His primary areas of investigation include Electron, Optics, Atomic physics, Magnetic field and Amplifier. His work carried out in the field of Electron brings together such families of science as Cathode, Electric field, Microwave and Relativistic magnetron. His Optics research is multidisciplinary, incorporating elements of Surface roughness and Kinetic energy.
His Atomic physics research includes elements of Maser, Shear flow, Gyroradius, Modulation and Dielectric. His studies in Magnetic field integrate themes in fields like Rayleigh–Taylor instability and Feedthrough. His research in Amplifier intersects with topics in Gyrotron, Radio frequency, Cathode ray and Bandwidth.
The scientist’s investigation covers issues in Optics, Electron, Atomic physics, Magnetic field and Microwave. His Optics research includes themes of Gyrotron, Plasma, Amplifier and Cathode ray. His work in Electron tackles topics such as Electric field which are related to areas like Dielectric.
His study focuses on the intersection of Atomic physics and fields such as Cathode with connections in the field of Anode and Current density. The concepts of his Magnetic field study are interwoven with issues in Field, Mechanics, Instability and Nuclear magnetic resonance. His work in Microwave covers topics such as Cavity magnetron which are related to areas like Brillouin zone.
Yue Ying Lau mainly focuses on Optics, Magnetic field, Traveling-wave tube, Planar and Instability. His Optics research incorporates themes from Plasma, Field, Cathode, Anode and Amplifier. Contact resistance is closely connected to Electric field in his research, which is encompassed under the umbrella topic of Field.
His Magnetic field research is multidisciplinary, incorporating perspectives in Implosion, Mechanics, Rayleigh–Taylor instability and Classical mechanics. His Traveling-wave tube study also includes
Yue Ying Lau spends much of his time researching Implosion, Magnetic field, Optics, Computational physics and Atomic physics. The study incorporates disciplines such as Phase, Electrical engineering and Rayleigh–Taylor instability in addition to Magnetic field. His Optics study frequently intersects with other fields, such as Plane.
He has included themes like Plane wave, Wave impedance, Field, Wave propagation and Space charge in his Computational physics study. His Atomic physics research integrates issues from Content, Electron, Field electron emission, Stimulated emission and DC bias. Yue Ying Lau has researched Electron in several fields, including Ultrashort pulse, Cathode, Modulation and Schrödinger equation.
R. A. Kishek;Y. Y. Lau;L. K. Ang;A. Valfells
R. A. Kishek;Y. Y. Lau
Larry R. Barnett;Yue-Ying Lau;Kwo R. Chu;Victor L. Granatstein
Peng Zhang;Ágúst Valfells;L. K. Ang;J. W. Luginsland
M. Friedman;J. Krall;Y. Y. Lau;V. Serlin
Lay-Kee Ang;Y.Y. Lau;R.A. Kishek;R.M. Gilgenbach
Herman Bosman;Y. Y. Lau;R. M. Gilgenbach
R. Kishek;Y. Y. Lau
M. Friedman;J. Krall;Y. Y. Lau;V. Serlin
Michael G Mazarakis;William E Fowler;K L LeChien;Finis W Long
Nicholas M. Jordan;Y. Y. Lau;David M. French;R. M. Gilgenbach
A. Valfells;L. K. Ang;Y. Y. Lau;R. M. Gilgenbach
Ryan Miller;Y. Y. Lau;John H. Booske
L.R. Barnett;Y.Y. Lau;K.R. Chu;V.L. Granatstein
Kwo Ray Chu;Y.Y. Lau;L.R. Barnett;V.L. Granatstein
Y.Y. Lau;M. Friedman;J. Krall;V. Serlin
Kevin L. Jensen;Y. Y. Lau;D. W. Feldman;P. G. O’Shea
Y.Y. Lau
A. Valfells;J.P. Verboncoeur;Y.Y. Lau
R. D. McBride;W. A. Stygar;M. E. Cuneo;D. B. Sinars
Y.Y. Lau;R.A. Kishek;L.K. Ang;R.M. Gilgenbach
David M. French;Nicholas M. Jordan;Y.Y. Lau;R.M. Gilgenbach
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