Abstract:
PURPOSE: A surface enhanced raman scattering substrate using nano-channels and a surface enhanced raman scattering method using the same are provided to observe an enhanced raman signal based on the amplified electromagnetic field and the locally increased concentration of liquid specimen. CONSTITUTION: A substrate(100) is prepared. A ultrafine structure(300) is composed of ultrafine particles(200) with constant sizes which are continuously arranged on the substrate. Nano-channels are formed between the ultrafine particles. Liquid specimen from a reservoir(600) is transferred through the nano-channels. If the concentration of the liquid specimen is locally increased, a surface enhanced raman scattering signal is amplified.
Abstract:
PURPOSE: A large-diameter terahertz micro electro mechanical system (MEMS) scanning mirror is provided to obtain a high driving range while reflecting beams of terahertz waves. CONSTITUTION: A large-diameter terahertz MEMS scanning mirror (100) includes a plurality of holes (20) formed on the surface. The holes have a diameter smaller than that of terahertz waves. The large-diameter terahertz MEMS scanning mirror has a high Q-factor. The diameter of the holes is 300um or less.
Abstract:
PURPOSE: A method for manufacturing a surface-enhanced raman scattering patch with biocompatibility using hydrogel is provided to ensure biocompatibility using hydrogel in which metal nanoparticles are mixed and to enable biological transplantation. CONSTITUTION: A method for manufacturing a surface-enhanced raman scattering patch with biocompatibility using hydrogel comprises the steps of: (S10) forming micro-patterns on a substrate; (S20) molding PDMS(polydimethylsiloxane) on the substrate to form PDMS mold with micro-patterns; (S30) imprinting hydro gel in which metal nanoparticles located on the slide glass with PDMS mold; and (S40) removing the PDMS mold on the hydro gel to form a Plasmonic patch.