Y. Yafet

Nokia (United States)

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M. Hong

National Taiwan University

J. Kwo

National Tsing Hua University

D. B. McWhan

Massachusetts Institute of Technology

E. M. Gyorgy

Consejo Superior de Investigaciones Científicas

M. Landolt

Archéologies et Sciences de l’Antiquité

R. E. Dietz

Technical University of Munich

C. F. Majkrzak

National Institute of Standards and Technology

A. C. Gossard

University of California, Santa Barbara

M. Campagna

Forschungszentrum Jülich

R. M. Fleming

Manitoba Hydro

Cooperative Institutions

Nokia (United States)

AT&T (United States)

Alcatel Lucent (Germany)

Brookhaven National Laboratory

University of California, Berkeley

Cornell University

National Institute of Standards and Technology

Sandia National Laboratories

Centre National de la Recherche Scientifique

Brookhaven College

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Virtual Photoconductivity

Physical Review Letters (1989)

Eli Yablonovitch J.P. Heritage D. E. Aspnes Y. Yafet

Photoconductivity

10.1103/physrevlett.63.1896.4

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Citations (1)

Erratum: Dipole-dipole interactions and two-dimensional magnetism

Physical review. B, Condensed matter (1986)

Y. Yafet J. Kwo E. M. Gyorgy

The first part of Eq. (2.44) should read (ro -F00)t (T ~) -[( --, ')(vFq)'(I+F0)rl -+ SX, D 2n+1 1 3x "-)3 n2(n+1)2 n(n+1) -2XDIn the caption for Fi~.3(b), the value for the recent measurement of the spin-diffusion lifetime should read rDT2 1.44&&10 '3 sec K .The correct value was used in the calculation.The first paragraph on page 4553 should read as follows:This can be understood from Fig. 5, where the deviation of the variational bounds from the Platzman-Wolff expression for (co -r0o)a, is plotted as a function of XD, for a particular temperature (that corresponding to roorDA, 4).It can be seen that as A, D

Magnetism

10.1103/physrevb.34.3475

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Citations (3)

Magnetic properties of single crystal rare-earth Gd-Y superlattices

Journal of Magnetism and Magnetic Materials (1986)

J. Kwo E. M. Gyorgy Francis J. DiSalvo M. Hong Y. Yafet

Crystal (programming language)

10.1016/0304-8853(86)90245-3

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Citations (28)

Charge Screening of Impurities in Gold Observed by the Mössbauer Isomer Shift

Physical review. B, Solid state (1971)

Richard L. Cohen Y. Yafet K. W. West

The isomer shift of ${\mathrm{Au}}^{197}$ in Au-Hg alloys containing up to 12% Hg has been measured. The change produced by the Hg is extremely small, five times smaller than that produced by any solute studied previously. This result is compared with those in other gold alloys and compounds. A microscopic theoretical calculation based on a partial-wave model is successful in explaining this anomaly.

Anomaly (physics)

10.1103/physrevb.3.2872

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Citations (10)

Interpretation of Knight Shifts and Susceptibilities of Transition Metals: Platinum

Physical Review (1964)

A. M. Clogston V. Jaccarino Y. Yafet

Measurements of the magnitude, sign, and temperature dependence of the Knight shift and susceptibility in platinum are used to determine the contributions to each arising from the spin paramagnetism of the $s$ and $d$ bands, the orbital paramagnetism and the core diamagnetism. A complete expression for the orbital contribution to the Knight shift in a transition metal is derived, including spin-orbit coupling. We show that in the tight-binding limit, as in the free ion, a simple relation exists between the orbital susceptibility and the orbital hyperfine field. The relation of the enhancement of the $d$-spin susceptibility over its specific heat value to the possible occurrence of superconductivity is discussed.

Knight shift

Diamagnetism

10.1103/physrev.134.a650

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Citations (341)

Spin Waves in Ferromagnetic and Antiferromagnetic Materials

American Journal of Physics (1953)

F. Keffer Harvey Kaplan Y. Yafet

A brief outline is given of the spin-wave approximation to the near ground states of ferromagnetism and antiferromagnetism. Simple pictorial models of spin waves are introduced. These models clarify the striking difference between ferromagnetic spin waves, which obey the dispersion law ω ∝ k2, and antiferromagnetic spin waves, which obey the law ω ∞ k. The proper normal modes for antiferromagnetic spin waves are presented. The nature of ferromagnetic and antiferromagnetic resonance is illuminated from a spin-wave point of view.

Spin wave

Dispersion relation

10.1119/1.1933416

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Citations (87)

Lineshape of the 3p Excitation in the Electron Energy Loss Spectrum of Nickel Metal

Vacuum Ultraviolet Radiation Physics IV (1974)

R. E. Dietz E.G. McRae Y. Yafet Charles W. Caldwell

Source

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Comment on “Exchange Coupling in Magnetic Multilayers: A Quantum-Size Effect”

Physical Review Letters (1995)

P. Bruno M. D. Stiles Y. Yafet

10.1103/physrevlett.74.3087

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Citations (3)

Effect of shake-up transitions on the spectrum of Auger electrons in Fano resonances

Physical review. B, Condensed matter (1981)

Y. Yafet

The inclusion of the shake-up matrix element in the transition amplitude for Auger electrons in Fano resonances changes the intensity profile from Lorentzian to a Fano line shape. Transition elements at the end of the series offer a possibility for the observation of this effect.

Fano plane

Shake

Fano resonance

10.1103/physrevb.23.3558

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Citations (9)

Magnetic Coupling in Metallic Multilayers

WORLD SCIENTIFIC eBooks (1994)

Y. Yafet

Inductive coupling

10.1142/9789814447034_0002

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Citations (1)