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RECENT RESEARCH HIGHLIGHTS
  • Spin Injection Hall Effect: we study a new member of the spintronics Hall effect family in which directional specific spin-helix exciations are combined with optical spin injection and anomalous Hall effect to create a new device with real potential as a realizable room temperature spin-FET. The work is reported in Nature Physics 5, 675 (2009), News and Views, Nature Physics 5, 630 (2009).
  • Infrared Magneto-optical effects in diluted magnetic semiconductors: we team with the experimental group of SUNY at Buffalo to measure for the first time the strong magneto-optical Kerr and Faraday effects at the infrared regime which we predicted in 2003. The work is reported in Phys. Rev. Lett. 103, 137201 (2009).
  • Review of Anomalous Hall effect: We have written, together with collaborators, the most recent and extensive review of anomalous Hall effect, spanning both experiments and theory. The modern connection to Berry's phase physics is a primary focus of the review. This work will appear in Review of Modern Physics (2009); arXiv:0904.4154.



Prof. Jairo Sinova
Physics Department
4242 TAMU
College Station, TX 77843-4242
Tel: (979) 845-4179
Jairo Sinova's Curriculum Vitae

Welcome to the spintronics and nanoelectronics research group of Jairo Sinova. As a condensed matter theory group we are interested on physical phenomena of many body systems in which the behavior of the collective systems is quite different and unique from the behavior of its individual components. Condensed matter physics is an enormous field of physics whcih provides endless opportunities. Our group has focused over the past on the subfield of spintronics and mesoscopic electronic transport. These fields study the effects of coupling the spin and charge degree of freedom of the electron on bulk properties of materials as well as transport and optical phenomena. Some of our main contributions to this field are related to spin Hall effects and diluted magnetic semiconductor physics. New avenues are always opening ahead, with novel and unforeseen connections to other points of views and topics.

Research supported by: