The aim of this project is to create a techno-economic optimization model for Carinthia's electricity system.

Based on the 2022 energy report, the report will be revised, updated and expanded for the 2023 reporting year.

This study aims to determine the Austrian electricity system's short-, medium-, and long-term energy storage requirements in 2040. Austria's and European goals for decarbonizing our energy systems rely on increased electrification of, e.g., transport, heat, industrial processes, etc.. National energy policy goals, such as the planned expansion paths of the Renewable Energy Act (EAG), focus on the expansion of renewable energy sources (wind, PV, water, biomass) but do not quantify the performance or energy-related capacities of storage technologies (in addition to those installed to date) that would be necessary to achieve complete climate neutrality of the Austrian electricity system. The following research questions should be answered: How much energy storage capacity (both installed capacity and energy quantities) would be necessary for Austria (Power to X to Power) to achieve the climate targets by 2040? How many short-, medium- and long-term storage technologies are involved, and how are they optimally operated? How do these capacities change assuming up to 3 different scenarios (e.g., with different weather years)?

The aim of this collaboration is to analyze a dynamic power control of PV systems e.g. 70% of the installed module power as grid-effective regenerative power and to evaluate this as a potential measure to achieve the climate and energy goals in the area of PV expansion. In this context, the expansion of renewables will be considered together with the grid infrastructure.

The general objective of this project is the comprehensive elaboration and evaluation of three expansion scenarios for the energy infrastructure of the energy carriers electricity, gas, and heat to enable a sustainable, climate-neutral economic and energy system in Austria by 2040. We apply a model-based investigation approach in which we establish a soft link between three models (ATLANTIS, HyFlow, ASCANIO), specialized and proven for their respective purpose of investigation. We then develop infrastructure expansion plans for three different scenarios (import/export-orientation, sector coupling, and energy efficiency), which represent the first core outcome of the project. A multi-criteria analysis and -assessment synthesizes technical, techno-economic, macro-economic, and environmental aspects and allows a systematic and comprehensive comparison of the scenarios. The resulting scenariobased transformation pathways represent the second core outcome of the project. A GIS-based and webenabled map for energy infrastructures, potentials of renewable energies and sectoral energy demands, constitute the third key outcome and ensure a clear and user-friendly presentation of the complex interrelationships. Our interdisciplinary project consortium can call on comprehensive expertise and numerous pre-projects relevant for this research proposal. By intensively involving a broad range of stakeholders in a series of five specialized workshops, we integrate additional expertise (e.g. with respect to planned infrastructure projects) and take industry ideas and requirements into account. The project results fully meet the terms-of-reference of the tender and show a depth of detail beyond that. Thereby, they represent a solid basis for decision making, in particular for the preparation of the integrated grid infrastructure plan.

The objective of START2030 is to provide comprehensive analysis of the economic incidence and social impacts of a transition to a 100% renewable electricity system by 2030.

In the context of the project, different storage technologies in agriculture are examined.

Aim of the project is to establish a web-based visualization platform including user-interface for energy infrastructure in Austria.