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PUBLICATIONS LIST OF PROFESSOR GEORGE GRÜNER |
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. 1967 . 1968 . 1969 . 1970 .
1971 . 1972 . 1973
. 1974 . 1975 . 1976
. 1977 . 1978 . 1979
. 1980 . . 1981 . 1982 . 1983 . 1984 .
1985 . 1986 . 1987
. 1988 . 1989 . 1990
. 1991 . 1922 . 1993
. 1994 . . 1995 . 1996 . 1997 . 1998
. 1999 . 2000 . 2001
. 2002 . 2003 . 2004
. 2005 |
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1. K.
Tompa, F. Tóth, G. Grüner, “Susceptibility of MnO Measured by the NMR Method," Phys. Stat. Sol 22, K11.
2. G.
G. Grüner, K. Tompa, F. Tóth, “NMR Studies of Molecular Motions in Compounds
with Three Carbon Rings,"
Phys. Stat. Sol. 32, K71.
3. A.
Jánossy, G. . Grüner, K. Tompa, “PMR Studies of Frozen Acqueous FeCl2
Solutions," J. Chem.
Phys. 51, 5189. 4. K.
Tompa, F. Tóth, G. Grüner, “NMR Investigation of Dilute Al-Ta Alloys,"
Solid State Comm. 7, 51. 5. K.
Tompa, G. Grüner, A. Jánossy, F. Tóth, “First Order Quadruple Effect in
Dilute Copper-Based Cu-Zn Alloys," Solid State Comm. 7, 697. 6. G.
Grüner, “Charge Density Oscillations in Dilute Fe-Al Alloys," Solid
State Comm. 7, 1421. 7. G
Grüner, K. Tompa, C.R. Vassel, “NMR study of metallurgical effects in dilute
AlFe alloys". Hungarian Academy of Sciences, Budapest, Hungary. N/A 8. G.
Grüner, E. Kovács-Csetényi, K. Tompa, C.R. Vassel, “27Al NMR Spectra in
Al-3D-Transition Metal Alloys,"
Phys. Stat. Sol. 45,
663. 9. G.
Grüner, C. Hargitai, “`Temperature Dependence of the Charge Oscillation
Around Nearly Magnetic Impurities," Phys. Rev. Lett. 26, 772. 10. G
Grüner, I. Vincze, “Hyperfine field distribution & average hyperfine
field in dilute Fe-Co alloys.” Hungarian Acad. Sci., Budapest,Hungary, N/A.
11. A.
Jánossy, G. Grüner, “Satellite Structure Due to Charge Perturbation Around
a Nearly Magnetic
Impurity," Solid State
Comm. 9, 1503. 12. G.
Grüner, B.E. Paton, “LSF effects in Al-3D-Transition Metal Alloys,"
Technical Report KFKI-49. (N/A} 13. G.
Grüner, I. Vincze, L. Cser, “Charge and Spin Perturbation Around Nonmagnetic
Impurities in Iron," Solid
State Comm. 10, 347.
14. F.I.
Tóth, K. Tompa, G. Grüner, “Frequency Modulated NMR Spectrometer for
Measurement of Internal Magnetic Fields," J. Phys. E 5, 42. 15. G.
Grüner, “Temperature Dependence of the Charge Perturbation Around 3-D
Transition Metal Impurities in Aluminum," Solid State Comm. 10, 1939. 16.
G. Grüner and A. Zawadowski, “Semiphenomenological Model for the Resonances
and Charge Neutrality in Dilute Magnetic Alloys," Solid State Clomm. 11, 663. 17. I.
Vincze, G. Grüner, “Temperature Dependence of the Hyperfine Field at Iron
Atoms Near Three Dimensional Impurities," Phys. Rev. Lett. 28, 178.
18. F.
Mezei, G. Grüner, “Theory of Anomalous Charge Oscillation Around
Resonant Scattering
Impurities," Phys. Rev.
Lett. 29, 1465. 19. E.
