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Atmospheric Chemistry: more books (100)

Handbook of Weather, Climate and Water: Atmospheric Chemistry, Hydrology and Societal Impacts
Atmospheric Chemistry: Fundamental Aspects (Studies in Environmental Science) by E. Meszaros, 1981-10
Progress and Problems in Atmospheric Chemistry (Advanced Series in Applied Physics)
Laser Remote Chemical Analysis (Chemical Analysis: A Series of Monographs on Analytical Chemistry and Its Applications)
The Chemistry of Free Radicals: N-Centered Radicals
Ionospheres: Physics, Plasma Physics, and Chemistry (Cambridge Atmospheric and Space Science Series) by Robert Schunk, Andrew Nagy, 2009-09-21
Chemistry of Marine Water and Sediments (Environmental Science and Engineering / Environmental Science)
Global Environmental Change: An Atmospheric Perspective by John Horel, Jack Geisler, 1996-11-18
Chemistry of the Climate System by Detlev Moller, 2010-11-30
Fundamentals of Physics and Chemistry of the Atmosphere by Guido Visconti, 2001-08-09
Transformation Products of Synthetic Chemicals in the Environment (The Handbook of Environmental Chemistry / Reactions and Processes)
The Chemistry of the Atmosphere and Oceans by Heinrich D. Holland, 1978-05
Chemistry of the Natural Atmosphere, Volume 71, Second Edition (International Geophysics) by Peter Warneck, 1999-10-29
Air Composition and Chemistry (Cambridge Environmental Chemistry Series) by Peter Brimblecombe, 1996-01-26

lists with details

Geoff Blake / Caltech / Atmospheric Chemistry Research Page
atmospheric chemistry BIOGEOCHEMICAL CYCLES GA Blake Group Divisions of Geological Planetary Sciences, Chemistry Chemical Engineering
http://www.gps.caltech.edu/~gab/atmospheric/atmospheric.html

Extractions: For example, stable isotopes have long served as an invaluable tool in geochemical studies of the solid and liquid reservoirs of the earth. As outlined more fully below, stable isotopes also have the potential to provide critical new insights into a variety of issues in atmospheric science, yet have been only rarely pursued. In part this arises because the measurements are difficult, requiring precisions and accuracies in the part per ten thousand range, but also because the science that can be pursued with stable isotopic studies of atmospheric trace gases is only now becoming clear. We have begun a new laboratory program that utilizes stable isotopes to examine the fate of important biogenic trace gases such as nitrous oxide, and are developing new in situ measurement approaches for such species using infrared laser induced fluorescence. With Paul Wennberg's group we are also beginning a new effort in Br/BrO detection in the vacuum ultraviolet, as described below. Nitrous oxide exists in the Earth's atmosphere at a current concentration of approximately 310 ppbv and is increasing at an annual rate of about 0.25-0.31%. Despite being present in only trace amounts, nitrous oxide exerts a large influence on the terrestrial climate in two major ways: (1) It is one of the main greenhouse gases because of its long atmospheric lifetime (~100-150 years) and its large radiative forcing capabilities (nearly 200 times that of carbon dioxide), and (2) It is the principal source of NO
Gases And Atmospheric Chemistry
Gases atmospheric chemistry Concept Development Demos Tips Labs/Activities. Concept Development. Introduction to Gases Scuba, Cartesion Diver
http://educ.queensu.ca/~science/main/concept/chem/c06/c06main.htm
MIT CGCS Research: Atmospheric Chemistry
Focus on Upper atmospheric chemistry and Circulation. Theoretical studies of the greenhouse effect indicate that a rise in the level of the greenhouse gases
http://web.mit.edu/cgcs/www/atmchem.html

Extractions: > home Focus Areas Affiliates directory education ... outreach Theoretical studies of the greenhouse effect indicate that a rise in the level of the greenhouse gases will tend not only to warm the Earth's surface and the lower atmosphere but also to cool the stratosphere. This cooling of the stratosphere is expected to affect the ozone layer by decreasing ozone destruction in equatorial regions and increasing ozone destruction in polar regions. These effects would be added to the increased ozone destruction expected due to rising chlorofluorocarbon concentrations. The stratospheric cooling by the greenhouse gases combined with these ozone layer changes will in turn affect the circulation at this level and conceivably at lower levels also. Indeed, there is already some evidence that Antarctic ozone changes have been influencing the Southern Hemisphere springtime climate by delaying the final warming. CGCS researchers are extensively involved in laboratory and theoretical studies to address two general interrelated goals: to understand quantitatively the elementary chemical steps at the molecular level that enable reliable extrapolations to atmospheric conditions; and to understand the interrelationship between chemical and atmospheric processes in order to elucidate the relevant chemical reactions that affect the atmosphere on regional and global scales. Following are two areas of interest to CGCS researchers.
Atmospheric Chemistry Program
Research into regional and continental chemistry and the fate of tropospheric air pollutants, extracontinental and global chemistry and the fate of tropospheric air pollutants, and aerosol genesis.
http://gonzalo.er.anl.gov/ACP/

