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Possibilities and requirements of transferring the Swiss “2000-Watt Site” certificate to Austria
Development of a concept for a product service system (PSS) in the area of surface treatment (varnish, laquer, paint). Instead of selling varnish and pain, the service of surface treatment (per square meter) should be developed for private and commercial users.
In a practical way the project showed that with optimised small wind turbines a useful potential of wind power can also be generated at different suitable locations with low wind conditions directly at households and companies.
SmallWindPower@Home - Impact assessment of building-mounted small wind turbines on performance, people, building and environment
Within the project SmallWindPower@Home the impact of complex obstacles on the local flow pattern as well as on the inflow and the performance of different building-mounted small wind turbines (SWT) will be evaluated. Furthermore the effects of these building-mounted SWT on the building, the resident people and the direct environment will be analysed.
The EPBD recast 2010 targeted "nearly zero energy buildings". This low amount of energy is to be covered by energy from renewable energy sources. The project "Smart ABC" analysed a variety of relevant solution sets regarding the building performance and the renewable based energy supply options. Energetic and ecological impacts were analyzed in order to optimize the integration of renewable energy technologies in building standards and to find answers how to depict a building cluster regarding standards and tools.
A specially developed simulation model is employed to ascertain the energetic potential of adaptive façade systems. The dynamic behavior of the physical properties of the adaptive façade system reacts to both internal and external changing conditions. The goal was the development of an adaptive façade, which helps provide maximum comfort for the building occupants with minimum energy consumption.
The basic principles of "Smart Gas Grids" will be investigated and practical issues and deployment strategies will be studied in detail. Furthermore, together with the relevant stakeholders, a "Vision- and Strategy Paper" and a draft for a "Strategic Research Agenda" will be developed.
The project Smart Metering consumption focused on the energy consumption of the future smart metering infrastructure - an issue not widely discussed until now.
Smart Pölten 2.0 Holistic view on a Vertical Farm in preparation for a demonstration project for the city of St. Pölten
The city of St. Pölten forsees great potential in Vertical Farming with regard to the objectives related to the concept of the Smart City program - linking local food production, quality of life by reducing resource consumption. This has to be evaluated by combining Vertical Farms with existing living buildings. Eco-social and socio-economic considerations play an important role in this process.
The concept of a smart city explicitly refers to a sustainable city development. To apply smart city concepts in practice, it is essential to develop practice- and profit-oriented business models (smart services), which at the same time generate social and ecological benefits. Smart services were developed for the application in three specific city development areas and their practicability was verified in a comprehensive stakeholder process with decision makers.
Smart.Monitor – SMART city indicators and MONITORing for smart city objectives – based on the example of the Smart City Vienna Framework Strategy
Elaborating and preparing the basic information and data required to conceptualize indicators and a monitoring system for the smart city framework strategy. The results shall support the future monitoring of the Smart City Vienna Framework Strategy.
The present study aims to explore the application options for compact units (ventilation devices including micro heat pumps, developed for passive houses) in low energy buildings. Compact ventilation units for heat recovery, heating and domestic hot water shall bear the basic heating load, whereas peak loads shall be covered by newly-developed auxiliary heating equipment combined with intelligent control algorithms. This allows increased energy efficiency as well as cost effectiveness together with higher living quality and lower ecological load.
The emerging development of smart grids provides market opportunities for new ICT-based services ("smart value-added services"). Economic and organizational barriers are foreseeable that could affect the establishment of business models and service providers (data formats, connectivity, controllability, etc.). In order to improve the chances especially for new and local actors, SMARTIES proactively tries to eliminate hindrances of innovation.
This project aims for feasible low-cost solutions, which allow residents of multi-party houses, with special focus on social housing to profit and participate in the energy transition process and associated trends (e.g. community generation units, exploitation of flexibility). The results of the project are low-cost concepts and business models of community generation units and utilization concepts, tested for their feasibility in a social housing complex. These concepts are based on special requirements of different lifestyles in low-income households and take the framework of social housing such as tenant fluctuation into account.
A socio-technical support model will be created for the Region of Murau. It will be established in strong cooperation with local and regional actors, to reach a broad realisation of a network on sustainable solutions on renewable energy sources. This pilot model will also be an example for multiply.
The main goal was to establish a long-term cooperation for "Solar Cooling" between the Austria Solar Innovation Center (ASiC) and the Center for Sustainable Energy Systems (CSES) at the renowned Australian National University (ANU) in Canberra. Combining the competences of both institutes immediately offers the chance to boost the penetration of the European and the Australian market with this new technology for cooling in sustainable buildings.
In this project the application of a solid oxide fuel cell (SOFC) for energy supply (heat and power) of urban areas will be investigated. Due to the high temperature level of the produced heat it would be possible to use this heat for the energy supply of different heat and power consumers (residential buildings, industrial plants, etc.). One aim is to provide the SOFC-heat at several temperature levels in order to establish the advantages of the fuel cell. On the one hand the legal and market-based conditions will be evaluated, on the other hand the technological feasibility will be scoured by the use of CFD-simulation of the heat production.
Targeting a high level of decentralised energy supply on basis of renewable energy, the project analysed the possible combinations of solar thermal energy, photovoltaic and heat pumps. The project aimed to maximise the domestic energy supply due to utilisation of the building as short term energy storage. In addition to that, several optimisation measures had been developed. The impact on the energy supply and demand will be economically assessed through life cycle costing. On this basis, the potential load transfer and the use of this kind of systems had been evaluated in combination with smart grids.
Sol4City - Integrated solar supply concepts for climate-neutral buildings for the "city of the future"
Intelligent technology coupling to achieve high solar coverage of the buildings (multi-storey residential building) heat and electricity demand. At the end of the project, integrated energy supply concepts for multi-storey residential buildings based on high network interaction and flexibility potential, maximum surface efficiency of conversion technologies on site and high economic competitiveness are available for the broad applicability in the "City of the Future".
Activities to prepare the market for solar cooling technologies in Austria. The project was carried out in cooperation with the IEA Implementing Agreement Solar Heating and Cooling (Task 25).