Air monitoring data collection on moving platforms – an instrumented person, bicycle, or vehicle – is now conducted frequently by researchers and citizen.

Slides:



Advertisements
Similar presentations
ODOT’s Public Involvement Process PI and the Project Development Process Minimum PI Requirements.
Advertisements

1 PM NAAQS: Update on Coarse Particle Monitoring and Research Efforts Lydia Wegman, Office of Air Quality Planning & Standards, EPA Presentation at the.
Monarch Larva Monitoring Project Goals and Roles.
The Human Dimension Renee A. McPherson Oklahoma Climatological Survey & The Oklahoma Mesonet Renee A. McPherson Oklahoma Climatological Survey & The Oklahoma.
Self-Service Business Intelligence for the Product Management Department (Concurrency Corporation)
Halûk Özkaynak US EPA, Office of Research and Development National Exposure Research Laboratory, RTP, NC Presented at the CMAS Special Symposium on Air.
Symposium on Digital Curation in the Era of Big Data: Career Opportunities and Educational Requirements Workforce Demand and Career Opportunities From.
© 2009 Rochester Institute of Technology Geospatial Intermodal Freight Transportation (GIFT)
Briefing for the Upper Colorado River Basin Pilot Update Meeting, February 24, 2011.
Graphic Vision of Environment Threat in New Orleans Area after Katrina Student: Ke Yang Mentors: Dr. Wendy Zhang, Dr. Ju Chou COMPUTER SCIENCE, COLLEGE.
NASA ARC Project Web-based Geographic Information Services and Analytic Tools for Natural Habitat Monitoring and Management Department of Geography, San.
F UTURE T RENDS IN GIS. Compared to 10 Years Ago  acquiring data for a new GIS is no longer a major problem.  GPS has become a major sources of new.
RGS-IBG Online CPD course in GIS Exploring GIS Software Session 2.
ArcGIS Extensions Expanding the Use of ArcGIS
Distributed Data Analysis & Dissemination System (D-DADS) Prepared by Stefan Falke Rudolf Husar Bret Schichtel June 2000.
Multi-Agency Radiological Laboratory Analytical Protocols Manual: MARLAP Presentation to the Radiation Advisory Committee/Science Advisory Board April.
California Common Operating Picture (Cal COP) for Public Safety
Office of Research and Development National Exposure Research Laboratory, Atmospheric Modeling Division, Applied Modeling Research Branch October 8, 2008.
Kening Wang, Charles Stegman, Sean W. Mulvenon, and Yanling Xia University of Arkansas, Fayetteville, AR, Using Kriging and Interactive Graphics.
General Overview as Outlined in 2013 GAP Guidance Desirae Roehl – ANTHC Healthy Village Env. Program
Delivery of Forecasted Atmospheric Ozone and Dust for a Public Health Decision-Support System-Architecture and Functionality William B. Hudspeth, Jeff.
ACKNOWLEDGEMENTS We are grateful to the MOPITT team, especially the groups at University of Toronto and the National Center for Atmospheric Research (NCAR),
1.Knowledge management 2.Online analytical processing 3. 4.Supply chain management 5.Data mining Which of the following is not a major application.
AIRNow-International The future of the United States real-time air quality reporting and forecasting program and GEOSS participation John E. White U.S.
Database and Analytical Tool Development for the Management of Data Derived from US DOE (NETL) Funded Fine Particulate (PM 2.5 ) Research.
AIRNow Web Services Data to Go! Prepared by Steven A. Ludewig, Timothy S. Dye Sonoma Technology, Inc. Petaluma, CA John E. White U.S. Environmental Protection.
Jerold A. Herwehe Atmospheric Turbulence & Diffusion Division Air Resources Laboratory National Oceanic and Atmospheric Administration 456 S. Illinois.
Introduction to ArcGIS for Environmental Scientists Module 1 – Data Visualization Chapter 1 – GIS Basics.
NEPTUNE Canada Workshop Oceans 2.0 Project Environment NEPTUNE Canada DMAS Team Victoria, BC February 16, 2009.
