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Y. C. Whang

Researcher at The Catholic University of America

Publications -  46
Citations -  3475

Y. C. Whang is an academic researcher from The Catholic University of America. The author has contributed to research in topics: Solar wind & Heliosphere. The author has an hindex of 24, co-authored 46 publications receiving 3279 citations. Previous affiliations of Y. C. Whang include Goddard Space Flight Center.

Papers
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The WIND magnetic field investigation

TL;DR: The magnetic field experiment on WIND will provide data for studies of a broad range of scales of structures and fluctuation characteristics of the interplanetary magnetic field throughout the mission, and, where appropriate, relate them to the statics and dynamics of the magnetosphere.
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Magnetic Field Observations near Mercury: Preliminary Results from Mariner 10.

TL;DR: The complete body of data favors the preliminary conclusion that Mercury has an intrinsic magnetic field, which represents a major scientific discovery in planetary magnetism and will have considerable impact on studies of the origin of the solar system.
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The magnetic field of Mercury, 1

TL;DR: In this article, an updated analysis and interpretation of the magnetic field observations obtained during the Mariner 10 encounter with the planet Mercury on March 29, 1974 is presented, which leads to the conclusion that an internal planetary magnetic field exists with dipole moment approximately 5.1 × 1022 G cm³.
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Perturbations of the interplanetary magnetic field by the lunar wake

TL;DR: Perturbations of interplanetary magnetic field by lunar wake compared with disturbed solar plasma flow as mentioned in this paper showed that the magnetic field was perturbed by the lunar wake and solar plasma flows.
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Observations of Mercury's magnetic field

TL;DR: Magnetic field observations made during the third encounter of Mariner 10 with Mercury are discussed along with implications of an intrinsic field for the planetary interior as mentioned in this paper, and it is concluded that an active dynamo is a more likely candidate than fossil magnetization for the origin of the field.