His scientific interests lie mostly in Environmental science, Aerosol, Atmospheric sciences, Meteorology and Remote sensing. His Environmental science research spans across into subjects like Climatology, Particle-size distribution, Taiga, Diurnal temperature variation and Albedo. His Aerosol study integrates concerns from other disciplines, such as Absorption, Troposphere and Particle number.
His Atmospheric sciences study combines topics from a wide range of disciplines, such as Cloud droplet, Cloud condensation nuclei, Nucleation, Arctic and Boundary layer. His study in the field of Atmosphere, Air quality index and Aerosol cloud is also linked to topics like Environmental policy and General Circulation Model. His work on Lidar is typically connected to Radar as part of general Remote sensing study, connecting several disciplines of science.
Mika Komppula focuses on Environmental science, Aerosol, Atmospheric sciences, Lidar and Remote sensing. Mika Komppula incorporates a variety of subjects into his writings, including Environmental science, Meteorology, Atmosphere, Troposphere, Raman lidar and Taiga. His research in Aerosol intersects with topics in Climatology, Particle-size distribution and Particle number.
His studies deal with areas such as Planetary boundary layer, Boundary layer, Air mass and Nucleation as well as Atmospheric sciences. His studies deal with areas such as Wavelength, Radiative transfer, Radiosonde and Numerical weather prediction as well as Lidar. His Remote sensing research includes elements of Polarization, Raman spectroscopy and AERONET.
Mika Komppula mostly deals with Environmental science, Lidar, Aerosol, Atmospheric sciences and Remote sensing. Environmental science is integrated with Ice crystals, Ceilometer, Mass concentration, Climatology and Sun photometer in his study. The various areas that Mika Komppula examines in his Lidar study include Polarization, Troposphere and Depolarization.
His Aerosol study combines topics in areas such as Wavelength, Atmosphere, Process engineering and Southern Hemisphere. Mika Komppula has researched Atmospheric sciences in several fields, including Aethalometer and Aerosol absorption. His Remote sensing research incorporates themes from Classification methods, Spectrometer, Molar absorptivity and Mahalanobis distance.
His main research concerns Lidar, Environmental science, Aerosol, Atmospheric sciences and Wavelength. His studies in Lidar integrate themes in fields like Atmosphere, Scattering, Stratosphere and Latitude. His Atmosphere research is multidisciplinary, incorporating perspectives in Mineral dust, Troposphere, Numerical weather prediction and Radiosonde.
His work on Classification methods expands to the thematically related Aerosol. Mika Komppula has included themes like Depolarization ratio, Ice crystals, Angstrom exponent, Radiative transfer and Subarctic climate in his Atmospheric sciences study. His Wavelength research is multidisciplinary, incorporating elements of Molar absorptivity, Sun photometer, Polarization, Raman spectroscopy and Daytime.
This overview was generated by a machine learning system which analysed the scientist’s body of work. If you have any feedback, you can contact us here.
High Natural Aerosol Loading over Boreal Forests
P. Tunved;H.-C. Hansson;V.-M. Kerminen;J. Ström.
Science (2006)
General overview: European Integrated project on Aerosol Cloud Climate and Air Quality interactions (EUCAARI) - integrating aerosol research from nano to global scales
M. Kulmala;A. Asmi;H. K. Lappalainen;H. K. Lappalainen;U. Baltensperger.
Atmospheric Chemistry and Physics (2009)
Characterization and intercomparison of aerosol absorption photometers: result of two intercomparison workshops
T. Müller;J.S. Henzing;G. De Leeuw;G. De Leeuw;G. De Leeuw;A. Wiedensohler.
Atmospheric Measurement Techniques (2011)
Direct observational evidence linking atmospheric aerosol formation and cloud droplet activation
Veli-Matti Kerminen;Heikki Lihavainen;Mika Komppula;Yrjö Viisanen.
Geophysical Research Letters (2005)
Diurnal and annual characteristics of particle mass and number concentrations in urban, rural and Arctic environments in Finland
Lauri Laakso;Tareq Hussein;Päivi Aarnio;Mika Komppula.
Atmospheric Environment (2003)
The automated multiwavelength Raman polarization and water-vapor lidar Polly XT : the neXT generation
Ronny Engelmann;Thomas Kanitz;Holger Baars;Birgit Heese.
Atmospheric Measurement Techniques (2016)
An overview of the first decade of Polly NET : an emerging network of automated Raman-polarization lidars for continuous aerosol profiling
Holger Baars;Thomas Kanitz;Thomas Kanitz;Ronny Engelmann;Dietrich Althausen.
Atmospheric Chemistry and Physics (2016)
Explaining global surface aerosol number concentrations in terms of primary emissions and particle formation
D. V. Spracklen;K. S. Carslaw;J. Merikanto;G. W. Mann.
Atmospheric Chemistry and Physics (2010)
Portable Raman Lidar Polly XT for Automated Profiling of Aerosol Backscatter, Extinction, and Depolarization
Dietrich Althausen;Ronny Engelmann;Holger Baars;Birgit Heese.
Journal of Atmospheric and Oceanic Technology (2009)
One year boundary layer aerosol size distribution data from five nordic background stations
P Tunved;HC Hansson;M Kulmala;P Aalto.
Atmospheric Chemistry and Physics (2003)
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