Projects within the framework of open4innovation
There are 590 results.
IEA HPT Annex 67: Digital Services for Heat Pumps
Digital services such as advanced modelling, big data methods and augmented reality are not yet widespread in the heat pump industry, although they can be essential for market penetration and decarbonisation. It will be analysed how such services can be used over the life cycle, especially for product design/testing, integration, and operation/maintenance. Expertise from R&D and practice will be collected in an international database and disseminated in the industry.
IEA HPT Annex 68: Industrial High-Temperature Heat Pumps
High-temperature heat pumps are key elements in the decarbonisation of industrial process heat. In this project, existing activities to promote the market ramp-up of this technology will be continued. An existing technology database of manufacturers, their close-to-market or market-available products and demonstration projects will be continued. Moreover, recommendations for sector-specific solutions and training materials will be developed and disseminated to relevant target groups.
IEA HPT Annex 69: Enhanced miniaturized components
Heat pumps are a recognized energy-efficient and renewable energy technology for heating and cooling residential buildings. This project is developing new knowledge on improved, miniaturized components for small heat pumps that are intended to replace individual gas boilers in apartment buildings. The interaction of the components at the device level with minimal refrigerant filling is also being investigated. The results will be made available to the target groups primarily in report form.
IEA HPT WP H2 & CO2: Heat pumps for hydrogen and carbon capture
The energy transition requires new energy carriers, technologies, and infrastructure. Hydrogen and CO2 will play important roles and require new plants and infrastructure. This project analyses the potential of heat integration using heat pumps in H2 production and CO2 capture processes, as well as in the associated infrastructure, with a focus on cost and energy efficiency. The results will be prepared and disseminated as factsheets, concepts, and guidelines tailored to specific target groups.
IEA Heat Pumping Technologies (HPT)
The IEA Heat Pump Technologies programme develops and disseminates objective and balanced information on heat pumps, refrigeration technologies and air conditioning with the aim of exploiting the environmentally relevant and energetic potential of these technologies. This programme includes joint research projects, workshops, conferences and an information service (IEA Heat Pump Centre).
IEA Hydrogen (Hydrogen TCP)
The Hydrogen TCPs coordinates joint R&D activities with the aim of advancing the development and deployment of safe and sustainable technologies for the production, storage and supply of clean and affordable hydrogen and its derivatives for use in industry, mobility, heating and electricity.
IEA Hydrogen Task 42: Underground Hydrogen Storage
The IEA Hydrogen Technology Collaboration Program’s Task 42 on Underground Hydrogen Storage focuses on advancing the technical, economic, and societal viability of underground hydrogen storage in porous reservoirs, salt caverns, and lined-rock caverns.
IEA Hydrogen Task 45: Renewable Hydrogen Production
Due to the increasing pressure to replace fossil fuels with alternatives, the demand for renewable hydrogen supplies is also increasing. In this project, the state of the art of various established and innovative production paths will be collected, processed and then made available to the public.
IEA Hydrogen Task 48: Future demand of Hydrogen in Industry
The task provides an overview of the current and expected use of hydrogen in various industrial sectors. It evaluates the extent to which past and predicted developments in the use of hydrogen in industry deviate from the roadmaps of different countries. This information is important for both companies and policymakers and can support the ramp-up of hydrogen use and the decarbonization of the industrial sector.
IEA Hydrogen Task 52: Hydrogen for Iron/Steelmaking
With the aim of replacing fossil fuels in steel production, this task investigates the use of hydrogen for climate-neutral iron and steel production. The state of the art of existing and new processes is recorded, evaluated and compared. Based on this, technological, infrastructural and market-related findings are prepared and published for research, industry and politics.
IEA Hydrogen Task MMV: Subsurface Measurement, Monitoring and Verification Programs for Underground Hydrogen Storage and Transmission Infrastructure
The project develops harmonized MMV strategies for underground hydrogen storage and distribution within the IEA Hydrogen TCP framework. It aims to ensure safe, monitored, and socially accepted H₂ infrastructure. The national contribution integrates international knowledge into Austrian standards, strengthens expert committees, and supports industry, research, and authorities through targeted knowledge transfer and dissemination.
IEA IETS Annex 17: Membrane filtration for energy-efficient separation of lignocellulosic biomass components
The overarching goal of IEA IETS TCP Annex 17 is to strengthen the network of the Austrian membrane and biorefinery landscape.
IEA IETS Task 11: Industrial Biorefineries (Working period 2022-2024)
Biorefineries producing a portfolio of biobased products or bioenergy are the backbone of the growing bioeconomy. IEA IETS Task 11 aims to minimize greenhouse gas emissions to net zero along different biorefinery pathways. Tools and methodologies for increasing energy efficiency and the use of renewable energies are to be summarized and disseminated to relevant target groups.
IEA IETS Task 11: Industry-based Biorefineries Towards Sustainability (Working Period 2024-2026)
Industrial-scale biorefineries play a central role in the transition to a climate-neutral and integrated circular economy. The international IEA IETS Task 11 supports this development by investigating and evaluating technologies and concepts for reducing emissions and conserving resources.
IEA IETS Task 15: Industrial Excess Heat Recovery (Phase 4)
Excess heat recovery plays a crucial role in reducing emissions in industry. Through strategic planning and efficient process integration, companies can improve their energy efficiency and significantly reduce their carbon footprint. Task XV facilitates the international exchange of experience and knowledge between different companies. This identifies best practices to promote the implementation of energy-efficient technologies in industry.
IEA IETS Task 17: Membrane processes in biorefineries (Working period 2023 - 2025)
Biorefineries are essential for the transition from petroleum- to a biobased industry. The use of biomass as raw material for recyclable materials, chemicals and energy sources is essential and requires efficient and sustainable production processes. This project aims to strengthen national and international know-how transfer between research and development for membrane-based processes in biorefineries. The focus is on application, improvement and innovation in all aspects of membrane distillation.
IEA IETS Task 17: Membrane processes in biorefineries (Working period 2024 - 2025)
Membrane technologies in biorefineries are essential for industrial development in order to enable the transition to a bio-based industry. Biomass as a raw material requires efficient processes. The IEA IETS Task XVII (24-26) project promotes the transfer of know-how between research, industry and membrane manufacturers for resource-efficient applications. The national task strengthens the Austrian research landscape through networking activities.
IEA IETS Task 18: Digitalization, Artificial Intelligence and Related Technologies for Energy Efficiency and GHG Emissions Reduction in Industry (Working period 2023 - 2024)
The work in Task 18 enables the exchange of experience and knowledge between industry and research institutions from different countries. Through this cooperation best practices are identified and disseminated to promote the implementation of energy-efficient technologies in industry. In the medium and long-term, this contributes to reduce energy consumption and greenhouse gas emissions of industry.
IEA IETS Task 19: Electrification of Industry (Working period 2025 - 2026)
Electrification of industry refers to any change in industrial processes and the energy supply chain resulting from a switch to (renewable) electricity as the primary energy source. This project will (i) assess the status quo of electrification, (ii) analyse the impacts/changes of electrification at the level of industrial energy systems, and (iii) compare electrification with other methods of decarbonization.
IEA IETS Task 21: Decarbonizing industrial systems in a circular economy framework (working period 2025 - 2027)
Energy and CO2 savings through CCUS, and resource and energy efficiency through industrial symbiosis are key approaches to decarbonizing industry. The subtasks “Carbon Dioxide Capture in Industry” and “Facilitation of Industrial Symbiosis” of the IEA IETS Task 21 deal with CO2 management, legal requirements for CCUS, new value chains and associated stakeholders, technological integration in industry, tools to enable industrial symbiosis and a non-technical assessment of the status of cooperation.