The accompanying scientific research project "BEniVer" comprehensively analyses the development of alternative fuels. The aim is to network the 15 technical research projects of the funding initiative with more than 100 participating research groups and industrial partners, to exploit synergy potentials and to make the project results comparable. The project focuses on interdisciplinary analyses of technical, environmental, economic, and social impacts.
The accompanying research is conducted by six research institutions under the direction of the German Aerospace Center on behalf of the Federal Ministry for Economic Affairs and Energy. In particular, GWS will work on the industrial and macroeconomic evaluation of various options.
The aim of this research project is to analyse the impacts of target species, climate policy implementation and international cooperation within the framework of the Paris Climate Change Agreement and the currently available national reduction contributions (Nationally determined contributions - NDCs) as well as within the framework of possible and necessary increases in ambition to achieve long-term climate protection goals (1.5°C).
The analyses will focus on international interrelations that are discussed in the context of the European Emissions Trading System under the heading of carbon leakage. By analysing given scenarios with different models (GEM-E3 and GINFORS_E), the project should also provide essential information on the "influencing factor model".
The project will be conducted by GWS together with E3-Modelling and Prof. Andreas Löschel for the German Enviroment Agency until mid 2021.
The political debate on sustainable energy supply is currently narrowing largely to a climate protection at justifiable costs for citizens and industry discussion. With this focus, numerous sustainability aspects such as resource requirements, social acceptance or emissions in the lifecycle of new technologies are ignored which the National Strategy of the Federal Government should bear in mind, striving for a transformation towards a sustainable energy system.
The main objective of the project is therefore the creation of a new generic modeling and evaluation environment for energy scenarios in which the technical-structural development paths of the energy system are analyzed, evaluated and multicriterially optimized on the basis of various economic, societal and environmentally relevant model-based targets.
The project explores and develops scientific basis for a systemic monitoring and modelling of the bioeconomy (BE) in Germany. The three year project, led by University of Kassel, is sponsored by the German Ministry of Education and Research (BMBF). Detailed information can be found here.
The project aims at defining climate change impact-chains and low carbon transition pathways in European islands for 2050 and beyond, and analyzing their corresponding macro-economic and non-market consequences for Europe.
Firstly, climate impact projections for islands will be developed. The project will take into account the relationship between CC and biophysical impacts, according to each island’s specificities and vulnerability indicators. Secondly, the assessment of the socio-economic impacts in four key areas of the EU Blue Economy (aquaculture, coastal and maritime tourism, fisheries and maritime transport) will be done.
Finally, the project will rank and map low carbon and adaptation solutions, according to each island´s particularities and CC scenarios.
1. To develop a thorough understanding on how climate change will affect the EU islands, given their specific vulnerability compared to continental Europe.
2. To provide consolidated data and knowledge with a cross-sectorial perspective on the socio-economic costs of different climate change scenarios for 2050 and beyond, for EU islands and the spill-over effects on the EU Blue Economy.
3. To validate a new methodology for the estimation of the economic value of non-market consequences of CC as well as the non-market benefits of climate mitigation and adaptation actions for Europe.
4. To identify and rank the more appropriate low-carbon transition pathways and risk management strategies for each EU Island, according to different climate change scenarios.
5. To deliver, through innovative technological support tools, downscaled recommendations to policy makers and practitioners in order to foster the desired transition.
The BMBF funded 3-year project focuses on the phenomenon that, despite the fact that significant progress in efficiency was achieved in the past 40 years, the overall consumption of energy and resources did not proportionately reduce. This might be due to macroeconomic rebound effects. But the consumption levels might have been also caused by other determinants of economic growth. Firstly, the project aims at an understanding of the relation between macroeconomic rebound effects and those other determinants of economic growth. It aims moreover to support the theoretical knowledge by statistical estimation of their significance for the energy and resource consumption (System knowledge). The second goal of the project is to develop political measures and instruments which effectively curtail macroeconomic rebound effects and which influence drivers of economic growth, and to examine their environmental and economic consequences (Orientation knowledge). Thirdly, the project aims at a development of politically feasible and rebound-proof instruments for the reduction of resource consumption in a close collaboration with non-scientific stakeholders within a
Policy Innovation Lab (Transformation knowledge).
The economic side of the energy system transformation in Germanyis often discussed in a shortened form along the lines of cost burdens and additional expenses. The transformation of the energy system and the exploitation of the potential for increasing energy efficiency, however, open up additional growth opportunities for suppliers of energy technology goods. The opportunities for all companies involved in energy technology goods and services and exporting - or importing - these goods have so far not been intensively examined and described. In this context, plants for electricity and heat generation from renewable energies and for increasing energy efficiency represent technologically sophisticated products that therefore fit well with the supply profile of German industry. The production of these plants is based on complex domestic and international value chains, so that imports and exports of energy technology goods have an influence on the German economy that has so far been insufficiently quantified. For an exporting nation, this knowledge gap is astonishing and the project is intended to close it both definitively and with data.
The economic opportunities associated with the development of renewable energy are a strong argument to motivate and support RE deployment. GWS has contributed decisively to method development both in Germany and internationally. Algeria aims to increase RE's share of the electricity mix to 27% and its installed capacity to 37% by 2030. Since 2015, 20 solar parks (photovoltaic) with a total installed capacity of 343 megawatts (MW) have been put into operation. In the period from 2016 to 2020, solar or RE power plants with a total capacity of 4,000 MW are to be built. To estimate the employment effect of this development path in Algeria, the following steps are planned:
1. Estimate of jobs to be created under the RE projects in Algeria until 2030 (gross, net, direct, indirect)
2. Estimation of the contribution to the development of the service sector (SMEs, jobs)
3. Identification of RE technologies to be prioritized from the point of view of job creation