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Viehland database

PERMLINK: www.lxcat.net/Viehland

DESCRIPTION: The data here are from the Gaseous Ion Transport and Rate Coefficient Database, Software Release 4.1 (March, 2006), as extended and updated on a regular basis.

CONTACT: Larry A. Viehland, Viehland@Chatham.edu

HOW TO REFERENCE: L. A. Viehland and C. C. Kirkpatrick, Int. J. Mass Spectrom. Ion Proc. 149/150 (1995) 555.

SCATTERING CROSS SECTIONS

Species: Ag⁺(1S0) + Ar [90], He [90], Kr [30], Ne [90], Rn [30], Xe [30]; Ag⁺(3S1) + Ar [60], He [60], Ne [60]; Ag^-(1S0) + Ar [60], He [60], Ne [60]; Al⁺(1S0) + Ar [30], He [30], Kr [30], Ne [30], Rn [30], Xe [30]; Al³⁺(1S0) + He [30], Ne [30]; Ar⁺(2P) + He [30], Ne [30]; Ar⁺(2P1/2) + He [30], Ne [30]; Ar⁺(2P3/2) + He [30], Ne [30]; Au⁺(1S0) + Ar [90], He [90], Kr [30], Ne [90], Xe [30]; Au⁺(3S0) + Ar [60], He [60], Ne [60]; Au^-(1S0) + Ar [60], He [60], Ne [60]; Ba⁺(2S1/2) + Ar [60], He [60], Kr [60], Ne [60], Rn [30], Xe [60]; Ba²⁺(1S0) + Ar [60], He [60], Kr [60], Ne [60], Rn [30], Xe [60]; Be⁺(2S1/2) + Ar [90], He [60], Kr [90], Ne [60], Rn [60], Xe [90]; Be²⁺(1S0) + Ar [30], He [30], Ne [30]; Br⁺(3P0) + Ar [30], He [30], Ne [30]; Br⁺(3P1) + Ar [30], He [30], Ne [30]; Br⁺(3P2) + Ar [30], He [30], Ne [30]; Br^-(1S0) + Ar [30], He [30], Kr [30], Ne [30], Rn [30], Xe [30]; B⁺(1S0) + Ar [30], He [30], Kr [30], Ne [30], Rn [30], Xe [30]; Ca⁺(2S1/2) + Ar [30], He [30], Kr [30], Ne [30], Rn [30], Xe [30]; Ca²⁺(1S0) + Ar [30], He [30], Kr [30], Ne [30], Rn [30], Xe [30]; Cd⁺(2S1/2) + Ar [30], He [30], Kr [30], Ne [30], Rn [30], Xe [30]; Cl^-(1S0) + Ar [60], He [60], Kr [60], Ne [60], Rn [60], Xe [60]; Co⁺(3F4) + He [30], Ne [30]; Co⁺(5F5) + He [30], Ne [30]; Cr⁺(6D9/2) + He [30], Ne [30]; Cr⁺(6S5/2) + He [30], Ne [30]; Cs⁺(1S0) + Ar [30], He [30], Kr [30], Ne [30], Rn [30], Xe [30]; Cu⁺(1S0) + Ar [90], He [90], Kr [30], Ne [90], Rn [30], Xe [30]; Cu⁺(3S1) + Ar [60], He [60], Ne [60]; Cu^-(1S0) + Ar [60], He [60], Ne [60]; C⁺(2P) + Ar [30], He [30], Kr [30], Ne [30], Rn [30], Xe [30]; C⁺(2P1/2) + Ar [30], Kr [30], Ne [30], Rn [30], Xe [30]; C⁺(2P3/2) + Ar [30], He [30], Kr [30], Ne [30], Rn [30], Xe [30]; C⁺(2Pi1/2) + He [30]; C⁺(4P) + He [30]; C⁺(4P1/2) + He [30]; C⁺(4P3/2) + He [30]; C⁺(4P5/2) + He [30]; Eu⁺(9S4) + Ar [90], He [60], Kr [60], Ne [60], Xe [60]; Eu²⁺(8S7/2) + Ar [30], He [30], Kr [30], Ne [30], Xe [30]; Eu³⁺(7F0) + Ar [30], He [30], Ne [30]; Fr⁺(1S0) + Ar [30], He [30], Kr [30], Ne [30], Rn [30], Xe [30]; F^-(1S0) + Ar [30], He [30], Kr [30], Ne [30], Rn [30], Xe [30]; Ga⁺(1S0) + Ar [30], He [30], Kr [30], Ne [30], Rn [30], Xe [30]; Gd⁺(10D5/2,ASO) + Ar [30], He [30]; Gd⁺(10D5/2,ASR) + Ar [30], He [30]; Gd⁺(10D5/2,ISO) + Ar [30], He [30]; Gd⁺(10D5/2,ISR) + Ar [30], He [30]; Gd⁺(10D7/2,ASO) + Ar [30], He [30]; Gd⁺(10D7/2,ISO) + Ar [30], He [30]; Ge⁺(2P) + Ar [30], He [30], Kr [30], Ne [30], Rn [30], Xe [30]; Ge⁺(2P1/2) + Ar [30], He [30], Kr [30], Ne [30], Rn [30], Xe [30]; Ge⁺(2P3/2) + Ar [30], He [30], Kr [30], Ne [30], Rn [30], Xe [30]; He⁺(2S1/2) + Ar [30], He [180], Ne [90]; Hg⁺(2S1/2) + Ar [30], He [60], Kr [30], Ne [30], Rn [30], Xe [30]; H⁺ + Ar [30], He [90], Ne [30]; In+(1S0) + Ar [30], He [30], Kr [30], Ne [30], Rn [30], Xe [30]; I⁺(3P2) + Ar [30], He [30], Ne [30]; I^-(1S0) + Ar [30], He [30], Ne [30]; Kr⁺(2P) + He [30], Ne [30]; Kr⁺(2P1/2) + He [30], Ne [30]; Kr⁺(2P3/2) + He [30], Ne [30]; K⁺(1S0) + Ar [30], He [30], Kr [60], Ne [30], Rn [30], Xe [60]; Li⁺(1S0) + Ar [60], He [30], Kr [90], Ne [30], Rn [30], Xe [60]; Lu⁺(1S0) + Ar [30], He [30], Kr [30], Ne [30], Xe [30]; Mg⁺(2S1/2) + Ar [30], He [150], Kr [30], Ne [30], Rn [30], Xe [30]; Mg²⁺(1S0) + Ar [30], He [60], Kr [30], Ne [30], Rn [30], Xe [30]; N+(3P0) + He [30]; Na⁺(1S0) + Ar [30], He [30], Kr [60], Ne [30], Rn [30], Xe [60]; Ne⁺(2Pi_1/2) + He [30]; Ne⁺(2Pi_3/2) + He [30]; Ne⁺(2Sigma_1/2⁺) + He [30]; Ni⁺(2D5/2,2D3/2) + He [30], Ne [30]; Ni⁺(4F9/2) + He [30], Ne [30]; N⁺(3P0) + He [30]; O⁺(4S3/2) + Ar [30], He [30], Ne [30]; O^-(2P) + Ar [30], He [30], Kr [30], Ne [30]; O^-(2P1/2) + Ar [30], He [30], Kr [30], Ne [30]; O^-(2P3/2) + Ar [30], He [30], Kr [30], Ne [30]; Ra⁺(2S1/2) + Ar [30], He [30], Kr [30], Ne [30], Rn [30], Xe [30]; Ra²⁺(1S0) + Ar [30], He [30], Kr [30], Ne [30], Rn [30], Xe [30]; Rb⁺(1S0) + Ar [30], He [30], Kr [30], Ne [30], Rn [30], Xe [30]; Rn⁺(2P) + Ar [30], He [30], Ne [30], Xe [30]; Rn⁺(2P1/2) + Ar [30], He [30], Ne [30], Xe [30]; Rn⁺(2P3/2) + Ar [30], He [30], Ne [30], Xe [30]; Si⁺(2P) + Ar [30], He [30], Kr [30], Ne [30], Rn [30], Xe [30]; Si⁺(2P1/2) + Ar [30], He [30], Kr [30], Ne [30], Rn [30], Xe [30]; Si⁺(2P3/2) + Ar [30], He [30], Kr [30], Ne [30], Rn [30], Xe [30]; Sr⁺(2S1/2) + Ar [30], He [30], Kr [30], Ne [30], Rn [30], Xe [30]; Sr²⁺(1S0) + He [30], Kr [30], Ne [30], Rn [30], Xe [30]; S^-(2P) + He [30]; S^-(2P1/2) + He [30]; S^-(2P3/2) + He [30]; Tl⁺(1S0) + Ar [30], He [30], Kr [30], Ne [30], Xe [30]; U⁺(4I9/2) + Ar [30], He [30], Kr [30], Ne [30], Xe [30]; Xe⁺(2P) + Ar [30], He [30], Kr [30], Ne [30]; Xe⁺(2P1/2) + Ar [30], He [30], Kr [30], Ne [30]; Xe⁺(2P3/2) + Ar [30], He [30], Kr [30], Ne [30]; Yb⁺(2S1/2) + Ar [60], He [30], Kr [30], Ne [30], Xe [30]; Zn⁺(2S1/2) + Ar [30], He [30], Kr [30], Ne [30], Rn [30], Xe [30]