Kovács-Csetényi, F.J. Kedves, L. Gergely, G. Grüner, “High Temperature
Impurity Resistivity in AlMn Alloys," J. Phys. F 2, 499. 20. G.
Grüner, K. Tompa, “`Detailed 57Fe Continuous NMR Spectra in Fe
Based Alloys, "J. Phys. F3,
199. 21. A.M.
Stewart, G. Grüner, “Physical
Properties Given by the Magnetic Hartree-Fock Solution of Anderson's
Model," J. Phys. F3, 843 22. A.D.
Caplin, G. Grüner, J.B. Dunlop,
“Al10V: An Einstein Solid," Phys. Rev. Lett. 30, 1138.
23. G.
Serfózó, E. Kovács-Csetényi, G. Grüner, “Quadrupolar NMR Line broadening in
Al- Three Dimensional-Transition Metal Alloys," Solid State Comm. 13, 1315. 24. V.
Zlatic, G. Grüner, N. Rivier, “Model Calculation of the Density of States
of Dilute Alloys," Solid State Comm. 14, 639.
25. F.
Mezei, G. Grüner, “NMR Experimental Test for Existence of the Kondo
Resonance," Proc. LT 13, Vol.2, 444 Plenum Press. 26. J.B.
Dunlop, G. Grüner, F. Napoli,
“Phonon Resistivities of Dilute Transition Metal Compounds," Solid State Comm. 15, 13. 27. G.
Grüner, N.F. Mott, “A Model for the Kondo Type Intermetallic Compounds With
Small Effective Moments,"
J. Phys. F 4, L16. 28. J.B.
Dunlop, G. Grüner, A.D. Caplin, “Dilute Intermetallic Compounds II: Properties of Aluminum Rich
Aluminum-transition Metal Phases,"
J. Phys. F 4, 2203.
29. A.
Zawadowski, G. Grüner, “On the Absence of the Finite Conduction Electron Polarization in Dilute
Alloys," J. Phys. F 4, L202.
30. G.
Grüner and A. Zawadowski, “Magnetic Impurities in Non-magnetic Metals,"
Rep. Prog. Phys. 37, 1497-1583. 31. G.
Grüner, “Experimental Evidence for Many-body Effects in Dilute Alloys,"
Advances in Physics, 23, 941. 32. G.
Mihály, K. Ritvay-Emandity, and G. Grüner, “High Temperature Resistivity
of Qn (TCNQ)2 and Ad
(TCNQ)2," J.
Phys. C 8, L361.
33.
M. Miljak, A. Jánossy,
G. Grüner, “Magnetic
Susceptibility of Qn (TCNQ)2, "KFKI reports 38. (1
page) N/A 34.
G. Mihály, K. Holczer,
K. Pintér, A. Jánossy, G. Grüner, “Magnetic and Electric Properties of NMeQn (TCNQ)2," Solid State Comm. 17, 1007. 35. K.
Holczer, G. Mihály, A. Jánossy, and G. Grüner, “Magnetic and Electric
Properties of Qn (TCNQ)2,"
Mol. Cryst. Liq. Cryst. 32, 199. 36. J.B.
Dunlop and G. Grüner, “One
Dimensional Effects in the Intermetallic Compound Al11Mn4," Solid State Comm. 18, 827. 37. E.
Babíc and G. Grüner, “Interaction Effects in Dilute Alloys," Physica 84B,
37. 38. G.
Mihály, K. Holczer, G. Grüner, L.D. Kunstelj, “Interchain Interactions
and Phase Transition in NMeQn (TCNQ)2," Solid State Comm. 19, 1091.
39. F.
Woynarovich, L. Mihály, G. Grüner, “Coupled Charge Density Waves in Nearly
One Dimensional Systems," Solid State Comm. 19, 1189.
40. K.
Holczer, G. Mihály, K. Pintér, A. Jánossy, G. Grüner, W.G. Clark, “Phase Transition in Py (TCNQ)2," Lecture Notes in Physics 65
(Proceedings of the Conf.on Organic Conductors and Semiconductors, 1976),
Springer Verlag, p. 507. 41. G.
