1. Earth observation for monitoring and assessment of the environmental impact of energy use Version 03 Earth observation for monitoring and assessment of the environmental impact of energy use

2. Introduction Objectives Project logic GEO context DPSIR framework in EnerGEO Pilots EnerGEO portal PIA Wrap up Project overview Seventh Framework Programme Theme 6 - Environment FP7-ENV-2008-1 GA No. 216364 12 partners from 6 countries Project duration: 11/2009 – 10/2013 EC contribution: € 6 010 930 Coordinator: Dr. Martijn Schaap, TNO Website: http://www.energeo-project.euhttp://www.energeo-project.eu 2

3. Consortium 3 NoBeneficiary nameBeneficiary Short name CountryLogo and website 1Nederlandse Organisatie voor Toegepast Natuurwetenschappelijk Onderzoek, Coordinator TNONetherlands 2Association pour la Recherche et le Développement des Méthodes et Processus Industriels ARMINESFrance 3Deutsches Zentrum für Luft- und RaumfahrtDLRGermany 4ARGOSS Netherlands 5Research Studies Austria Forschungsgesellschaft mbH RSAAustria 6International Institute for Applied Systems Analysis IIASAAustria 7Uniresearch B.V. UNRNetherlands 8Paris-Lodron-Universität Salzburg Centre for Geoinformatics Z_GIS PLUSAustria 9AGH University of Science and Technology / Krakow AGH-USTPoland 10Pakistan Space and Upper Atmosphere Research Commission SUPARCOPakistan 11Institut für Energie- und Umwelttechnik IUTA e.V. IUTAGermany 12Stichting Ruimte Onderzoek NederlandSRONNetherlands Introduction Objectives Project logic GEO context DPSIR framework in EnerGEO Pilots EnerGEO portal PIA Wrap up

4. Project background Worldwide demand of energy is growing and will continue to do so for the next decades to come. The International Energy Agency IEA has estimated that global primary energy demand will increase by 40 – 50 % from 2003 to 2030 (2005 estimates) depending on the fact whether energy policies are directed towards energy-saving and fuel-diversification will be effectuated. Since energy production, transportation and consumption place considerable pressures on the environment, there is serious concern regarding the sustainability of the current and future pattern of energy consumption.  EnerGEO develops products and methodologies that provide energy companies, consultants and policy makers (local, regional, global) with the tools to evaluate the environmental impact of changes in energy use in terms of the complete life cycle including exploration, development, exploitation, maintenance and decommissioning. 4 Introduction Objectives Project logic GEO context DPSIR framework in EnerGEO Pilots EnerGEO portal PIA Wrap up

5. Project objectives EnerGEO develops a strategy for a global assessment of current and future impacts of the exploitation of energy resources on the environment and ecosystems based on the use of the Global Earth Observation System of Systems (GEOSS) capacities. This strategy is demonstrated for a variety of energy resources worldwide (fossil fuels, biomass, solar and wind energy). EnerGEO combines: 1. Existing energy system models and models capable of assessing and forecasting environmental impacts and costs of energy exploitation 2. Existing global earth observation datasets from which environmental indicators are derived in order to quantify changes to freshwater systems, biosphere, ecosystems, atmosphere and oceans 5 Introduction Objectives Project logic GEO context DPSIR framework in EnerGEO Pilots EnerGEO portal PIA Wrap up

6. Project objectives 4 Pilots were selected for testing and demonstrating the observation system and developed scenarios: Fossil fuels: impact on atmospheric composition and land degradation Biomass:impact on ecosystems, biodiversity and food security Solar energy: select optimum power plant locations and support electricity grid integration Wind: assess the potential (net) energy, assess environmental impacts of the substitution of fossil energy by wind power  all pilot outputs will be converted into Environmental Impact Assessments and tentatively integrated through the Platform Integrated Assessment (PIA) 6 Introduction Objectives Project logic GEO context DPSIR framework in EnerGEO Pilots EnerGEO portal PIA Wrap up

7. 7 Project logic Introduction Objectives Project logic GEO context DPSIR framework in EnerGEO Pilots EnerGEO portal PIA Wrap up

