FMI’S CONTRIBUTION TO THE ASCOS EXPEDITION IN 2008

Slides:



Advertisements
Similar presentations
D e t e c t o r s f o r H P L C.
Advertisements

Sino-Finnish workshop, Tampere, 15 August, 2013 Chemical characteristics of combustion aerosol particles Risto Hillamo 1, Topi Rönkkö 2 and Liisa Pirjola.
NETCARE – POLAR Two aircraft campaigns – summer 2014, spring 2015 (spring 2016 in proposal) Close collaboration with Alfred Wegener Institute (Andreas.
Optical Properties of Aerosol Particles Introduction Atmospheric aerosol particles play a significant role in determining Earth's climate, through their.
Aerosol Optical Properties via Cavity Ring-Down Technology Virtual Impactor for Sub-micron Aerosol Particles A. A. Boľshakov, A. W. Strawa, A. G. Hallar.
AMF2 Instruments and Measurements: AOS The following instruments are planned to be deployed aboard the R/V Ron Brown: Aerosol Observing System (AOS) consisting.
Nanosafety assessment methodology Kaarle Hämeri Professor in Aerosol physics University of Helsinki Finnish Institute for Occupational Health.
Multiwavelength Photoacoustic Measurements of Light Absorption and Scattering by Wood Smoke More Specific Title: Evidence for light absorption by organic.
General: Very likely both aircraft are to be based at Arica. The UK recce is early April, both Arica and Iquique will be visited. Total of 120 flight hours.
IAQ Sampling Document a condition or state of the space –Adequate ventilation –Comfort Identify source of contamination –Leakage –Products.
FMI’s special measurement sites - Jokioinen and Sodankylä 1)Basic infrastructure and routine operations 2)Special instrumentation and research Sodankylä.
TReSS (Transportable Remote Sensing Station) in Tamanrasset Overview of TReSS Status of implementation on April 1 st 2006 Operations in the framework of.
Dornier Aircraft Island Aviation Services, Ltd..
Robert Wood, University of Washington many contributors VOCALS-REx Facility Status – NSF C-130.
Atmosphere Sciences Instrumentation Lab Organized by David Delene - November 20, 2008 Overview of Instruments – 3:00 Clifford Hall 470 Lab Demonstrations.
Air QualityJanuary AMS Short Course on Instrumentation 1 Air Quality Monitoring Melanie A. Wetzel Desert Research Institute University of Nevada,
Introduction to Thermo Electron Instruments Robert Kinsella Sky Patton Thermo Electron.
Lead Fluxes Andreas Held, Caroline Leck, Ian Brooks, Barbara Brooks, Sarah Norris.
ASCOS ice camp Oden ”Met Alley & Ocean ”Open Lead” 5700 meter 3200 meter.
Measurement of total mass concentration. 1. Sampling probe - Isokinetic or sampling from still air 2. Flow rate - Rotameter or digital flowmeter 3. Filter.
Sampling and Measurement for Respirable Particulates.
Characterization of Aerosol Physical, Optical and Chemical Properties During the Big Bend Regional Aerosol and Visibility Observational Study (BRAVO) Jenny.
Aerosol Obsveration System (AOS) in the MAGICal experiment Gunnar Senum BNL First MAGIC Science Workshop.
1 β Attenuation Method PM10/2.5 Automated Dichotomous Monitor SPM-613D β Attenuation Method PM10/2.5 Automated Dichotomous Monitor Model SPM-613D ■SPM.
SPACCS 2008 Storm Peak Aerosol and Cloud Characterization Study Storm Peak Laboratory, Steamboat Springs, CO Study: March 24 – April 14, 2008 Scientific.
Centre for Astroparticle Physics and Space Sciences – A National Facility at Bose Institute Sanjay K. Ghosh Bose Institute.
ASCOS Planned Aerosol Instrumentation Aboard Oden Douglas Orsini Jost Heintzenberg Leibniz Institute for Tropospheric Research Leipzig, Germany.
© TAFE MECAT 2008 Chapter 6(b) Where & how we take measurements.
ACKNOWLEDGEMENTS: We gratefully acknowledge funding from the NOAA Climate Program, and thank the Dr. Brent Holben for establishing and maintaining the.
The Tiksi Hydrometeorological Observatory Program Report after trip on September 2009 U.S. Science Contact:
Class presentation Applications of the Helsinki Test Bed CL31 Ceilometer data Anu-Maija Sundström University of Helsinki Division of Atmospheric.
About the status and outlook for OMI Surface UV product OMI Science Team Meeting Helsinki, June 24-27, 2008 Antti Arola.