Mihály, K. Ritvay-Emandity, G. Grüner, “Interchain Coupling and Disorder
in Complex TCNQ Salts With
Aromatic Donors," Lecture
Notes in Physics 65 (Proceedings of the Conf. on Organic Conductors and
Semiconductors, 1976), Springer Verlag, p. 507. 42. G.
Mihály, K. Holczer, A. Jánossy, G. Grüner, M. Miljak, “TCNQ Salts With Symmetric and Asymmetric
Donors," Lecture Notes in
Physics 65 (Proceedings of the Conf. on Organic Conductors and
Semiconductors, 1976), Springer Verlag, p. 553. 43. G.
Mihály, K. Ritvay-Emandity, A. Jánossy, K. Holczer, G. Grüner, “Single
Crystal Conductivity of Bipyridine-TCNQ Salts," Solid State Comm. 21, 1115. 44. G.
Mihály, A. Jánossy, G. Grüner, “Dimensionality and Disorder in TTT-I1.6,"
Solid State Comm. 22, 771. 45. V.
Zlatíc, G. Grüner, “Preasymptotic Charge Oscillations Around 3-D Impurities
in Aluminum," J. de Phys.
Lett. 38, L97. 46. G.
Grüner, E. Babíc, “Impurity Interactions in Kondo Systems," Physica 86-88B, 850. 47. G.
Mihály, G. Said, G. Grüner, M. Kertész, “2-3 Benzacridinium (TCNQ)2:
A Small Bandgap Conductor," Solid State Comm. 24, 97.
48. K.
Kamarás, K. Ritvay-Emandity, G. Mihály, G. Grüner, N. Rysava, “Impurity
Effects in the Organic Charge Transfer Salt Qn (TCNQ)2," KFKI-31, (1977), J. Phys. C10, L423.
49. K.
Kamarás, K. Ritvay-Emandity, G. Mihály, G. Grüner, “Electronic Spectra of the
Organic Charge Transfer Salts TTT-In," Solid State Comm. 24, 93. 50. K.
Holczer, G. Grüner, M. Miljak, J. Cooper, “Surface Magnetism in Organic
ChargeTransfer Salts,"
Solid State Comm. 24, 97. 51. M.
Miljak, B. Korin, J.R. Cooper, G. Grüner, “Magnetic Susceptibility of the Organic Metal TTT2I3," Comm. Phys. 2, 193. 52. G.
Grüner and A. Zawadowski, “Low Temperature Properties of Kondo Alloys,
"Progress in Low Temperature Physics, Vol. 7, Ed. E. Brewer. 53. G.
Grüner and M. Minier, “Charge Perturbations Around Impurities in
Metals," Advances in Physics,
26, No. 3, 231-284. 54. K.
Holczer, G. Mihály, A. Jánossy, G. Grüner, M. Kertész, “Complex TCNQ Salts with Asymmetric Donors:
Transport Properties," J.
Phys. C11, 4707.
55. M.
Kürti, G. Mihály, G. Grüner, A. Jánossy, “Nonohmic Electrical Conductivity in Qn (TCNQ)2," KFKI-29. N/A 56. K.
Kamarás, G. Grüner, S. Sawatzky, “Optical Absorption in Complex TCNQ
Salts," Solid State Comm. 27, 1171.
57. K.
Kamarás, G. Mihály, G. Grüner, A. Jánossy, “Highly Conducting Organic Alloys:
TTT2IxBr3-x," Chem. Comm., 974.
58. T.
Kemény, Z. Poko, G. Mihály, K. Holczer, G. Grüner, “The Role of Solvent in Phase Transition of NMeQn (TCNQ)2,"
Mol. Cryst. Liq. Cryst. 1. 59. M.
Miljak, J. Cooper, G. Grüner, “Complex TCNQ Salts with Asymmetric Donors:
II. Magnetic
Properties," J. Phys. C1. 60. K.
Kamarás and G. Grüner, “Optical Properties of the Charge Transfer Salts
of Tetra-
thiotetracene," Solid State
Comm. 30, 277. 61. K.
