Publications by authors named "Tianru Qin"

The electrical transport and structural properties of tin oxide nanoparticles under compression have been studied by in situ impedance measurements and synchrotron X-ray diffraction (XRD) up to 27.9 GPa. It was found that the conduction of SnO can be improved significantly with compression.

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The transition metal dichalcogenide (TMD) ReS is a promising material for optoelectronic devices because of its remarkable quantum yield. Pressure can effectively tune the optoelectronic properties of TMDs through control of the atomic displacement. Here, we systematically investigated the lattice and electronic structural evolutions of compressed multilayer ReS.

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In situ impedance measurements were employed to investigate the electrical transport properties of BaMoO under pressures of up to 20.0 GPa. Two anomalous changes in the electrical parameters were found, related to the pressure-induced structural phase transitions.

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Synopsis of recent research by authors named "Tianru Qin"

  • - Tianru Qin's research primarily focuses on the effects of high pressure on the electrical and structural properties of various materials, including nanocrystalline SnO and multilayer ReS, utilizing advanced techniques such as in situ impedance measurements and synchrotron X-ray diffraction.
  • - Key findings indicate that applying high pressure can significantly enhance electrical conduction in tin oxide nanoparticles and can effectively tune the optoelectronic properties of transition metal dichalcogenides, revealing the importance of atomic displacement under compression.
  • - Qin's studies also highlight anomalous changes in electrical parameters of materials like BaMoO under high pressure, linked to structural phase transitions, thereby contributing valuable insights to the understanding of high-pressure material behavior.