular ultracold plasma
- Possible many-body localization in a long-lived finite-temperature ultracold quasi-neutral molecular plasma
- Ultrafast Electron Cooling in an Expanding Ultracold Plasma
- Demonstrating Universal Scaling in Quench Dynamics of a Yukawa One-Component Plasma
- Arrested relaxation in an isolated molecular ultracold plasma
- Slow decay processes of electrostatically trapped Rydberg NO molecules
- Ultralong-range Rydberg bi-molecules
- Excitation and characterization of long-lived hydrogenic Rydberg states of nitric oxide
- Ion friction at small values of the Coulomb logarithm
- Dissipative dynamics of atomic and molecular Rydberg gases: Avalanche to ultracold plasma states of strong coupling
- Many-body physics with ultracold plasmas: Quenched randomness and localization
- Proof of concept for an optogalvanic gas sensor for NO based on Rydberg excitations
- Heating and cooling of electrons in an ultracold neutral plasma using Rydberg atoms
- On the Specific Features of Temperature Evolution in Ultracold Plasmas
- Electric field analysis in a cold-ion source using Stark spectroscopy of Rydberg atoms
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- Coupled rate-equation hydrodynamic simulation of a Rydberg gas Gaussian ellipsoid: Classical avalanche and evolution to molecular plasma
- Expansion of Ultracold Neutral Plasmas with Exponentially Decaying Density Distributions
- Simulations of prompt many-body ionization in a frozen Rydberg gas
- Creating Non-Maxwellian Velocity Distributions in Ultracold Plasmas
- Density dependence of the Ionization Avalanche in ultracold Rydberg gases
- Radio frequency field-induced electron mobility in an ultracold plasma state of arrested relaxation
- Two-dimensional electronic spectroscopy of an ultracold gas
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- mm-wave Rydberg-Rydberg resonances as a witness of intermolecular coupling in the arrested relaxation of a molecular ultracold plasma
- Many-body collision contributions to electron momentum damping rates in a plasma influenced by electron strong coupling
- Electron Temperature Relaxation in the Clusterized Ultracold Plasmas
- Dynamical control in a prethermalized molecular ultracold plasma: Local dissipation drives global relaxation
- Accurate density measurement of a cold Rydberg gas via non collisional two-body transitions