Cold ion chemistry within a Rydberg-electron orbit: test of the spectator role of the Rydberg electron in the He(n) + CO → C(n′) + O + He reaction
暂无分享,去创建一个
[1] F. Merkt,et al. Deviation of the rate of the reaction from Langevin behaviour below 1 K, branching ratios for the and product channels, and product-kinetic-energy distributions , 2021, Molecular Physics.
[2] F. Merkt,et al. The H2+ + HD reaction at low collision energies: H3+/H2D+ branching ratio and product-kinetic-energy distributions. , 2021, Physical chemistry chemical physics : PCCP.
[3] F. Merkt,et al. Ion-Molecule Reactions below 1 K: Strong Enhancement of the Reaction Rate of the Ion-Dipole Reaction He^{+}+CH_{3}F. , 2020, Physical review letters.
[4] J. Gauss,et al. Vibrational Excitation Hindering an Ion-Molecule Reaction: The c-C_{3}H_{2}^{+}-H_{2} Collision Complex. , 2020, Physical review letters.
[5] M. Meuwly,et al. Long-range versus short-range effects in cold molecular ion-neutral collisions , 2019, Nature Communications.
[6] V. Zhelyazkova,et al. Fluorescence-lifetime-limited trapping of Rydberg helium atoms on a chip , 2019, Molecular Physics.
[7] F. Merkt,et al. Half-Collision Approach to Cold Chemistry: Shape Resonances, Elastic Scattering, and Radiative Association in the H++H and D++D Collision Systems , 2018, Physical Review X.
[8] D. Gerlich,et al. Formation of H2O+ and H3O+ Cations in Reactions of OH+ and H2O+ with H2: Experimental Studies of the Reaction Rate Coefficients from T = 15 to 300 K , 2018 .
[9] E. E. Nikitin,et al. Relocking of intrinsic angular momenta in collisions of diatoms with ions: Capture of H2(j = 0,1) by H2. , 2016, The Journal of chemical physics.
[10] F. Merkt,et al. Observation of enhanced rate coefficients in the H2++H2→H3++H reaction at low collision energies. , 2016, The Journal of chemical physics.
[11] F. Merkt,et al. New Method to Study Ion-Molecule Reactions at Low Temperatures and Application to the H2++H2→H3++H Reaction. , 2016, Chemphyschem : a European journal of chemical physics and physical chemistry.
[12] P. Pillet,et al. Radiative and collisional processes in translationally cold samples of hydrogen Rydberg atoms studied in an electrostatic trap , 2016, 1704.03278.
[13] D. Hauser,et al. Correction: Corrigendum: Rotational state-changing cold collisions of hydroxyl ions with helium , 2015, Nature Physics.
[14] B. R. Heazlewood,et al. Low-temperature kinetics and dynamics with Coulomb crystals. , 2015, Annual review of physical chemistry.
[15] R. Wester,et al. H/D exchange in reactions of OH(-) with D2 and of OD(-) with H2 at low temperatures. , 2015, Physical chemistry chemical physics : PCCP.
[16] M. Drewsen. Ion Coulomb crystals , 2015 .
[17] F. Merkt,et al. Surface-electrode decelerator and deflector for Rydberg atoms and molecules , 2014 .
[18] S. Willitsch. Coulomb-crystallised molecular ions in traps: methods, applications, prospects , 2012 .
[19] H. Schmutz,et al. Surface-electrode Rydberg-Stark decelerator. , 2012, Physical review letters.
[20] T. Mehner,et al. REACTIONS OF COLD TRAPPED CH+ IONS WITH SLOW H ATOMS , 2011 .
[21] M. Matsuzawa. Highly excited Rydberg electron as a spectator to an ion-molecule reaction , 2010 .
[22] M. Auzinsh,et al. Nonadiabatic transitions between lambda-doubling states in the capture of a diatomic molecule by an ion. , 2008, The Journal of chemical physics.
[23] E. E. Nikitin,et al. Rates of complex formation in collisions of rotationally excited homonuclear diatoms with ions at very low temperatures: application to hydrogen isotopes and hydrogen-containing ions. , 2005, The Journal of chemical physics.
[24] E. Wrede,et al. Reactive scattering of rydberg atoms: H* + D2 --> HD + D*. , 2005, Physical chemistry chemical physics : PCCP.
[25] U. Hollenstein,et al. Selective field ionization of high Rydberg states: Application to zero-kinetic-energy photoelectron spectroscopy , 2001 .
[26] F. Robicheaux,et al. High-np Rydberg states of atomic carbon studied through vuv and uv double resonance , 1998 .
[27] R. E. Raab,et al. Measurement of the electric quadrupole moments of CO2, CO, N2, Cl2 and BF3 , 1998 .
[28] J. Troe. Statistical adiabatic channel model for ion–molecule capture processes. II. Analytical treatment of ion–dipole capture , 1996 .
[29] B. Rowe,et al. FALP and CRESU studies of ionic reactions , 1995 .
[30] W. Chupka,et al. Rydberg State Reactions of Atomic and Molecular Hydrogen , 1995 .
[31] S. Pratt,et al. Reactions of Rydberg states of molecular hydrogen , 1994 .
[32] D. Clary,et al. Rate constant calculations for ion–symmetric top and ion–asymmetric top reactions , 1992 .
[33] Drake,et al. Quantum defects and the 1/n dependence of Rydberg energies: Second-order polarization effects. , 1991, Physical review. A, Atomic, molecular, and optical physics.
[34] D. Clary. FAST CHEMICAL REACTIONS: Theory Challenges Experiment , 1990 .
[35] J. Marquette,et al. CRESU studies of ion/molecule reactions , 1987 .
[36] J. Troe. Statistical adiabatic channel model for ion–molecule capture processes , 1987 .
[37] B. Rowe,et al. Ion—polar-molecule reactions: A CRESU study of He+, C+, N+ + H2O, NH3 at 27, 68 and 163 K , 1985 .
[38] D. Clary,et al. Temperature dependence of rate coefficients for reactions of ions with dipolar molecules , 1985 .
[39] D. Clary. Calculations of rate constants for ion-molecule reactions using a combined capture and centrifugal sudden approximation , 1985 .
[40] E. Ferguson,et al. Reactions of He+ and N+ ions with several molecules at 8 K , 1985 .
[41] T. Grozdanov,et al. Influence of the atomic core on the Stark structure of alkali atom Rydberg states , 1980 .
[42] D. Kleppner,et al. Stark structure of the Rydberg states of alkali-metal atoms , 1979 .
[43] I. Mclaren,et al. TIME-OF-FLIGHT MASS SPECTROMETER WITH IMPROVED RESOLUTION , 1955 .
[44] E. Fermi. Sopra lo Spostamento per Pressione delle Righe Elevate delle Serie Spettrali , 1934 .