Support the spread of “good practice” in generating, managing, analysing and communicating spatial information Introduction to GIS for the Purpose of Practising.
Virtual Ice Charting System Archive Browser Interface Distribution IngestProduction Ice Analyst Application Database Click on the boxes for more information.
0 Christopher A. Pangilinan, P.E. Special Assistant to the Deputy Administrator Research and Innovative Technology Administration, ITS Joint Program Office.
Fine scale air quality modeling using dispersion and CMAQ modeling approaches: An example application in Wilmington, DE Jason Ching NOAA/ARL/ASMD RTP,
Automated Weather Observations from Ships and Buoys: A Future Resource for Climatologists Shawn R. Smith Center for Ocean-Atmospheric Prediction Studies.
VITO----SYEPA Air quality monitoring and forecasting in China: Shenyang Shenyang EMC.
Sea Ice Mapping Systems Archive Browser Interface Distribution IngestProduction Ice Analyst Application Database Henrik Steen AndersonDMI Paul SeymourNIC.
Jonas Eberle 25th March Automatization of information extraction to build up a crowd-sourced reference database for vegetation changes Jonas Eberle,
University of North Carolina at Chapel Hill Carolina Environmental Programs Models-3 Adel Hanna Carolina Environmental Program University of North Carolina.
CA-OES CAL(IT)2 Feb. 20, 2002 Internet GIServices
March 2004 At A Glance autoProducts is an automated flight dynamics product generation system. It provides a mission flight operations team with the capability.
Workshop on International Standards, Contemporary Technologies and Regional Cooperation, Noumea, New Caledonia, 04–08 February 2008 Software Options for.
Proposed Revisions to the Guideline on Air Quality Models
Distributed Data Analysis & Dissemination System (D-DADS ) Special Interest Group on Data Integration June 2000.
Evaluating temporal and spatial O 3 and PM 2.5 patterns simulated during an annual CMAQ application over the continental U.S. Evaluating temporal and spatial.
Fire Emissions Network Sept. 4, 2002 A white paper for the development of a NSF Digital Government Program proposal Stefan Falke Washington University.
Network Plan - Not a new requirement [40 CFR 58.10(a)] Due every year Simple accounting of changes expected for that year Network Assessment – Once every.
GOESUSER 5/23/01 GOES Users Conference - Role of Training Anthony Mostek - NOAA/NWS/Office of Climate, Water and Weather Services May 23, 2001.
Patterns and Trends CE/ENVE 424/524. Classroom Situation Option 1: Stay in Lopata House 22 pros: spacious room desks with chairs built in projector cons:
WHAT IS THE CHEROKEE NATION? Cherokee Nation Air Quality Data Management Concepts for Quality Data Collection Ryan Callison.
Air pollutants, such as aerosols and various trace gases, are transported on a hemispheric or global scale. The Task Force on Hemispheric Transport of.
Environmental GIS Nicholas A. Procopio, Ph.D, GISP
Spatial statistics What is spatial statistics?  Refers to a very broad collection of methods and techniques of visualization, exploration and analysis.
16-1 PC-HYSPLIT WORKSHOP Workshop Agenda Introduction to HYSPLIT Introduction.ppt Model Overview Model_Overview.ppt Meteorological Data Meteorological_Data.ppt.
LabSpeed ™ Data Management software LabSpeed ™ Data Management Software.
Air Sensors for Science, Technology, Engineering and Math Outreach Karoline Johnson 1, Bill Mitchell 2, Gayle Hagler 2, Katie Lubinsky 1, Ann Brown 3,
SAP BO ONLINE TRAINING B Y H YDERABADSYS O NLINE T RAINING Contact Us: INDIA: USA:
Federal Land Manager Environmental Database (FED) Overview and Update June 6, 2011 Shawn McClure.
7. Air Quality Modeling Laboratory: individual processes Field: system observations Numerical Models: Enable description of complex, interacting, often.
ECoastal Training USACE Coastal CoP Meeting and Workshop eCoastal in a Nutshell: An Introduction to the eCoastal Program & Custom Applications Rose Dopsovic.