8. GEO Context EnerGEO represents a major contribution of the European Commission to GEOSS, in particular to the Societal Benefit Area (SBA) Energy and the GEO-tasks EN-01 (Energy and Geo-Resources Management) and SB-05 (Impact Assessment of Human Activities) (or any GEO Workpackage derived from these). By developing a distributed system based on the recommendations of the GEO-Architecture and Data Committee (ADC), global collection and dissemination of data relating to the impact of energy use on the environment will be supported. 8 Introduction Objectives Project logic GEO context DPSIR framework in EnerGEO Pilots EnerGEO portal PIA Wrap up The SBAs of GEOSS

9. DPSIR framework in EnerGEO 9 Introduction Objectives Project logic GEO context DPSIR framework in EnerGEO Pilots EnerGEO portal PIA Wrap up

10. Fossil Fuels – origin of air pollution 10 Introduction Objectives Project logic GEO context DPSIR framework in EnerGEO Pilots EnerGEO portal PIA Wrap up Particulate matter (PM) has a negative impact on human health. We improve the modeling of PM concentrations over Europe including the development of a source apportionment tool to assess the contribution of fossil fuel combustion. These results were compared to Positive Matrix Factorisation results. Comparison of carbon concentration ascribed to burning of heavy fuel oil PMF and LOTOS-EUROS Share of PM2.5 concentration caused by coal burning Share of EC2.5 concentration caused by diesel burning

11. Fossil Fuels – Mercury modeling and emissions 11 Introduction Objectives Project logic GEO context DPSIR framework in EnerGEO Pilots EnerGEO portal PIA Wrap up Coal fired power plants are an important source of (reactive) mercury. A mercury module for air quality model Polyphemus was developed and tested Emission databases are lacking detail in both type of Hg emitted and source sectors and report quite different mercury emissions. Schematic of Mercury module developed Emission of Hg divided over source sectors for three different databases% of emissions from the power sector to overall concentration of particulate mercury

12. Fossil Fuels – Energy Transition 12 Introduction Objectives Project logic GEO context DPSIR framework in EnerGEO Pilots EnerGEO portal PIA Wrap up Model used: air quality model LOTOS-EUROS Large scale energy transitions have a significant impact on air quality. Generally air quality will benefit from less emissions, but there are some issues: Large-scale production of biomass will affect ozone concentrations Because solar and wind energy revenue is dependent on meteorology, the timing of emissions from the back-up fossil fuel combustion will change as well. This may impact air pollution from fossil fuel use. When change in emission timing is included, power plant pollution is more persistent Increased isoprene emissions from biomass production will increase ozone concentrations and damage indicators

13. Biomass - Energy potentials G4M is used to produce global energy potentials from forestry EPIC is used to produce global energy potentials from crops 13 Introduction Objectives Project logic GEO context DPSIR framework in EnerGEO Pilots EnerGEO portal PIA Wrap up Energy potentials from forests as computed with the G4M model. Values in TJ/y/grid cell of 0.5x0.5º. White: no forest. Red: tropical forests and savannahs. Bioenergy potentials for 2090 derived from barley, grain maize, oats, rapeseed, rye and wheat. Modeled on 10 km 2 resolution with the EPIC model

14. Biomass 14 Introduction Objectives Project logic GEO context DPSIR framework in EnerGEO Pilots EnerGEO portal PIA Wrap up A landcover / landuse database for Pakistan was developed BETHY/DLR uses remote sensing data to derive biomass maps from which net primary productivity maps can be computed. A landuse / landcover database for Pakistan was constructed The use of LIDAR data for the identification of vegetation types was tested but not yet successful.

15. Solar energy: Siting support The aim of this part of the solar energy pilot is to provide a web service with information on the best locations to build a solar park. Inputs used are solar radiation, land use, population density, infrastructure, electricity grid, etc. Output is available as maps and as location-specific raster diagrams. 15 Introduction Objectives Project logic GEO context DPSIR framework in EnerGEO Pilots EnerGEO portal PIA Wrap up Left: examples of input maps (electric grid, population, irradiance) to calculate best sites to locate a solar power plant. Right: example of output of the web service: map with potential for solar power plants and raster diagram for one location.