Extractions: Security and Privacy Notice Much of the science that had been planned for the Atmospheric Chemistry Program (ACP) will, in the future, be conducted under the Department of Energy's Atmospheric Science Program http://www.asp.bnl.gov . Beginning in Fiscal Year 2005, research will focus on radiative forcing of climate change by atmospheric aerosols. Please refer to the ASP web site for more information. The overall objective of the ACP is to provide DOE with advanced information on the atmospheric environment that is required for long-range energy planning. The research is carried out primarily at four DOE laboratories and approximately twelve universities and non-DOE labs. The thrusts of this research are on regional and continental chemistry and fate of tropospheric air pollutants, extracontinental and global chemistry and fate of tropospheric air pollutants, and aerosol genesis. Laboratory studies emphasize rate and equilibrium processes. Field studies are conducted with aircraft and surface measurements on reaction chemistry, advective influences on the chemical composition of chemistry, and air-surface exchange processes. Modeling efforts address both chemistry and dynamics on regional and global scales. The DOE Research Aircraft Facility What it Takes to Carry Out a Field Campaign (PDF)
MIT Integrated Framework: Climate
An atmospheric chemistry model and the 2DLO climate model are coupled to run To calculate atmospheric composition, the model of atmospheric chemistry
http://web.mit.edu/globalchange/www/climate.html

Extractions: Home Publications Personnel Models ... SEARCH The MIT Integrated Global System Model: Climate Component To represent the dynamics of climate within the MIT Framework , an initial task was to develop a computationally efficient model capable not only of simulating reasonably well the present climate but also of reproducing the climate change patterns predicted with 3D GCMs. The current MIT climate model couples a two-dimensional (2D) land- and ocean-resolving (LO) statistical-dynamical model of the atmosphere to a 3D ocean general circulation model (GCM). An atmospheric chemistry model and the 2D-LO climate model are coupled to run interactively and simultaneously, to provide predictions of the atmospheric concentration of radiatively and chemically important trace species. Details of the individual model components are provided in several publications The coupled climate and chemistry model depicted in the schematic is two-dimensional (latitude-altitude) with separate predictions over land and ocean at each latitude. Longitudinal variations are obtained from a combination of observed climate data and selected transient runs of three-dimensional climate models. The MIT climate model, with its 2D atmosphere/3D ocean, is capable of reproducing many characteristics of the current longitudinally-averaged climate, and its behavior and predictions are similar to those of more complex, fully 3D GCMs. Most significantly, it is twenty times faster than 3D models with similar latitudinal and vertical resolutions. Utilizing the simplified (2D atmosphere/3D ocean) climate model structure has allowed the Program to perform multiple model runs which provides a facile investigation of feedbacks between model components. The simplified climate component enables extensive testing of these phenomena, which would not be practical in a calculation incorporating a 3D chemistry/climate model. A 100-year integration of the latest version of the climate model requires 10 hours on a single 500 MHz CPU.
Atmospheric Chemistry Technical Area
Much of the work in atmospheric chemistry at the Pacific Northwest National Laboratory The US Department of Energy s atmospheric chemistry Program is a
http://www.pnl.gov/atmos_sciences/as_acp.html

Extractions: Atmospheric Chemistry Technical Area Motivation Atmospheric chemistry influences human health, climate, food production and, through its impact on visibility, our view of the world. Chemicals in the air affect us with each breath we take. Suspended particulates that form from gas-phase reactions affect the amount of solar energy reaching the earth's surface. Not only government, but private industry, has a vested interest in improving our knowledge of these processes. Much of the work in atmospheric chemistry at the Pacific Northwest National Laboratory has focused on the fate of energy-related pollutants (e.g., ozone, nitrogen oxides, sulfur) in the lower part of the atmosphere, beginning with their emission into the atmosphere and continuing to their deposition at the Earth's surface. Examples of past work include studies of radionuclide deposition, the long-range transport of sulfur plumes, mechanisms by which sulfate aerosol enters precipitation, homogeneous nucleation mechanisms for the formation of natural aerosols, and the production of ozone from NO x and hydrocarbons. Almost all of our work has involved a combination of field studies using state-of-the-art airborne instrumentation and computer modeling.
FSD: Atmospheric Science & Global Change: Research Capabilities
atmospheric chemistry influences human health, climate, food production and, Much of the work in atmospheric chemistry at the Pacific Northwest National
http://www.pnl.gov/atmospheric/research/chemistry.stm