SLCP Benefits Toolkit:
Multi-year Trends and Event Response
AERLINE: Air Exposure Research model for LINE sources
Federal Land Manager Environmental Database (FED)
NASA ROSES 2007: Decision Support through Earth Science Research Results Improving an Air Quality Decision Support System through the Integration of Satellite.
Transportation Research Institute (IMOB)-Universtiet Hasselt
Visualization and Analysis of Air Pollution in US East Coast Cities
Enterprise Program Management Office
J. Burke1, K. Wesson2, W. Appel1, A. Vette1, R. Williams1
EPA/OAQPS Pollutant Emissions Measurement Update 2019
Energy & Materials Flow & Cost Tracker (EMFACT)
Presentation transcript:

Air monitoring data collection on moving platforms – an instrumented person, bicycle, or vehicle – is now conducted frequently by researchers and citizen scientists. Portable air monitoring instruments with real-time detection capability and advancements in global positioning system (GPS) technology now allow very high spatial and temporal resolution of air pollution data. The traditional mode of evaluating complex geospatial data has been to collect the field data and then utilize sophisticated data analysis and geographical information tools to process and visualize the data. These tools and a skilled analyst are currently and are expected to continue to be relied upon to extract meaningful information from these geospatial data sets. However, these analytical approaches generally take significant time and expertise to conduct, limiting those involved with the analysis process. To simplify the review of geospatial data and expand participation in the analysis process, the Real-Time Geospatial Data Viewer web-based tool is under development and will provide an easy plug-and-play review of geospatial time series. The freely available program will allow data to be viewed in time and space, as well as providing options to reference the geospatial data in terms of distance to a location of interest (e.g., traffic emissions), incorporate ancillary meteorology data, and overlay web-available regional air quality readings. Real-Time Geospatial (RETIGO) Data Viewer: A web-based tool for data exploration Gayle Hagler 1, Matthew Freeman 2 1 US EPA, Office of Research and Development, National Risk Management Research Laboratory, Research Triangle Park, NC, USA 2 Lockheed Martin Corporation, Information Systems & Global Services Summary Goal: Expand Participation in Data Analysis RETIGO: Geospatial time series data input Plan and execute measurements CURRENT STATE Geospatial data analysis, tools require specialized knowledge IDEAL STATE Plan and execute measurements Geospatial data analysis (simplified and advanced analyses) Dissemination of findings Air monitoring data collected on moving platforms is complex in nature, with the concentrations being a function of both time and location. The data collection rate is often on the order of seconds, leading to very large data matrices. Data analysis is often limited to just a few individuals on a research team, with access and training for advanced data analysis tools (e.g., IGOR, MATLAB, ArcGIS). Others on the team are limited in their ability to participate in the data analysis process. RETIGO is a tool to expand participation in data analysis. Example data Required columns Flexible number of data columns Program provides: Options to import geospatial air data and wind speed/direction data, overlay AirNow data Standardized and flexible data input format – supports many columns of air monitoring variables, multiple monitoring packages, disordered time Tool to convert many timestamp options to the UTC/ISO 8601 international standard RETIGO: Data exploration in time and space Development Steps and Schedule Acknowledgements Display of data as time series User can slide along time span, location and markers on chart are highlighted User can place a target location on chart, program computes concentration versus distance-to- target (e.g., distance from source) Program can also: -Display wind vectors (stationary or along a path) from user-input wind data - Display AirNow PM2.5 and ozone values for same measurement period as user-input data User can toggle between measured variables, restrict view to single data points, and turn on/off chart options EPA Quality Assurance Project Plan for Software approved Program development (Winter/Spring 2013) Beta-testing with volunteers (Summer, 2013) – contact Gayle Hagler if interested Program finalized and quality checks conducted (Summer, 2013) Program review and release (early Fall, 2013) This work would not be possible without the support of the below organizations and individuals: EPA’s Environmental Modeling and Visualization Laboratory and High Performance Computing: Heidi Paulsen Lockheed Martin, Information Systems & Global Services: Mike Uhl Contact Gayle Hagler, PhD: