Measuring atmospheric composition change
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Authors
Laj, P.
Klausen, J.
Bilde, M.
Plaß-Duelmer, C.
Pappalardo, G.
Clerbaux, C.
Baltensperger, U.
Hjorth, J.
Simpson, D.
Reimann, S.
Coheur, P.-F.
Richter, A.
De Mazière, M.
Rudich, Y.
McFiggans, G.
Torseth, K.
Wiedensohler, A.
Morin, S.
Schulz, M.
Allan, J.D.
Attié, J.-L.
Barnes, I.
Birmili, W.
Cammas, J.P.
Dommen, J.
Dorn, H.-P.
Fowler, D.
Fuzzi, S.
Glasius, M.
Granier, C.
Hermann, M.
Isaksen, I.S.A.
Kinne, S.
Koren, I.
Madonna, F.
Maione, M.
Massling, A.
Moehler, O.
Mona, L.
Monks, P.S.
Müller, D.
Müller, T.
Orphal, J.
Peuch, V.-H.
Stratmann, F.
Tanré, D.
Tyndall, G.
Abo Riziq, A.
Van Roozendael, M.
Villani, P.
Wehner, B.
Wex, H.
Zardini, A.A.
Discipline
Earth and related Environmental sciences
Subject
Analytical techniques
Atmospheric changes
Atmospheric research
Atmospheric systems
Climate warming
Complex model
Earth observation satellites
Further development
Ground based
In-situ
Information concerning
Innovative technology
Instrumental tools
Laboratory techniques
Observing systems
Passenger aircrafts
Scientific advances
Scientific findings
Validation of numerical model
Air quality
Aircraft
Atmospheric chemistry
Atmospherics
Climatology
Instruments
Remote sensing
Atmospheric composition
ammonia
carbon monoxide
hydrogen peroxide
hydroxyl radical
methane
nitrate
ozone
radioisotope
reactive nitrogen species
stable isotope
sulfate
sulfur dioxide
volatile organic compound
accuracy assessment
aerosol
air quality
atmospheric chemistry
chemical composition
future prospect
ground-based measurement
in situ measurement
innovation
instrumentation
laboratory method
measurement method
numerical model
observational method
optimization
prediction
remote sensing
research work
warming
air analysis
air pollution
air sampling
airborne particle
aircraft
atmospheric transport
climate change
cloud
greenhouse effect
infrared spectroscopy
light scattering
mass spectrometry
nonhuman
online analysis
particle size
particulate matter
pollution monitoring
precipitation
prediction
priority journal
review
secondary organic aerosol
thermodynamics
troposphere
wettability
Audience
Scientific
Date
2009Metadata
Show full item recordDescription
Scientific findings from the last decades have clearly highlighted the need for a more comprehensive approach to atmospheric change processes. In fact, observation of atmospheric composition variables has been an important activity of atmospheric research that has developed instrumental tools (advanced analytical techniques) and platforms (instrumented passenger aircrafts, ground-based in situ and remote sensing stations, earth observation satellite instruments) providing essential information on the composition of the atmosphere. The variability of the atmospheric system and the extreme complexity of the atmospheric cycles for short-lived gaseous and aerosol species have led to the development of complex models to interpret observations, test our theoretical understanding of atmospheric chemistry and predict future atmospheric composition. The validation of numerical models requires accurate information concerning the variability of atmospheric composition for targeted species via comparison with observations and measurements. In this paper, we provide an overview of recent advances in instrumentation and methodologies for measuring atmospheric composition changes from space, aircraft and the surface as well as recent improvements in laboratory techniques that permitted scientific advance in the field of atmospheric chemistry. Emphasis is given to the most promising and innovative technologies that will become operational in the near future to improve knowledge of atmospheric composition. Our current observation capacity, however, is not satisfactory to understand and predict future atmospheric composition changes, in relation to predicted climate warming. Based on the limitation of the current European observing system, we address the major gaps in a second part of the paper to explain why further developments in current observation strategies are still needed to strengthen and optimise an observing system not only capable of responding to the requirements of atmospheric services but also to newly open scientific questions. © 2009 Elsevier Ltd. All rights reserved.
Citation
Laj, P.; Klausen, J.; Bilde, M.; Plaß-Duelmer, C.; Pappalardo, G.; Clerbaux, C.; Baltensperger, U.; Hjorth, J.; Simpson, D.; Reimann, S.; Coheur, P.-F.; Richter, A.; De Mazière, M.; Rudich, Y.; McFiggans, G.; Torseth, K.; Wiedensohler, A.; Morin, S.; Schulz, M.; Allan, J.D.; Attié, J.-L.; Barnes, I.; Birmili, W.; Cammas, J.P.; Dommen, J.; Dorn, H.-P.; Fowler, D.; Fuzzi, S.; Glasius, M.; Granier, C.; Hermann, M.; Isaksen, I.S.A.; Kinne, S.; Koren, I.; Madonna, F.; Maione, M.; Massling, A.; Moehler, O.; Mona, L.; Monks, P.S.; Müller, D.; Müller, T.; Orphal, J.; Peuch, V.-H.; Stratmann, F.; Tanré, D.; Tyndall, G.; Abo Riziq, A.; Van Roozendael, M.; Villani, P.; Wehner, B.; Wex, H.; Zardini, A.A. (2009). Measuring atmospheric composition change. , Atmospheric Environment, Vol. 43, Issue 33, 5351-5414, DOI: 10.1016/j.atmosenv.2009.08.020.Identifiers
scopus: 2-s2.0-70350060209
Type
Article
Peer-Review
Yes
Language
eng