Extractions: Atmospheric Chemistry Atmospheric chemistry influences human health, climate, food production and, through its impact on visibility, our view of the world. Chemicals in the air affect us with each breath we take. Suspended particulates that are both directly emitted into the atmosphere or form from chemical reactions in it affect the amount of solar energy reaching the earth's surface. Not only government, but private industry, has a vested interest in improving our knowledge of these processes and how to predict them. Much of the work in atmospheric chemistry at the Pacific Northwest National Laboratory has focused on the fate of energy-related pollutants, e.g., ozone, nitrogen oxides, sulfur, in the lower part of the atmosphere, beginning with their emission into the atmosphere and continuing to their deposition at the Earth's surface. Examples of past work include studies of radionuclide dispersion and deposition, the long-range transport of sulfur oxides, mechanisms governing the formation of "acid rain", nucleation of atmospheric aerosols, and the production of ozone from NOx and hydrocarbons. Almost all of these studies have involved a combination of field studies, laboratory experiments, and computer modeling.
Atmospheric Chemistry
Research activities include cloud physics and chemistry, aerosol chemistry and physics, wet and occult deposition, and urban pollution.
http://www.isao.bo.cnr.it/~chimatmo/atm_chem/
Chemistry@SUNY-ESF: Faculty Profile Dr. Dibble
Laser spectroscopy and computational chemistry for investigations of atmospheric chemistry site by Ted Dibble.
http://web.syr.edu/~tsdibble/dibble.html

Extractions: Research People Current Projects ... Links to other Sites The Dibble group uses lasers and high-end computers as tools to address questions such as: what are the degradation pathways of organic compounds in the polluted atmosphere? To what extent do particular compounds contribute to the formation of ozone, other air toxics, and particulates? (Answers to these questions are missing for most of the key compounds larger than butane!) The experimental work in Dr. Dibble's laboratory employs pulsed, tunable dye lasers to probe for stable and transient species. Both reaction kinetics and the spectroscopy of new species can be studied using two highly sensitive techniques: laser-induced fluorescence (LIF) and (soon) cavity ringdown spectroscopy . The computational work uses commercially available quantum chemistry programs to carry out ab initio and density functional calculations. These methods are used to map out thermochemical kinetics and to explore and interpret the spectroscopy of as-yet uncharacterized species. See the article about our computational work in Access , the magazine of the National Compuational Science Alliance.
2005 GRC On Atmospheric Chemistry
atmospheric chemistry Meets Public Policy Design of PM2.5 Control Strategies for The Chemistry of GasPhase Organic Carbon in a Polluted Atmosphere
http://www.grc.uri.edu/programs/2005/atmchem.htm

Extractions: "Atmospheric Chemistry Meets Public Policy: Design of PM2.5 Control Strategies for an Urban Area" MONDAY 7:30 am - 8:30 am Breakfast 8:30 am Photo 9:00 am - 12:30 pm MEASURING AND MODELING AEROSOLS AND THEIR IMPACT ON CLIMATE 9:00 am - 9:10 am Discussion Leader: Kimberley Prather (University of California-San Diego) 9:10 am - 9:55 am Jose-Luis Jimenez (University of Colorado-Boulder)
Dr. Hanwant B. Singh
Information about atmospheric chemistry research and the journal Atmospheric Environment.
http://geo.arc.nasa.gov/sgg/singh/

Extractions: HOME Research Goals and Collaborations Publications Field Missions INTEX-NA Summer 2004 Intensive ... IPY/POLARCAT White Paper Atmospheric Environment Scope Submissions Special Issues Manuscript Status ... Links Dr. Hanwant B. Singh Atmospheric Environment and a 2005 Fellow of the World Innovative Foundation. Contact information: Dr. Hanwant B. Singh
2001 GRC On ATMOSPHERIC CHEMISTRY
atmospheric chemistry. SALVE REGINA UNIVERSITY NEWPORT, RI JUNE 1722, 2001. Stanley P. Sander, Chair Barbara J. Finlayson-Pitts, Vice-Chair
http://www.grc.uri.edu/programs/2001/atmochem.htm