Updates: 2017-07-01 … 2022-01-01

Downloads: 3753 times from 2017-06-25

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Data Group [Lozeille2]: Ab initio potentials of J. Lozeille, E. Winata, P. Soldan, E. P. F. Lee, L. A. Viehland and T. G. Wright, Phys. Chem. Chem. Phys. 4 (2002) 3601-3610.
The potentials were obtained after the zero of each potential was shifted; see L. A. Viehland, T. Skaist, C. Adhikari and W. F. Siems, Int. J. Ion Mobility Spectrom. 20 (2017) 1-9.

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Li⁺(1S0) / He

Cross section moment Q(01) Li⁺(1S0) + He | Ab initio potential of J. Lozeille, E. Winata, P. Soldan, E. P. F. Lee, L. A. Viehland and T. G. Wright, Phys. Chem. Chem. Phys. 4 (2002) 3601-3610. These values were obtained after the zero of this potential was shifted; see L. A. Viehland, T. Skaist, C. Adhikari and W. F. Siems, Int. J. Ion Mobility Spectrom. 20 (2017) 1-9. Updated: 20 October 2017.
Cross section moment Q(02) Li⁺(1S0) + He | Ab initio potential of J. Lozeille, E. Winata, P. Soldan, E. P. F. Lee, L. A. Viehland and T. G. Wright, Phys. Chem. Chem. Phys. 4 (2002) 3601-3610. These values were obtained after the zero of this potential was shifted; see L. A. Viehland, T. Skaist, C. Adhikari and W. F. Siems, Int. J. Ion Mobility Spectrom. 20 (2017) 1-9. Updated: 20 October 2017.
Cross section moment Q(03) Li⁺(1S0) + He | Ab initio potential of J. Lozeille, E. Winata, P. Soldan, E. P. F. Lee, L. A. Viehland and T. G. Wright, Phys. Chem. Chem. Phys. 4 (2002) 3601-3610. These values were obtained after the zero of this potential was shifted; see L. A. Viehland, T. Skaist, C. Adhikari and W. F. Siems, Int. J. Ion Mobility Spectrom. 20 (2017) 1-9. Updated: 20 October 2017.
Cross section moment Q(04) Li⁺(1S0) + He | Ab initio potential of J. Lozeille, E. Winata, P. Soldan, E. P. F. Lee, L. A. Viehland and T. G. Wright, Phys. Chem. Chem. Phys. 4 (2002) 3601-3610. These values were obtained after the zero of this potential was shifted; see L. A. Viehland, T. Skaist, C. Adhikari and W. F. Siems, Int. J. Ion Mobility Spectrom. 20 (2017) 1-9. Updated: 20 October 2017.
Cross section moment Q(05) Li⁺(1S0) + He | Ab initio potential of J. Lozeille, E. Winata, P. Soldan, E. P. F. Lee, L. A. Viehland and T. G. Wright, Phys. Chem. Chem. Phys. 4 (2002) 3601-3610. These values were obtained after the zero of this potential was shifted; see L. A. Viehland, T. Skaist, C. Adhikari and W. F. Siems, Int. J. Ion Mobility Spectrom. 20 (2017) 1-9. Updated: 20 October 2017.
Cross section moment Q(06) Li⁺(1S0) + He | Ab initio potential of J. Lozeille, E. Winata, P. Soldan, E. P. F. Lee, L. A. Viehland and T. G. Wright, Phys. Chem. Chem. Phys. 4 (2002) 3601-3610. These values were obtained after the zero of this potential was shifted; see L. A. Viehland, T. Skaist, C. Adhikari and W. F. Siems, Int. J. Ion Mobility Spectrom. 20 (2017) 1-9. Updated: 20 October 2017.
