Wang Qianghua

Biography

1989 Nanjing University juvenile graduation, 1989-1993 Department of Physics, Nanjing University, Department of Physics, won the doctorate degree. In 1993, he stayed in the field of scientific research and teaching. He was a visiting scholar at the University of California at Berkeley from 2000 to 2002. In 2002, he was appointed as the "Young Teachers' Fund" by the Fok Ying Tung Education Fund and the "Outstanding Youth Fund" of the Natural Science Foundation. In 2006, he was appointed as a Distinguished Professor of Changjiang Scholars of the Ministry of Education. In the strong correlation of electronic systems and microconductivity theory and other aspects of the study, published Phys. Rev. Lett. Papers 8, Phys. Rev. B papers more than 30 articles, other international core journals. Representative research work has: 1) studied the nature and screening scheme of the normal state pseudo-energy gap of high temperature superconductor under different origins. 2) proposed a new theory of doping Mott insulators and their superconductivity, emphasizing the topological cross-blocking relationship between spin and charge degrees of freedom. 3) proposed the high-temperature superconductor quasi-particle scattering coherence effect, widely cited by international counterparts. 4) A new scheme for constructing the excited state of single particles above the bounded subdomain is proposed, which explains the anomalous dispersion of quasi-particle excitation spectra in high temperature superconductors. 5) developed a multi-band superconductor tunneling theory, which reveals that the inversion phase between the energy gap can lead to the new effect of the covariance between the multi-channel Andreev emission. Currently bear the Natural Science Foundation project "iron and arsenic compounds superconductivity theory research" to participate in a "quantum control" national major scientific research program and a superconducting 973 research program.

Research Interest

Strong correlation of electronic systems / superconductivity theory / topology insulator / quantum computing