PPT-Raman Spectroscopy and some experimental results

Professor Dr HANS SCHUESSLER By Ansam Jameel Talib Molecular Physics Course History of Raman Scattering 1923 Inelastic light scattering predicted by A . General issues of spectroscopies. II. (c) So Hirata, Department of Chemistry, University of Illinois at Urbana-Champaign. . This material has . been developed and made available online by work supported jointly by University of Illinois, the National Science Foundation under Grant CHE-1118616 (CAREER), and the Camille & Henry Dreyfus Foundation, Inc. through the Camille Dreyfus Teacher-Scholar program. Any opinions, findings, and conclusions or recommendations expressed in this material are those of the author(s) and do not necessarily reflect the views of the sponsoring agencies. Seda Yerli 20824388. Serap . Sunatepe. 20824245. Gonca Çalışkan 20823894 . Beytepe. ,Ankara. 12.04.2012. OUTLINE. History. of IR . Radiation. . and. FTIR. General . Information. . about. IR . 5. . Discussion, Conclusions, and . Future Steps. Choosing Martian Samples for Fossil . Biosignature. Analysis of . Kerogen. : . . Fluorescence . microscopy and Raman spectroscopy applications to analog samples. CHE 6416. Michael Evans. 1. How does Microwave relate to other spectroscopies. Different types of motion. Translational. Vibrational. Rotational.. 2. What is Microwave Spectroscopy?. Microwave stimulates Rotational translations. Optogenectis. Manuela . Buonanno. Outline. Why . nanotechology. Optogenetics. Surface enhanced Raman spectroscopy (SERS). Applications . Nanofibers. Scanning electron micrograph of an optical . nanofiber. 1.2-m UK Schmidt Telescope. Author: . Primož Cigler. Mentor: . prof. dr. Tomaž Zwitter. Seminar Leader: . prof. dr. Peter Križan. What I will be talking today about?. Basics about spectroscopy and some theoretical background. Spectroscopy of . Tungsten . Trioxide and COMSOL. ©. Computer Simulation in Gas Sensor Technology. C. Craig. Mentor: Dr. P. . Misra. REU Team Members: R. Garcia-Sanchez, Dr. D. . Casimir. , S. Bartley. DIMER RADICAL . ANION IN WATER. Irek . Janik. , G.N.R. . Tripathi. , Ian Carmichael . Radiation . Laboratory, University of . Notre Dame. , Notre Dame, . IN 46655, USA. Motivation for (SCN). 2. -. studies. YAG Laser and Raman Cells (. A53Q – 0439. ) . J. T. . Sullivan (jsull1@umbc.edu). 1,2. , . T. J. . McGee. 2. , . G. K. . Sumnicht. 2,3. 1. . Department of Atmospheric Physics, University of Maryland Baltimore County (UMBC), Baltimore, MD, United States. . Infrared (Vibrational). Raman (Rotational & Vibrational) . Texts. “Physical Chemistry”, 6th edition, . Atkins. “Fundamentals of Molecular Spectroscopy”, 4th edition, . Banwell & McCash. Mark . Schnittker . 2013, Aug-23. schnittker@yahoo.com. 408-368-1064. . Some common measurement techniques. . . Atomic techniques (usually inorganic). X-ray spectroscopy. Optical absorption. Plasma discharge. 2. Nuclear Magnetic Resonance Spectroscopy. After hydrogen, the most useful atom providing information is carbon-13.. The . overall intensity of a . 13. C signal is about 6400 . times . less than the intensity of an . Presenter: Orthodoxia Zervaki. Authors: Orthodoxia Zervaki. a, b. , Braden Stump . c. , Patricia Keady . c. , Pramod Kulkarni. a. , Dionysios D. Dionysiou. b. a . Centers for Disease Control and Prevention, National Institute for Occupational Safety and Health, Cincinnati, OH, USA. at ELI Beamlines. Probing . and Driving . (Bio)Molecular Dynamics. . with Femtosecond Pulses . (. wavelengths 200 – 1200 nm, energies below 1 . mJ. ). Why femtosecond lasers in chemistry and biology?.