Suchergebnisse
AI4FM - Artificial Intelligence for Facility Management
AI-based anomaly and fault detection in buildings. Digital twins of buildings with simulation models for testing and optimizing rule-based fault detection methods. Mining of the recorded time-series data from existing Building Management Systems to train Machine Learning models for fault detection.
GreenGEO - Data-based integration of climate change adaptation measures into spatial planning
Green and blue infrastructure (GBI) is a key instrument in the fight against climate change. Nevertheless, deciding where and in what form it should be used most effectively remains a challenge in spatial planning practice. The development of a digital model that links location-specific climate risk data with suitable GBI measure proposals will make this much easier and more objective.
ReAssuRe – risk management for re-use of construction components and building technology by non-destructive on-site testing procedures
Risk assessment and insurability is essential for the re-use of functional components in buildings. In the best case, properties of components can be examined before they are removed from the donor building. ReAssuRe identifies suitable on-site testing procedures and establishes a network for the quality assurance of re-use components.
RCC2 - Life cycle assessment of heatable formwork for CO2-reduced and climate-neutral concrete
Experimental development of innovative formulations of CO2-reduced concrete and heated formwork to support early strength development in wintry temperatures.
Topview - Methodology for the efficient use of remote sensing data for climate change adaptation and spatial energy planning
Development of integrated approaches to sustainable energy and heat planning in urban areas by utilising remote sensing data and geo-information-based technologies for decision-making in the planning of energy infrastructures and climate adaptation measures.
ThermEcoFlow: Innovative technologies and methods for indoor air comfort and energy optimisation in thermal spa buildings
ThermEcoFlow aims to optimize the energy consumption of thermal spas facilities through improved simulation models and AI-supported control systems. By precisely modelling airflow, humidity loads, and evaporation, combined with AI-driven regulation, the project seeks to reduce energy consumption and CO₂ emissions in the long term while enhancing indoor comfort for visitors.
MaBo - material saving in bored piles - a contribution to reducing CO2-emissions in the construction industry
Development of an innovative method for saving material in bored piles in order to reduce CO2 emissions in the construction industry. By optimizing the construction methods and using alternative materials, the sustainability of the foundation bodies is to be improved.
StirliQ+ Component development of the expansion Stirling generator with supercritical fluid as working & lubrication medium
Technical research and further development of details or components of the novel StirliQ engine, which has the potential to overcome the technical hurdles of conventional Stirling engines. On the basis of simulations as well as a laboratory plant, a narrowing down of the process parameters with regard to a resilient pre-dimension of apparatus components is carried out.
GREEN Stone: development of a cement-free concrete with recycled content for applications in landscaping
The Green Stone project aims to develop geopolymer concrete with recycled materials in order to reduce the consumption of non-renewable resources and replace the cement content with alternative binders. The landscaping industry in particular requires lightweight, durable and weather-resistant materials.
HeinrichBiCool - Climate-positive cooling and biodiversity through intensive greening of buildings
Using the example of an existing building of the University of Graz, currently affected by overheating, the project demonstrates what greening can achieve. Comprehensive monitoring of the indoor climate, building physics, energy requirements and biodiversity before and after the greening measures provides new scientific findings on the actual effectiveness of building greening.
BIM.sustAIn - Artificial Intelligence to enhance sustainability in BIM projects
The construction sector faces growing challenges in meeting sustainability requirements, particularly during early project phases where key decisions on materials, construction methods, and energy concepts are made. This project aims to leverage AI and BIM to optimize sustainability assessments by providing precise CO₂ balance forecasts and material suggestions. The innovative approach reduces manual effort and supports the implementation of climate-neutral construction, contributing significantly to Austria’s climate goals.
FlexHP - AI-supported control models for optimising the flexibility of heat pumps to reduce the load on the electricity grid
Development of a new type of energy management system for heat pumps that enables methods for intelligent heat pump operation and thus maximises flexibility. This requires forecast-based models for control that utilise technologies such as machine learning.
