article
Thermal fluctuation of fine ferromagnetic particles
IEEE Transactions on Magnetics · 1979 · Vol. 15(5) · pp. 1196–1208
William L. Brown✉(University of Minnesota System)
Abstract
Fine ferromagnetic particles jump spontaneously from one locally stable state to another; they surmount intervening energy bartiers with the aid of thermal agitation. A theory of this phenomenon has as its primary goal the calculation of time constants. The elements of such a theory are presented. The emphasis is on calculations that require only elementary methods and on results that are simple enough to be easily applicable. The reader is assumed to be acquainted with the basic properties of ferromagnetic materials but not necessarily with Brownian-motion theory, on which the present theory is based.
Theoretical and Computational PhysicsCharacterization and Applications of Magnetic NanoparticlesMagnetic properties of thin filmsFerromagnetismJumpBrownian motionSimple (philosophy)ThermalStatistical physicsConstant (computer programming)PhysicsCondensed matter physicsComputer science
Citations
325
FWCI
0.25
field-weighted impact
References
29
Percentile
55%
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References
On the Theory of the Brownian Motion
Physical Review · 1930 · 4,464 citations
Thermal Fluctuations of a Single-Domain Particle
Physical Review · 1963 · 3,278 citations
Stochastic Problems in Physics and Astronomy
Reviews of Modern Physics · 1943 · 8,430 citations
Mathematical Methods of Statistics.
Biometrika · 1947 · 1,785 citations
Superparamagnetism
Journal of Applied Physics · 1959 · 1,741 citations
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