Boundary Layer Profiling using various techniques for air quality assessments Dave DuBois Ilias Kavouras and George Nikolich Division of Atmospheric Sciences.
Flight schedule and staff limitations Hardpoint allocation and cabin layout Time synchronization Flight issues – expectation around convection Sensor groups.
Observations of aerosol concentration, properties and chemical composition Sandro Fuzzi Institute for Atmospheric Sciences and Climate National Research.
Ministry of Home Affairs, Housing and Environment Implementation of Malé Declaration on Control and Prevention of Air Pollution and Its Likely Transboundary.
Overview of the Canadian Contribution to INTEX-B Randall Martin, Aaron van Donkelaar, Thomas Walker, Tom Duck Dalhousie University Richard Leaitch, Anne.
Measurement Example III Figure 6 presents the ozone and aerosol variations under a light-aerosol sky condition. The intensity and structure of aerosol.
INSTRUMENTATION DMPS – H-TDMA – CCN COUNTER –
Implementation of Male’ Declaration on Control and Prevention of Air Pollution and its Likely Transboundary Effects for South Asia MALDIVES 12 – 13 September.
ASCOS planning meeting, 8 th April 2008 IAC ETH Single Particle Chemical Characterization and Measurements of Cloud Condensation Nuclei Berko Sierau, Maria.
ACKNOWLEDGEMENTS: Rob Albee, Jim Wendell, Stan Unander, NOAA Climate Forcing program, DOE ARM program, NASA, Met. Service Canada, Chinese Met. Agency,
Institute for Atmospheric Science SCHOOL OF EARTH AND ENVIRONMENT UNIVERSITY OF LEEDS Tethered Soundings & Profiling Cathryn Birch Ian Brooks.
Atmospheric Particles  Size range: to 50  m,  m particle contains ~1000 molecules  Concentration ranges: cm -3 =
BROADBAND INSTRUMENTS ENEA/Univ. of Valencia TypeModelMeasurementSpectral interval FOVAcquisition PyranometerCMP21Global SW↓ irradiance nm180°30.
Observations at the Lampedusa supersite P. Formenti, A. G. di Sarra, and the ChArMex Lampedusa team.
PRINCIPLE OF OPERATION
Introduction Instruments designed and fabricated at the Desert Research Institute, Reno Emphasis on the Integrating Nephelometer for scattering measurements.
Representing the optical properties of black carbon in the integrated WRF-CMAQ system Francis S. Binkowski, UNC David C. Wong, US EPA.
AMF2 Installation on NOAA Ship Ron Brown – Overview – AMF2 Operations Team Argonne National Laboratory Los Alamos National Laboratory CalWater 2015 – ACAPEX.
© Crown copyright Met Office Cloud observations at Cardington Simon Osborne (OBR, Cardington) OBR Conference, 11 th -13 th December 2012.
Solar radiation measurement networks in Taiwan -With contributions from- Central Weather Bureau CWB) Environmental Protection Administration (EPA) Sheng-Hsiang.
University of Hawai`i, Hawai`i Group for Environments Aerosol Research School of Ocean and Earth Science and Technology A. Clarke, S. Howell, C. M c Naughton,
BelAtmos Atmospheric Composition Measurements at Princess Elisabeth Station ROYAL METEOROLOGICAL INSTITUTE INSTITUTE of SPACE AERONOMY GHENT UNIVERSITY.
RUG sampling activities at Fazenda Nossa Senhora Willy Maenhaut Ghent University (RUG) Institute for Nuclear Sciences Department of Analytical Chemistry.
Particle Chemistry Department Aerosol Measurements during AQABA
Jean SCIARE, George BISKOS,
Aerosol observations at Cardington
Tethered Balloon Activities
GAP Measurements and Instrumentation
Aerosol chemistry studies at the SMEARIII station in Kumpula
Introduction to Tisch Instruments
Multiwavelength Photoacoustic Measurements of Light Absorption and Scattering by Wood Smoke More Specific Title: Evidence for light absorption by organic.
Sample Problem c =    c  =  3.00  108 m/s  = 6.0  /s
Measurements at Whistler Peak Intex-B, Spring 2006
Measuring microphysical, chemical and optical properties of aerosols aboard the NCAR/NSF C-130 during VOCALS Studying size-resolved aerosol cloud interactions.
Risto Hillamo, FMI PM1 composition measurements with the Aerodyne Aerosol Chemical Speciation Monitor (ACSM) Risto Hillamo, Minna.
UK (CEH) and ACTRIS WP3: In-situ chemical, physical and optical properties of aerosols WP4: Trace gases networking: Volatile organic carbon and nitrogen.
EMEP-Intensive-Measuring-Campaigns Summer 06 and Winter 07
Meteorological Instrumentation and Observations
Presentation transcript:

FMI’S CONTRIBUTION TO THE ASCOS EXPEDITION IN 2008 Antti Hyvärinen, Hannele Hakola, Risto Hillamo, Veli-Matti Kerminen, Esko Kyrö, Gerrit de Leeuw, Heikki Lihavainen, Ulla Makkonen, Outi Meinander, Jussi Paatero & Jouni Pulliainen Finnish Meteorological Institute 3.1.2019

HIGH-VOLUME FILTER SAMPLER laboratory analysis of radionuclides (lead-210 and beryllium-7) elemental and organic carbon (EC/OC) - 7th deck 400 VAC 3-phase, 3 kW 3.1.2019

LOW-VOLUME FILTER SAMPLER, 1 or 2 units laboratory analysis of trace metals (ICP-MS) organic compounds (LC-MS) - 7th deck 230 VAC, 50 Hz, 300 W 3.1.2019

FLASK AND ADSORBENT TUBE SAMPLERS - laboratory analysis of organic compounds (LC-MS, GC-MS) - portable samplers 3.1.2019

FORWARD-SCATTERING SPECTROMETER PROBE (FSSP) - Cloud droplet size distribution - 7th deck, laptop computer indoors - 230 VAC, 50 Hz, 300 W 3.1.2019

CEILOMETER - to support the fssp data - range 25000 feet (~ 8 km) - 7th deck, data logger and laptop computer indoors - 230 VAC, 50 Hz, 300 W 3.1.2019

VISIBILITY METER - to support the fssp data, range 0-50 km - 7th deck - joint data logger and laptop computer with the ceilometer - 230 VAC, 50 Hz, 300 W 3.1.2019

SCINTILLATION GAMMA SPECTROMETER - Measurement of external radiation (ion production rate) - 7th deck, desktop computer indoors - 230 VAC, 50 Hz, 250 W 3.1.2019

NILU-UV SENSOR Measurement of UV radiation in 5 channels Measurement of photosynthetically active radiation (PAR) 7th deck with a good horizon, on ice (met. village) during the drift - undisturbed ice/snow cover for albedo measurements 230 VAC, 50 Hz, 100 W 3.1.2019

RADON MONITOR continuous measurement of radon-222 7th deck, own inlet in addition a computer and a pump Electricity 110/230VAC, 50/60 Hz) has to be checked Pump has to be checked 3.1.2019

AEROSOL PARTICLE SIZE DISTRIBUTION Differential mobility particle sizer (DMPS) for particles from >5-8 nm to 560 nm suggested location: 4th deck, aerosol sampling manifold requires ~250 W, 230VAC 1-phase requires a Ni-63 source requires n-butanol 3.1.2019

AEROSOL PARTICLE SIZE DISTRIBUTION APS TSI 3321 Particles from ~0.5 μm – 20 μm (well 10 μm since the PM10 inlet) In 4th deck, gas sampling manifold requires ~250 W, 230VAC 1-phase 3.1.2019

MERCURY ANALYSER continuous measurement of total gaseous mercury (TGM) requires argon 6.0 as carrier gas 4th deck, gas sampling manifold in addition a laptop computer 230 VAC, 50 Hz, 250 W 3.1.2019

OZONE MONITOR continuous measurement of ozone support of Hg measurements 4th deck, gas sampling manifold in addition a laptop computer 230 VAC, 50 Hz, 250 W 3.1.2019

SOUNDING GROUND STATION receiving of data from PTU, ozone and radioactivity sondes 7th deck, indoors plus a laptop computer power 230 VAC, 50 Hz, 200 W two antennas with a good horizon Helium (technical grade) for the balloons 3.1.2019

OZONE SOUNDINGS vertical profile of ozone concentration 3.1.2019

RADIOACTIVITY SOUNDINGS vertical profile of dose rate/ion production rate 3.1.2019

Bubble measurement 3.1.2019

To be negotiated... 3.1.2019

Laser particle counter Grimm Model 180 (J. Paatero) measures large particles (0.25-10 µm) requires its own inlet suggested location: in its own weather shelter on the 7th deck (or on the roof of a container on the 4th deck) requires ~250 W, 230VAC 3.1.2019

AEROSOL CHEMISTRY (R. Hillamo) 2 SDI's, one for ions and the other for OC/EC A Dekati 4-stage impactor at 80 LPM for aerosol mass closures Virtual impactor, Dp < 1.3 µm and Dp > 1.3 µm ...followed by laboratory analysis in the FMI 3.1.2019

AEROSOL OPTICS (R. Hillamo) Nephelometer, 3 wavelengths PSAP, 3 wavelengths Aethalometer, 7 wavelengths Microtops sunphotometer, 5 wavelengths 3.1.2019