Modeling the Transistor of the Future

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Modeling the Transistor of the Future RESEARCH NEWS FROM THE PFC AT JQI J.Y. Vaishnav, J. Ruseckas, C. W. Clark and G. Juzeliunas Modeling the Transistor of the Future “Ultracold atom spin field effect transistors,” J.Y. Vaishnav, J. Ruseckas, C. W. Clark and G. Juzeliunas,, Phys. Rev. Lett. 101,265302 (2008), arXiv:0807.3067 Twenty years ago, Purdue University scientists proposed a highly promising design for a “spin effect” transistor – the Datta-Das transistor, or DDT. To date, however, no one has been able to build a working model. Now JQI researchers have devised a potential solution to the problem: creating a minutely controllable quantum model of the transistor action in a laboratory configuration -- in this case, an ultra-cold beam of atoms manipulated by a laser array. They developed a theoretical simulation in which the DDT electrons would be represented by a stream of ultracold atoms (neon and rubidium could work, among others) that pass through a space, corresponding to the gate in a DDT, in which three crossed laser beams overlap. When the atoms are struck by the first laser beam, the beam puts all the atoms in the same quantum state -- equivalent to the identical spins of the source electrons in a DDT. .