Cross section moment Q(07) Li⁺(1S0) + He | Ab initio potential of J. Lozeille, E. Winata, P. Soldan, E. P. F. Lee, L. A. Viehland and T. G. Wright, Phys. Chem. Chem. Phys. 4 (2002) 3601-3610. These values were obtained after the zero of this potential was shifted; see L. A. Viehland, T. Skaist, C. Adhikari and W. F. Siems, Int. J. Ion Mobility Spectrom. 20 (2017) 1-9. Updated: 20 October 2017.
Cross section moment Q(08) Li⁺(1S0) + He | Ab initio potential of J. Lozeille, E. Winata, P. Soldan, E. P. F. Lee, L. A. Viehland and T. G. Wright, Phys. Chem. Chem. Phys. 4 (2002) 3601-3610. These values were obtained after the zero of this potential was shifted; see L. A. Viehland, T. Skaist, C. Adhikari and W. F. Siems, Int. J. Ion Mobility Spectrom. 20 (2017) 1-9. Updated: 20 October 2017.
Cross section moment Q(09) Li⁺(1S0) + He | Ab initio potential of J. Lozeille, E. Winata, P. Soldan, E. P. F. Lee, L. A. Viehland and T. G. Wright, Phys. Chem. Chem. Phys. 4 (2002) 3601-3610. These values were obtained after the zero of this potential was shifted; see L. A. Viehland, T. Skaist, C. Adhikari and W. F. Siems, Int. J. Ion Mobility Spectrom. 20 (2017) 1-9. Updated: 20 October 2017.
Cross section moment Q(10) Li⁺(1S0) + He | Ab initio potential of J. Lozeille, E. Winata, P. Soldan, E. P. F. Lee, L. A. Viehland and T. G. Wright, Phys. Chem. Chem. Phys. 4 (2002) 3601-3610. These values were obtained after the zero of this potential was shifted; see L. A. Viehland, T. Skaist, C. Adhikari and W. F. Siems, Int. J. Ion Mobility Spectrom. 20 (2017) 1-9. Updated: 20 October 2017.
Cross section moment Q(11) Li⁺(1S0) + He | Ab initio potential of J. Lozeille, E. Winata, P. Soldan, E. P. F. Lee, L. A. Viehland and T. G. Wright, Phys. Chem. Chem. Phys. 4 (2002) 3601-3610. These values were obtained after the zero of this potential was shifted; see L. A. Viehland, T. Skaist, C. Adhikari and W. F. Siems, Int. J. Ion Mobility Spectrom. 20 (2017) 1-9. Updated: 20 October 2017.
Cross section moment Q(12) Li⁺(1S0) + He | Ab initio potential of J. Lozeille, E. Winata, P. Soldan, E. P. F. Lee, L. A. Viehland and T. G. Wright, Phys. Chem. Chem. Phys. 4 (2002) 3601-3610. These values were obtained after the zero of this potential was shifted; see L. A. Viehland, T. Skaist, C. Adhikari and W. F. Siems, Int. J. Ion Mobility Spectrom. 20 (2017) 1-9. Updated: 20 October 2017.
Cross section moment Q(13) Li⁺(1S0) + He | Ab initio potential of J. Lozeille, E. Winata, P. Soldan, E. P. F. Lee, L. A. Viehland and T. G. Wright, Phys. Chem. Chem. Phys. 4 (2002) 3601-3610. These values were obtained after the zero of this potential was shifted; see L. A. Viehland, T. Skaist, C. Adhikari and W. F. Siems, Int. J. Ion Mobility Spectrom. 20 (2017) 1-9. Updated: 20 October 2017.
Cross section moment Q(14) Li⁺(1S0) + He | Ab initio potential of J. Lozeille, E. Winata, P. Soldan, E. P. F. Lee, L. A. Viehland and T. G. Wright, Phys. Chem. Chem. Phys. 4 (2002) 3601-3610. These values were obtained after the zero of this potential was shifted; see L. A. Viehland, T. Skaist, C. Adhikari and W. F. Siems, Int. J. Ion Mobility Spectrom. 20 (2017) 1-9. Updated: 20 October 2017.