Holczer, G. Grüner, G. Mihály, A. Jánossy, “Defect Dependence of the Dielectric Permeability of Qn (TCNQ)2," Solid State Comm. 31, 145. 62. G.
Mihály, A. Jánossy, J. Kürti, L. Forró, G. Grüner, “Nonohmic
Conductivity in Qn (TCNQ)2," Lecture Notes on Phys. 95, 297 Springer Verlag. 63. G.
Grüner, A. Jánossy, K. Holczer, G. Mihály, “Disordered One Dimensional Conductors," Lecture Notes on Phys. 96, 246 Springer Verlag 64. K.
Holczer, G. Mihály, G. Grüner, A. Jánossy, “Decrease of Electronic
Coherence
Length by Impurities in the Quasi-one-dimensional Charge Transfer Salt Qn (TCNQ)2," J. Phys.
C 12, 1883. 65. P.M.
Chaikin, G. Grüner, I.F. Schegolev, E.B. Yagubskii, “Thermoelectric Power of
TTT2I3+d"
Solid State Comm. 32, 1211.
66. E.
Chock, G. Grüner, “Thermoelectric Power of Na0.33V2O5,"
Solid State Comm. 36, 12. 67. L.
Zuppiroli, G. Mihály, A. Jánossy, G. Grüner, “Effects of Neutron
Irradiation Induced Defects and
Chemical Impurities on the dc Conductivity of TTT2I3,"
J. Phys. C1. 68. G.
Grüner and S.K. Khanna, “Configurational Entropy in the Organic Conductor Qn (TCNQ)2," Solid State Comm. 32, 1233.
69. G.
Mihály, A. Jánossy, J. Kürti, L. Forró, and G. Grüner, “Nonlinear Transport
in Qn (TCNQ)2," Phys. Stat. Sol. B94, 287. 70. M.
Miljak, B. Korin, J.R. Cooper, K. Holczer, G. Grüner, A. Jánossy, “Low Temperature Magnetic
Susceptibility of Some Quasi-one-dimensional Organic Conductors," Journal of Magnetism and Magnetic
Materials, 15, 219.
71. F.
Devreux, M. Nechtschein, G. Grüner, “Charge Transport in the Organic Conductor Qn (TCNQ)2," Phys. Rev. Lett. 45, 53.
72. M.
Morrow, W.N. Hardy, J.F. Carolan, A.J. Berlinsky, A. Jánossy, K. Holczer, G.
Mihály, G. Grüner, S. Huizinga, A. Verwey, G.A. Sawatzky, “Metal Insulator
Transition in MEM (TCNQ)2," Can. J. Phys.
73. J.
Sanny, G. Grüner, W.G. Clark, “Observation of Quasi-universal Magnetic
Behavior in a Random Heisenber Antiferromagnetic Chain: Neutron
Irradiated Quinolinium (TCNQ)2," Solid State Comm. 35, 657.
74. R.
Lacoe, G. Grüner, P. Chaikin, “The Thermoelectric Power of MEM (TCNQ)2,"
Solid State Comm. 36, 599. 75. M.
Weger, G. Grüner, W.G. Clark, “Charge Density Wave Noise in NbSe3,"
Solid State Comm. 35, 243.
76. G.
Grüner, J. Sanny, L. Tippie, W.G. Clark, N.P. Ong, “Frequency Dependent
Conductivity in NbSe3,"
Phys. Rev. Lett. 45, 935.
77. A.J.
Epstein, H.W. Gibson, P.M. Chaikin, G. Grüner, W.G. Clark, “Frequency and Electric Field
Dependent Conductivity in Metallic Polyacetilene," Phys. Rev. Lett. 45, 1730.
78. P.M.
Chaikin, G. Grüner, E.M. Engler, R.L. Greene, “Study of Nonlinear Electric Field Effects in (TMSF)2PF6,"
Phys. Rev. Lett. 45, 1874. 79. S.K.