GreenFDT – Green Façade Digital Twin
In an interdisciplinary framework, the possibilities for optimizing the rear ventilation distance of façade greening elements and their potential impact on indoor and urban climate are being investigated. The precise and comprehensive investigation of these relationships is made possible by the extensive deployment of sensors and measuring tools and furthermore the development and integration of a digital twin in a BIM model.
ThermEcoFlow: Innovative Technologien & Methoden für Raumluftkomfort und Energieoptimierung in Thermengebäuden
ThermEcoFlow setzt sich zum Ziel den Energieverbrauch von Thermen durch verbesserte Simulationsmodelle und KI-gestützte Regelungen zu optimieren. Durch präzisere Modellierung von Luftströmungen, Feuchtigkeitslasten und Verdunstungen und KI-gestützten Steuerungssystemen soll der Energieverbrauch und die CO2-Emissionen langfristig gesenkt und der Raumkomfort für Besucher:innen verbessert werden.
BATTMON - Erhöhung der nutzbaren Ladekapazität, Lebensdauer und Sicherheit von Batteriespeichern im urbanen Raum
Ziel von BATTMON ist die Entwicklung einer verbesserten Zustandsbestimmung von Batteriespeichern für Anwendungen in Gebäuden und Quartieren. Dazu werden flächenhafte Foliensensoren zur ortsaufgelösten Messung von Temperatur und Druck entwickelt. Mit diesen Daten sollen der Ladezustand aber auch der Gesundheitszustand genauer abgeschätzt und Zellschäden frühzeitig erkannt werden, um die Brand- und Explosionsgefahr zu reduzieren.
BIM.sustAIn - Artificial Intelligence to enhance sustainability in BIM projects
Die kontinuierlich steigenden Anforderungen an Nachhaltigkeit im Bausektor, insbesondere im Hinblick auf ESG-Kriterien, erfordern frühzeitige Bewertungen. Ziel des Projekts ist die Entwicklung KI-gestützter Tools zur automatisierten Nachhaltigkeitsanalyse in frühen Bauphasen, mit Fokus auf CO₂-Emissionen und Materialvorschlägen durch die Kombination von KI und BIM. Damit soll eine effiziente, skalierbare Lösung zur Unterstützung klimaneutraler Bauvorhaben geschaffen werden.
Vitality City - Holistic energy strategies for cities in transition
Energy simulation of any size city (municipalities) based on the data from laser scanning and satellite analysis (Geodata) to obtain dynamical energy demands and available energy resources.
IMPACT – Hybrid hydraulic and electric charging of stratified compact hot water
The IMPACT project is developing an innovative decentralised hot water storage technology for large-volume urban housing. Thanks to a novel, flat design, the system enables highly efficient utilisation of renewable energy sources such as heat pumps and photovoltaics. The aim is to create a cost-efficient, sustainable solution for decarbonising water heating that is optimised using intelligent energy management and machine learning methods.
Circular Bio Floor- Floor construction made from biomaterials
In this project biogenic building materials from wood industry waste and geopolymer binders are developed that can be used as tamped fill or 3D-printed dry-screed elements in timber construction. These materials offer functional benefits and an excellent eco-balance, contribute to the conservation of forests and enable the production of separable and reusable floor segment panels using digital manufacturing technologies. That significantly reduces the consumption of primary raw materials.
RCC2 – Reduced Carbon Concrete 2: Ökobilanz heizbarer Schalung für CO2-reduzierten und klimaneutralen Beton
Experimentelle Entwicklung innovativer Rezepturen CO2-reduzierten Betons sowie beheizter Schalung zur Unterstützung der Frühfestigkeitsentwicklung bei winterlichen Temperaturen.
Schriftenreihe
26/2024
T. M. Romm, J. Flaszynska, M. Härtel, M. Kopp, D. Ehrenreich, T. Meinschad, P. Kasal, T. Belazzi, J. Horvath, M. Schwarzbauer, L. Kujawa, R. Pamminger, M. Löffler, F. Denk, H.-J. Zeiler, J. Hörler, J. Roth, A. Preuß, T. Groeneveld
Herausgeber: BMK
Deutsch, 71 Seiten