Cross section moment Q(15) Li⁺(1S0) + He | Ab initio potential of J. Lozeille, E. Winata, P. Soldan, E. P. F. Lee, L. A. Viehland and T. G. Wright, Phys. Chem. Chem. Phys. 4 (2002) 3601-3610. These values were obtained after the zero of this potential was shifted; see L. A. Viehland, T. Skaist, C. Adhikari and W. F. Siems, Int. J. Ion Mobility Spectrom. 20 (2017) 1-9. Updated: 20 October 2017.
Cross section moment Q(16) Li⁺(1S0) + He | Ab initio potential of J. Lozeille, E. Winata, P. Soldan, E. P. F. Lee, L. A. Viehland and T. G. Wright, Phys. Chem. Chem. Phys. 4 (2002) 3601-3610. These values were obtained after the zero of this potential was shifted; see L. A. Viehland, T. Skaist, C. Adhikari and W. F. Siems, Int. J. Ion Mobility Spectrom. 20 (2017) 1-9. Updated: 20 October 2017.
Cross section moment Q(17) Li⁺(1S0) + He | Ab initio potential of J. Lozeille, E. Winata, P. Soldan, E. P. F. Lee, L. A. Viehland and T. G. Wright, Phys. Chem. Chem. Phys. 4 (2002) 3601-3610. These values were obtained after the zero of this potential was shifted; see L. A. Viehland, T. Skaist, C. Adhikari and W. F. Siems, Int. J. Ion Mobility Spectrom. 20 (2017) 1-9. Updated: 20 October 2017.
Cross section moment Q(18) Li⁺(1S0) + He | Ab initio potential of J. Lozeille, E. Winata, P. Soldan, E. P. F. Lee, L. A. Viehland and T. G. Wright, Phys. Chem. Chem. Phys. 4 (2002) 3601-3610. These values were obtained after the zero of this potential was shifted; see L. A. Viehland, T. Skaist, C. Adhikari and W. F. Siems, Int. J. Ion Mobility Spectrom. 20 (2017) 1-9. Updated: 20 October 2017.
Cross section moment Q(19) Li⁺(1S0) + He | Ab initio potential of J. Lozeille, E. Winata, P. Soldan, E. P. F. Lee, L. A. Viehland and T. G. Wright, Phys. Chem. Chem. Phys. 4 (2002) 3601-3610. These values were obtained after the zero of this potential was shifted; see L. A. Viehland, T. Skaist, C. Adhikari and W. F. Siems, Int. J. Ion Mobility Spectrom. 20 (2017) 1-9. Updated: 20 October 2017.
Cross section moment Q(20) Li⁺(1S0) + He | Ab initio potential of J. Lozeille, E. Winata, P. Soldan, E. P. F. Lee, L. A. Viehland and T. G. Wright, Phys. Chem. Chem. Phys. 4 (2002) 3601-3610. These values were obtained after the zero of this potential was shifted; see L. A. Viehland, T. Skaist, C. Adhikari and W. F. Siems, Int. J. Ion Mobility Spectrom. 20 (2017) 1-9. Updated: 20 October 2017.
Cross section moment Q(21) Li⁺(1S0) + He | Ab initio potential of J. Lozeille, E. Winata, P. Soldan, E. P. F. Lee, L. A. Viehland and T. G. Wright, Phys. Chem. Chem. Phys. 4 (2002) 3601-3610. These values were obtained after the zero of this potential was shifted; see L. A. Viehland, T. Skaist, C. Adhikari and W. F. Siems, Int. J. Ion Mobility Spectrom. 20 (2017) 1-9. Updated: 20 October 2017.
Cross section moment Q(22) Li⁺(1S0) + He | Ab initio potential of J. Lozeille, E. Winata, P. Soldan, E. P. F. Lee, L. A. Viehland and T. G. Wright, Phys. Chem. Chem. Phys. 4 (2002) 3601-3610. These values were obtained after the zero of this potential was shifted; see L. A. Viehland, T. Skaist, C. Adhikari and W. F. Siems, Int. J. Ion Mobility Spectrom. 20 (2017) 1-9. Updated: 20 October 2017.
