The aim of the project was the implementation of an innovative energy consumption monitoring concept with the active integration of the residents and a study of the resulting effects on the energy consumption behaviour.
The overall objective of the present project is to develop and implement an optimal overheating protection system based on polymeric materials. The aim is to reduce maximum room temperatures in buildings caused by facade integrated solar-thermal collectors in stagnation.
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.
SolarCooling Monitor - Evaluation of energy efficiency and operation modes of solar cooling systems for air-conditioning in buildings in Austria
Evaluation of ten newly installed solarthermal cooling systems in Austria as well as a large-scale plant in Lisbon to identify the plant’s performance using a monitoring analysis and comparing simulation.
A robust, predictive controller which utilises weather forecast data to control thermally active building systems had been designed, researched and assessed in terms of energy efficiency and comfort compared to standard controllers, especially for cooling purposes. Simulations and real measurements using two "Test-Boxes" with thermally active building systems which are constructed and built for this purpose were used to analyse energy efficiency and comfort. Low complexity and transparency of methods and solutions should allow for transferability of all results to guarantee maximum usability for similar applications.
The goal was to refine the energy monitoring for residential buildings as well as to find possibilities to visualise the energy consumption and continuously compare it with the "target consumption" in order to get a signal in time and thereby to be able to communicate it to the users. Different monitoring systems were investigated and the experience was evaluated.
The main aim is the documentation and monitoring of the demonstration projects within the scope of the project "Historical buildings of tomorrow" with regard to the technical implementation, investment and operation costs and to the energetic performance. All demonstration projects will be accompanied by an evaluation process regarding occupants' satisfaction and the refurbishment process. Beyond that, legal constraints for innovative refurbishment of historical buildings will be documented and proposals for adaptations of the rental law and refurbishment subsidy schemes will be developed.
Development of a pattern for comprehensive documentation of the project results. The concepts contain amongst others monitoring of energy consumption, resources, costs, functionality and comfort, etc.
In the oppositional subproject 2 technical and organisational requirements for the transformation of the innovative Smart Metering-concept will be developed. Through the connection of the application of Smart Metering with an active integration of the inhabitants over mutual communication the concept, which is planned for the key project Urban Consolidation Lehen stands out of other comparable antedated activities.
Digital Twin / Building Tracker - Coupling of building simulation with a physical building in real time
The goal of the project ist o couple an office building during operation with its virtual twin, the "building tracker", which will be developed and applied for the first time within the project. Thanks to coupling of monitoring and simulation, innovative building energy management of nearly zero-energy building is possible.
Knowledge consolidation of the exploratory project VIG_SYS_RENO; This project focused on the application of vacuum glass in existing casement windows for purposes of energetic performance improvement of buildings. Expected results include new insights about and a guideline for the application and utilization of vacuum glass products in existing window systems.
User behavior is a key factor for the energy consumption and the actual energetic performance of a building. A new type of user feedback system will be investigated in this research project. Users provide feedback on the sensed room quality. The data obtained by the feedback system are used to optimize settings of building services in order to improve the energy efficiency and the comfort in the building. A basic proof of concept of this system will be undertaken by means of two use cases.
EDEN - Developement of a structured data and preparation documentation with a minimized error-proneness for energy performance cerificates.
Current energy performance certificates hold major flaws. Therefore, the presented research initiative aimed at the development of a standardized and easy-to-use, generic Input-Data-Documentation, which ensures the quality of energy certificates for all involved stakeholders. During the development, the documentation had been conducted and for a chosen sample of representative buildings, which is expected to demonstrate the high potential of such a development.
OptiMAS Optimization of building energy efficiency through model-based energy flow analysis with non-invasive sensors
Using a model-based energy flow analysis supported by non-invasive sensor technologies OptiMAS investigates how to monitor, analyze and optimize existing buildings independent of the installed HVAC systems and automation components. With the OptiMAS approach the optimization potential of individual buildings up to entire areas can be detected, located and tapped by adjustment of system parameters to ensure highest energy and resource efficiency.
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.
EnCO2Web - Austrianwide modelling and web-based visualisation of energy consumption and greenhouse gas emissions on local level
The project consists of a modelling and a web-based visualisation of energy consumption and greenhouse gas emissions of all Austrian cities and municipalities considering all kinds of land use and mobility. The results deliver a sound basis for numerous energy and climate relevant fields of action and for awareness raising of decision makers and the public.
In GEMA, the project team will study and analyse the energy consumption of at least 10 commercial and residential buildings in Austria, which include innovative technologies or concepts for minimising their energy requirements. The results will allow for the potential optimal performance in terms of energy, environmental and social indicators of buildings in future construction projects.
In the frame of the project a classification system for Smart City Technologies had beed developed, the relevance of a wide range of technologies in terms of their potential contribution to the development of sustainable and more resilient cities with a high quality of life had beed evaluated and a comprehensive classification of the technical maturity of relevant technologies, technical (sub-)systems and technology-related services had been given.
Development of a cost-efficient all-in façade greening system („Greening-Toolkit“) including a maintenance concept, involving all trades and processes, for a broad (facing roads) implementation on facades in the urban built environment, combined with a process innovation for simplification of all necessary coordination processes.
GameOpSys - Gamification for optimizing the energy consumption of buildings and higher-level systems
The central goal is the development of a mobile application that enables the energy optimization and planning of buildings, neighborhoods and higher-level energy systems through the participation of the user and the user as a new source of data and information. The development of the application is strongly transdisciplinary and integrates mathematical methods of simulation and optimization as well as psychological aspects of user behavior in order to develop new business models and open up new markets.