XC. On tin whiskers
The London Edinburgh and Dublin Philosophical Magazine and Journal of Science · 1953 · 135 citations · 5 references
Materials EngineeringMaterials ScienceEngineeringSevere Plastic DeformationDislocation InteractionGrowth RateMechanical EngineeringApplied PhysicsTin WhiskersMetallurgical InteractionSolid MechanicsMicrostructure-strength RelationshipPlasticityDeformation TwinningWork HardeningMechanics Of MaterialsMicrostructure
Summary The growth of tin whiskers is explained as a process in which oxidation of the whisker surface develops a stress which draws out a continuing thread of metal from the main mass. A mechanism is provided by a dislocation in the main mass which travels continuously around the root of the whisker. It then follows that the whisker axis should be parallel to the Burgers vector of the dislocation, i.e. a slip direction in the crystal. All that is needed to start the process is an oxidizing or other reactive atmosphere, a small knob on the surface, and a dislocation. The order of magnitude of the growth rate can be satisfactorily accounted for. The substantially uniform thickness of whiskers is explained because the growth rate increases rapidly with diminution of radius, but below a certain radius the process fails because the tensile stress at the root fractures the whisker. The angular bends produced in whiskers subjected to a very high bending stress is attributed to an unusual kind of deformation twinning.
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LXXXIII. Crystal dislocations.—Elementary concepts and definitions
F. C. Frank · The London Edinburgh and Dublin Philosophical Magazine and Journal of Science · 1951
EngineeringCrystal Dislocation Theory—inCrystal Formation+16
341 citations
Screw Dislocations in Thin Rods
J. D. Eshelby · Journal of Applied Physics · 1953
305 citations
Elastic and Plastic Properties of Very Small Metal Specimens
Conyers Herring, J. K. Galt · Physical Review · 1952
263 citations
Filamentary Growths On Metal Surfaces—“Whiskers”
Kenneth G. Compton, A. Mendizza, S. M. Arnold · CORROSION · 1951
199 citations
S. Eloise Koonce, S. M. Arnold · Journal of Applied Physics · 1953
102 citations