英語 での Raman spectroscopy の使用例とその 日本語 への翻訳
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Through the development of these new systems, deposits of nano-carbon have been generated, and Raman spectroscopy has confirmed that these are in Sp2 and Sp3 form.
However, Raman spectroscopy can give additional information about lower frequency modes, and vibrations that give insight into crystal lattice and molecular backbone structure.
Raman spectroscopy has found extensive use in a wide host of industries, spanning: semiconductors and superconductors, pharmaceutical, medical, optical communications, and academic research.
Through development of new systems, deposits of nano-carbon layers are generated, and Raman spectroscopy has confirmed that these to be in SP2 Sp3 form.
Org| Remote sensing of water properties using Raman spectroscopy The project entails the use of Raman spectroscopy for remote sensing of water temperature, salinity and orgainic content as a function of depth, in coastal and inland waterways.
Daniel Orringer, Sandra Camelo-Piragua, and colleagues designed a portable technology that uses Raman spectroscopy- an imaging technique that provides a sample's molecular fingerprint- to provide fast analysis of fresh brain tumour samples in the operating room, eliminating the need for sample processing.
For example, Raman spectroscopy has found extensive usage as a tool in the biopharmaceutical industry, where the identification of pharmaceutical ingredients may be determined, in the semiconductor industry where the purity of wafers may be investigated, and in forensics sciences where the detection of explosives may be monitored.
Examples include the modelling of underwater light fields and the analysis of lidar return signals to extract information about temperature, salinity, organic constituents, and particulates… This project will suit a motivated student interested in optical physics, remote sensing, and Raman spectroscopy.
Generation and applications of intense terahertz pulses Terahertz imaging Terahertz spectroscopy of biological, chemical and semiconductor materials THz wave generation from high Tc superconductor(collaboration with Prof. Kadowaki) Development of novel molecular imaging techniques using new laser sources and application to life and medical sciences Development of novel chiral sensitive nonlinear Raman spectroscopy methods Click here for details Introductionsize: 5832 KB.
Also, we are working on the prevention, early diagnosis, and development of treatment methods for pancreatic cancer, of which prevalence is high in Shimane. In relation to advanced medical research, we have been working on the development of treatment methods for congenital metabolic disorder through mesenchymal stem cell transplantation, treatment of mental disorders using kampo medicines, and the development of new diagnostic methods using raman spectroscopy towards the accomplishment of a collaborative medicine, science and engineering project.
Narrowband laser for large area Raman spectroscopy for food quality control is also available at 785 nm.
The Raman effect underlying Raman spectroscopy is ancient and was discovered in 1928 by Dr. Raman in India, who later won the Nobel Prize.
Such laser systems may also be used in the excitation of plasmonic substrates, as is the case in surface enhanced Raman spectroscopy SERS.
After hair had been immersed in α-ketoglutarate solution for 2 hours, the cut surface was mapped by Raman spectroscopy at the specific α-ketoglutarate peak of 1739 cm-1.
Tensile Testing An available micro Push-to-Pull(PTP) device provides a means to apply uniaxial tension forces to small-scale fibers, films, and 2D materials in combination with Raman spectroscopy.
Whereas recycling waste plastic has been regarded as a corporate social responsibility(CSR) in the past, the development of commercially viable Raman spectroscopy identification technology has the potential to change all that in the future.
However, in general, the exposure time required for Raman spectroscopy may take several seconds to tens of seconds, or even several minutes, and the ratio of data transfer time to the total measurement time is extremely small.
SmFeAsO- an iron arsenide compound called a pnictide- only becomes a superconductor when'doped' with fluorine and cooled to below 55 K. Using a technique known as Raman spectroscopy, which can detect the various types of resonances in an atomic system, Chen and his team looked for differences between doped and undoped SmFeAsO as they varied the temperature.
Using special laser equipments, we perform femtosecond pump-probe spectroscopy, Raman scattering, and terahertz spectroscopy and so on.