PPT-Center for Radiative Shock

Hydrodynamics Fall 2011 Review PDT and radiation transport Marvin L Adams We continue to develop and PDT and apply it to CRASH problems Assessing diffusion model error is a CRASH priority Eric Myra will discuss . MULTIMAT 2011, September 5-9, . Arcachon. , France. David Starinshak and Smadar Karni. Department of Mathematics, University of Michigan. Center for Radiative Shock Hydrodynamics (CRASH). Funding: DoE NNSA-ASC grant DE-FC52-08NA28616, NSF Award DMS . by . means of MBE method. Ashida. . lab. M1 . K. amizono Kenta. Introduction. All-optical switching devices. Excitons . and light in the high-quality system . Background . Previous results. Temperature dependence of DFWM spectrum. . Sanshiro. Shibata (Konan Univ.). Collaborator: . Nozomu. . Tominaga. (Konan Univ., IPMU). Introduction. Models for the prompt emission. Internal shock model. A standard scenario for a long time.. In astronomy, the main source of information about celestial bodies and other objects is the visible light or more generally electromagnetic radiation.. From Wikipedia.. It also is important for the atmosphere of Earth, so you’ll meet it if you are going into Earth atmosphere science…. Zack . Pecenak. Evan Greer. Changfu. Li. Climate Change - . Implications. Problem. Ongoing . climate . change. Solution:. Climate engineering?. Solar Radiation Management. Increasing the albedo of snow or clouds is a form of SRM. ATR-42 and Falcon 20 SW . and LW . radiation . profiles above the ENEA Lampedusa supersite during the . ChArMEx. /ADRIMED SOP1a campaign. Daniela Meloni. Laboratory for Earth Observations and Analyses, ENEA. and Photocurrent. . in a Blue LED. Ben Stroup & Timothy Gfroerer, Davidson College, Davidson, NC. Yong Zhang, University of North Carolina at Charlotte, Charlotte, NC. Contrast Imaging. Motivation: Solar Cells. Hydrodynamics. Fall 2011 Review. Experimental data from CRASH experiments. Carolyn Kuranz. CRASH experiments have produced data from shock breakout to 30 ns. Shock Breakout data (~450 . ps. ). Diagnostics. Longwave. High. Clouds. Shortwave. High. Clouds. Shortwave. Low. Clouds. . . Δ. Optical Depth: -4 %. Δ Total Cloud Frac.: -0.50 %. . . Δ CTP: -8.30 hPa. . . Δ. Optical Depth: 2.0 % K. -1. imbalance . 1985-2012. Richard P. Allan. , . Chunlei. . Liu (University of Reading/NCAS Climate); Norman Loeb (NASA Langley); Matt Palmer (Met Office). r.p.allan@reading.ac.uk. @. rpallanuk. GEWEX 7. radiative. forcing. Heald. et al. 2013 ACPD. Ashley Pierce. Aerosol seminar, February 24th. 1. outline. Aerosols and climate change. IPCC on aerosols. Direct . Radiative . Effect vs. . Direct Radiative . E. ffects. Lan Gao. 01/23/2017. ATMS 790. Trade cumulus clouds embedded in haze over Northern Indian Ocean, photo taken by Eric Wilcox. 1. Materials. T. wo articles:. . This review paper summaries the general and broad view of black carbon (BC) effects on the Earth climate.. Shock may be defined as a condition in which circulation fails to meet the nutritional needs of the cells and at the same time. A final common pathway for many potentially lethal clinical events (hemorrhage,trauma, burns, large MI, massive pulmonary embolism microbial sepsis) fails to remove the metabolic waste products. Compensated shock. Progressive decompensated shock. Irreversible decompensated shock. Pathophysiology. 1. . Compensated (non-progressive, initial, reversible) shock:. In the early stage of shock, an attempt is made to maintain adequate cerebral and coronary blood supply by: .