Extractions: Barbara J. Finlayson-Pitts , Vice-Chair Visit the Conference Home Page for more information. Financial support from the following organizations and agencies is gratefully acknowledged: SUNDAY, JUNE 17 2:00-11:00 p. m. 6:00 p.m. Dinner Welcome Satellite Measurements of the Troposphere 7:30 p. m. Introduction by Discussion Leader A. Thompson R. Kahn
Welcome To The Atmospheric Sciences Division
Atmospheric Sciences Division of Brookhaven National Laboratory, USA. 30 scientists working mainly in atmospheric chemistry, the site provides links to personnel, publications, and research activities.
http://www.ecd.bnl.gov
Atmospheric Chemistry Research Group
Isotopes in the atmosphere Atmospheric Radiationi IR UV Atmospheric Radiationi IR UV Clean AIr Cape Grim UoW Home page Dept. of Chemistry
http://www.uow.edu.au/science/research/acrg/
Climate Change 2001: The Scientific Basis
4.5.2 Impacts of Physical Climate Change on atmospheric chemistry 4.6 Overall Impact of Global atmospheric chemistry Change References
http://www.grida.no/climate/ipcc_tar/wg1/127.htm
Jürgen Lobert's World Of Science & Arts
A site for atmospheric chemistry and earth science. J.M. Lobert's projects, publications, data and personal information and links for further studies.
http://www.jurgenlobert.net/

Extractions: //Top Nav Bar I v2.1- By Constantin Kuznetsov Jr. (script@esolutiononline.com) //Modified by Dynamic Drive for NS6/Opera6 compatibility and code streamlining March 4th, 2002 //Visit http://www.dynamicdrive.com for this script var keepstatic=1 //specify whether menu should stay static (works only in IE4+) var menucolor="#000000" //specify menu color var submenuwidth=110 //specify sub menus' color Search WWW Search JurgenLobert.net Projects
Committee On Atmospheric Chemistry; (COMPLETED)
Project Title Committee on atmospheric chemistry; (COMPLETED) Date Posted Posted 06/22/99 Project Identification Number BASC-U-99-03-A Major Unit
http://www4.nas.edu/cp.nsf/0/3456dc3afb95343285256799000b0fd1?OpenDocument
Chem541 Atmospheric Chemistry
atmospheric chemistry in a changing world an integration and synthesis of a atmospheric chemistry and physics from air pollution to climate change
http://teaching.ust.hk/~chem541/

Extractions: Office hour: walk-in or by appointment. Dr. Song GAO Rm 4535, Tel: 2358-7246, chsgao@ust.hk Course Description A fundamental introduction to the physical and chemical processes determining the composition of the atmosphere and its implications for climate, ecosystems, and human welfare. Nitrogen, oxygen, carbon, sulfur geochemical cycles. Climate and the greenhouse effect. Stratospheric ozone. Oxidizing power of the atmosphere. Regional air pollution: aerosols, smog, and acid rain. Textbook Introduction to Atmospheric Chemistry, Daniel J. Jacob, Princeton University Press, 1999.
US NSF - Directorate For Geosciences (GEO)
Parisa Ariya Research Group HomepageThe Ariya atmospheric chemistry Research Group B.Sc. (York University, 1992); Ph.D. (Centre for atmospheric chemistry, York University, 1996)
http://www.geo.nsf.gov/cgi-bin/geo/showprog.pl?id=11&div=atm
Atmospheric Chemistry Calculators And Links
Spreadsheets and Related Links for atmospheric chemistry. Theodore S. Dibble atmospheric chemistry Links of Interest to the Dibble Group
http://www.esf.edu/chemistry/dibble/AtmosChemCalc.htm

Extractions: tsdibble[at]syr.edu Rate Constants for Termolecular Reactions - This Excel spreadsheet is designed to take input from the Jet Propulsion Laboratory Data Evaluation (see link below) and compute effective second order rate constants for pressure-dependent reactions. The spreadsheet has notes which explain how to use the data from the JPL Data Evaluation. (JPL Data Evaluation #14) - See pages 2.1 through 2.3 (pp. 134-136 of the pdf file) of this document for instructions, and pages 2.4 -2.7 for input parameters. Calculating Solar Zenith Angle - Excel file fof calculating Solar Zenith Angle (SZA) . Requires input of date, Greenich Mean Time, latitude, and longitude. Latitude and Longitude can be determined via these links for world cities and for US cities or zip codes Calculating Photolysis Rates - Excel file for ground-level calculations at various solar zenith angles.

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