Cross section moment Q(23) Li⁺(1S0) + He | Ab initio potential of J. Lozeille, E. Winata, P. Soldan, E. P. F. Lee, L. A. Viehland and T. G. Wright, Phys. Chem. Chem. Phys. 4 (2002) 3601-3610. These values were obtained after the zero of this potential was shifted; see L. A. Viehland, T. Skaist, C. Adhikari and W. F. Siems, Int. J. Ion Mobility Spectrom. 20 (2017) 1-9. Updated: 20 October 2017.
Cross section moment Q(24) Li⁺(1S0) + He | Ab initio potential of J. Lozeille, E. Winata, P. Soldan, E. P. F. Lee, L. A. Viehland and T. G. Wright, Phys. Chem. Chem. Phys. 4 (2002) 3601-3610. These values were obtained after the zero of this potential was shifted; see L. A. Viehland, T. Skaist, C. Adhikari and W. F. Siems, Int. J. Ion Mobility Spectrom. 20 (2017) 1-9. Updated: 20 October 2017.
Cross section moment Q(25) Li⁺(1S0) + He | Ab initio potential of J. Lozeille, E. Winata, P. Soldan, E. P. F. Lee, L. A. Viehland and T. G. Wright, Phys. Chem. Chem. Phys. 4 (2002) 3601-3610. These values were obtained after the zero of this potential was shifted; see L. A. Viehland, T. Skaist, C. Adhikari and W. F. Siems, Int. J. Ion Mobility Spectrom. 20 (2017) 1-9. Updated: 20 October 2017.
Cross section moment Q(26) Li⁺(1S0) + He | Ab initio potential of J. Lozeille, E. Winata, P. Soldan, E. P. F. Lee, L. A. Viehland and T. G. Wright, Phys. Chem. Chem. Phys. 4 (2002) 3601-3610. These values were obtained after the zero of this potential was shifted; see L. A. Viehland, T. Skaist, C. Adhikari and W. F. Siems, Int. J. Ion Mobility Spectrom. 20 (2017) 1-9. Updated: 20 October 2017.
Cross section moment Q(27) Li⁺(1S0) + He | Ab initio potential of J. Lozeille, E. Winata, P. Soldan, E. P. F. Lee, L. A. Viehland and T. G. Wright, Phys. Chem. Chem. Phys. 4 (2002) 3601-3610. These values were obtained after the zero of this potential was shifted; see L. A. Viehland, T. Skaist, C. Adhikari and W. F. Siems, Int. J. Ion Mobility Spectrom. 20 (2017) 1-9. Updated: 20 October 2017.
Cross section moment Q(28) Li⁺(1S0) + He | Ab initio potential of J. Lozeille, E. Winata, P. Soldan, E. P. F. Lee, L. A. Viehland and T. G. Wright, Phys. Chem. Chem. Phys. 4 (2002) 3601-3610. These values were obtained after the zero of this potential was shifted; see L. A. Viehland, T. Skaist, C. Adhikari and W. F. Siems, Int. J. Ion Mobility Spectrom. 20 (2017) 1-9. Updated: 20 October 2017.
Cross section moment Q(29) Li⁺(1S0) + He | Ab initio potential of J. Lozeille, E. Winata, P. Soldan, E. P. F. Lee, L. A. Viehland and T. G. Wright, Phys. Chem. Chem. Phys. 4 (2002) 3601-3610. These values were obtained after the zero of this potential was shifted; see L. A. Viehland, T. Skaist, C. Adhikari and W. F. Siems, Int. J. Ion Mobility Spectrom. 20 (2017) 1-9. Updated: 20 October 2017.
Cross section moment Q(30) Li⁺(1S0) + He | Ab initio potential of J. Lozeille, E. Winata, P. Soldan, E. P. F. Lee, L. A. Viehland and T. G. Wright, Phys. Chem. Chem. Phys. 4 (2002) 3601-3610. These values were obtained after the zero of this potential was shifted; see L. A. Viehland, T. Skaist, C. Adhikari and W. F. Siems, Int. J. Ion Mobility Spectrom. 20 (2017) 1-9. Updated: 20 October 2017.

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