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Near-IR Module for Ellipsometry

Equipo / instalación: Equipment

    Detalles de los equipos

    Description

    This proposal is for acquiring a near-infrared upgrade module (e.g., source/receiver units) for in situ optical spectroscopic ellipsometry. It will enable us to build state-of-the-art operando spectroscopic characterization programs studying various energy-related materials such as lithium/sodium metals, solidstate electrolytes, semiconductors, metal-oxide thin films, and organic crystals. Operando characterizations are emerging as essential tools for the advance of future energy device technology. However, many research groups rely on ex situ characterizations or post-mortem analyses. In other words, one should disassemble processed devices such as cycled batteries and dead solar cells to see what has happened. Besides, operando approaches can provide the samples’ real-time data and nondestructive characterizations. PI and Co-PI’s have recently developed in situ optical spectroscopic ellipsometry and demonstrated its viability for operando characterizations in solid-state lithium-metal battery research [1]. It provides real-time, comprehensive information in materials science, like in vivo experiments in biology. The existing instrument, which was purchased in 2012, has a limited spectral range of 210 nm – 1000 nm in wavelength. The spectral range will be significantly extended to 1690 nm with this purchase of a new module ($25,000). Since molecular vibrations or plasmonic excitations occur in near-infrared energies, we expect that this extended spectral range will allow us to explore terra incognita of energy materials physics. It will also help us compete for energy-related funding programs using our state-of-the-art operando spectroscopic characterizations.

    Información

    NombreFunding $25,000

    Huella digital

    Explore las áreas de investigación en las que se ha utilizado este equipo. Estas etiquetas se generan con base en los resultados relacionados. Juntos, forma una huella digital única.
    • Anisotropic strain relaxation-induced directional ultrafast carrier dynamics in RuO2 films

      Jeong, S. G., Choi, I. H., Lee, S., Oh, J. Y., Nair, S., Lee, J. H., Kim, C., Seo, A., Choi, W. S., Low, T., Lee, J. S. & Jalan, B., jun 27 2025, En: Science advances. 11, 26, eadw7125.

      Producción científica: Articlerevisión exhaustiva

      Acceso abierto
      8 Citas (Scopus)
    • Tunable magnons of an antiferromagnetic Mott insulator via interfacial metal-insulator transitions

      Shrestha, S., Souri, M., Dietl, C. J., Pärschke, E. M., Krautloher, M., Calderon Ortiz, G. A., Minola, M., Shi, X., Boris, A. V., Hwang, J., Khaliullin, G., Cao, G., Keimer, B., Kim, J. W., Kim, J. & Seo, A., dic 2025, En: Nature Communications. 16, 1, 3592.

      Producción científica: Articlerevisión exhaustiva

      Acceso abierto
      7 Citas (Scopus)
    • Route to Enhancing Remote Epitaxy of Perovskite Complex Oxide Thin Films

      Lee, S., Zhang, X., Abdollahi, P., Barone, M. R., Dong, C., Yoo, Y. J., Song, M. K., Lee, D., Ryu, J. E., Choi, J. H., Lee, J. H., Robinson, J. A., Schlom, D. G., Kum, H. S., Chang, C. S., Seo, A. & Kim, J., nov 12 2024, En: ACS Nano. 18, 45, p. 31225-31233 9 p.

      Producción científica: Articlerevisión exhaustiva

      7 Citas (Scopus)