16. Solar energy: Grid planning support 16 Introduction Objectives Project logic GEO context DPSIR framework in EnerGEO Pilots EnerGEO portal PIA Wrap up Focus on grid planning support by providing information about the reliability of solar energy specific weather forecasts. This is important because good forecasts are needed to estimate how much solar energy will be produced and how much other electricity is needed at each time. Error estimate of direct normal irradiation, forecast 12 hours ahead: Root mean square error divided by mean DNI. Left: based on ECMWF forecast; Right: based on 2day persistance method, which assumes yesterday’s weather conditions and electricity generation also for the following day

17. Wind - Potential wind energy High-resolution meteorological models are used to analyse potential energy yields, accounting for wind speeds, maintenance schemes and transport 17 Introduction Objectives Project logic GEO context DPSIR framework in EnerGEO Pilots EnerGEO portal PIA Wrap up

18. Wind - Potential wind energy 18 Introduction Objectives Project logic GEO context DPSIR framework in EnerGEO Pilots EnerGEO portal PIA Wrap up Mean wind power potential Correlation between wind speeds at location off the coast of Norwich and the rest of the area. This correlation is important in view of availability of electricity: what is the chance that there is wind in one wind park when the other is not producing because of lack of wind?

19. Wind - LCA Results: Environmental impacts / kWh produced at the high-voltage onshore grid 19 Introduction Objectives Project logic GEO context DPSIR framework in EnerGEO Pilots EnerGEO portal PIA Wrap up Main assumptions: -50 Wind Turbines per farm and per HV transformer -Load factor: 53% -WT lifetime : 20 years -HV transformer lifetime: 35 years -Submarine cables lifetime: 40 years -Distance to shore: 50km -O&M scheme: inspection 4 times per year by helicopter + 1 return transport farm/harbor by transoceanic tanker during the life time of the farm -No additional recycling scheme considered (Ecoinvent already include recycled materials in its inventories) Environmental impacts per kWh energy produced for all aspects of building and maintenance of wind mills.

20. Wind - Life Cycle Assessment 20 Introduction Objectives Project logic GEO context DPSIR framework in EnerGEO Pilots EnerGEO portal PIA Wrap up LCA results are also available on maps via http://viewer.webservice- energy.org/energeo_wind_pilot/index.htmhttp://viewer.webservice- energy.org/energeo_wind_pilot/index.htm Example of result from LCA analysis: primary energy required to build a park of 40 wind mills.

21. EnerGEO portal – link to GEOSS 21 Introduction Objectives Project logic GEO context DPSIR framework in EnerGEO Pilots EnerGEO portal PIA Wrap up EnerGEO Portal Architecture is linked to GEOSS Common Infrastructure (GCI)

22. EnerGEO portal - example 22 Introduction Objectives Project logic GEO context DPSIR framework in EnerGEO Pilots EnerGEO portal PIA Wrap up http://energeo.researchstudio.at/ Example of web service available through EnerGEO portal: Climate change impact of solar panels

23. Platform for Integrated Assessment: PIA 23 Introduction Objectives Project logic GEO context DPSIR framework in EnerGEO Pilots EnerGEO portal PIA Wrap up Following the DPSIR (Drivers, Pressure, State, Impact, Response) concept Focus on the conversion from STATE indicators into IMPACT indicators through damage functions A display of pilot results through graphical Web clients and depository process Example of PIA result: web service for health impact due to PM 2.5 pollution. Concentrations feed in from GAINS and LOTOS-EUROS model, these are weighted by population (age specific) and damage functions

24. PIA – Energy Scenarios 24 Introduction Objectives Project logic GEO context DPSIR framework in EnerGEO Pilots EnerGEO portal PIA Wrap up Four energy scenarios for Europe are defined and will be assessed in the PIA Top: ‘Open Europe’ energy scenario, characterised by a relatively large share of electricity from biomass, calculated with the GAINS model. Left: Electricity production time profile for a summer week in June in a scenario using 80% renewable electricity. For all scenarios such time profiles are calculated using the REMIX model.

25. Wrap up Linking Energy Use and Environmental Impact by making use of state of the art environmental, energy and scenario models Collecting the necessary datasets and deriving indicators from them by connecting to current GEO-contributions and state-of-the- art in-situ global networks Enabling the collection of and access to EnerGEO-data by building a portal within the context of GEO and based on GEO-ADC- recommendations Testing the EnerGEO approach through dedicated pilots making our approach viable and supportive Proposing perspectives from Pilot-scale to Global Scale enabling to run global scenarios on energy use and environmental impact 25 Introduction Objectives Project logic GEO context DPSIR framework in EnerGEO Pilots EnerGEO portal PIA Wrap up

26. Earth observation for monitoring and assessment of the environmental impact of energy use Thank you http://www.energeo-project.eu/