Khanna, G. Grüner, R. Orbach, H. Beyeler, “Thermally Activated Microwave
Conductivity in the Superionic Conductor Hollandite [K1.54Mg0.77Ti7.23O16],"
Phys. Rev. Lett. 47, 255.
80. G.
Grüner, A. Zawadowski, P.M. Chaikin, “Nonlinear Conductivity and Noise Due
to Charge Density Wave Depinning
in NbSe3," Phys.
Rev. Lett. 46, 511.
81. G.
Grüner, “Frequency and Field Dependent Transport in Low Dimensional
Conductors," Chemical Scripta A, 207. 82. A.H.
Thompson, A. Zettl, G. Grüner, “Charge Density Wave Transport in TaS3,"
Phys. Rev. Lett. 47, 64. 83. G.
Grüner, A. Zettl, W.G. Clark, A.H. Thompson, “Observation of Narrow Band
Charge Density Wave Noise in TaS3," Phys. Rev. B 23, 6813.
84. C.M.
Jackson, A. Zettl, G. Grüner, A.H. Thompson, “High Frequency Conductivity in
the Charge Density Wave Semiconductor TaS3," Solid State Comm. 39, 531.
85. W.W.
Fuller, G. Grüner, P.M. Chaikin, N.P. Ong, “Impurity Effects in NbSe3,"
Chemica Scripta (Sweden) 17, 135.
86. W.W.
Fuller, G. Grüner, P.M. Chaikin, N.P. Ong, “Effect of Radiation Damage on the Charge Density Wave Dynamics
of NbSe3," Phys.
Rev. B23, 6259.
87. G.
Grüner, W.G. Clark, A.M. Portis, “Ac-induced Conductivity in the Charge
Density Wave State in NbSe3," Phys. Rev. B24, 3641.
88. G.
Grüner, A. Zettl, W.G. Clark, J. Bardeen, “Field and Frequency Dependence
of Charge Density Wave
Conduction in NbSe3,"
Phys. Rev. B 24, 724 89. A.
Zettl, G. Grüner, A.H. Thompson, “On the Nonlinear Charge Density Wave Conductivity of TaS3," Solid State Comm. 39, 899.
90. S.
Alexander, J. Bernasconi, W.R. Schneider, R. Biller, W.G. Clark, G. Grüner,
R. Orbach, A. Zettl, “Frequency Dependent Charge Transport in a One
Dimensional Disordered Metal,"
Phys. Rev. B 24, 7474.
91. A.J.
Epstein, H.W. Gibson, P.M. Chaikin, W.G. Clark, G. Grüner, “Electric Field Dependent Conductivity of
Metallic Polyacetylene,"
Chemica Scripta 17, 135.
92. S.K.
Khanna, W.W. Fuller, G. Grüner, P.M. Chaikin, “Transport Properties of Tetra- thiotetracene Iodide (TTT2I3-d) at Low Temperatures," Phys. Rev. B 24. 93. S.K.
Khanna, G. Grüner, R. Orbach, M. Beyeler, “Thermally Activated Conductivity in the Superionic
Conductor Hollandite [K1.54Mg0.77Ti7.23}O16],"
Phys. Rev. Lett. 47, 255.
94. S.
Oostra, B.V. Bodegom, S. Huizinga, G.A. Sawatsky, G. Grüner, T.P. Travers,
“Molecular Motion Induced Order-disorder Transition in MEM (TCNQ)2,"
Phys. Rev. B 24, 5004.
95. Y.
Tomkiewicz, N.S. Shiven, T.D. Schultz, K. Thomann, L.R. Delhon, A.
Zettl, G. Grüner, T.D.
Clarke, “Spin and Charge
Excitation in Polyacetilene,"
Solid State Physics RC 91 89 (No. 40326). 96. G.
Grüner, “Charge Density Wave Dynamics in NbSe3 and TaS3," Molecular Crystals and Liquid
Crystals 81, 17.
97. M. Weger, G. Grüner, W.G. Clark, “Spectral Purity and Phase Coherence of Narrow Band Noise in NbSe3," Solid State Comm. 44, 117 |