Single-electron Coulomb blockade in a nanometer field-effect transistor with a single barrier
Stephen Y. Chou, Yun Wang
Abstract
Stephen Y. Chou, Yun Wang
Abstract
The first experimental study of a new nanometer field-effect transistor with a single barrier in its one-dimensional channel is presented. At low temperatures and as charge density in the channel was varied, nine reproducible periodic oscillations of conductance, in addition to 2e2/h conductance plateaus, were observed before the onset of the first 2e2/h conductance plateau. It was found experimentally that each conductance oscillation corresponds to the Coulomb blockade of a single electron in the one-dimensional channel. A model that describes the operation of the new single electron transistor is suggested.
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The first experimental study of a new nanometer field-effect transistor with a single barrier in its one-dimensional channel is presented. At low temperatures and as charge density in the channel was varied, nine reproducible periodic oscillations of conductance, in addition to 2e2/h conductance plateaus, were observed before the onset of the first 2e2/h conductance plateau. It was found experimentally that each conductance oscillation corresponds to the Coulomb blockade of a single electron in the one-dimensional channel. A model that describes the operation of the new single electron transistor is suggested.
Key concepts: Coulomb blockade, Conductance, Transistor, Condensed matter physics, Oscillation (cell signaling), Field-effect transistor, Electron, Electric field