Forschungsprojekte
The global annual costs of corrosion are estimated to be USD 2.5 trillion, which is an equivalent of roughly 3.4 percent of the global Gross Domestic Product (GDP). 15 – 35 percent of these costs could be saved by more durable (building) materials and by implementing/enhancing corrosion prevention practices, accounting for annually USD 375 – 875 billion. Besides economic considerations, corrosion influences the safety and reliability of structures, enhances environmental pollution, increases resources consumption and jeopardizes global climate goals. At the same time the construction sector represents one of the most significant sources of waste generation in the European Union and recent data indicate that 11 % of all greenhouse gas emissions generated worldwide originate from the manufacturing of construction materials. Correspondingly, mineral wastes represent the largest waste stream in Austria with an overall production of 54 Mio. t/a, corresponding to 76 % of the entire waste production. Almost 60 % of mineral wastes are landfilled and 96 % of all landfilled waste (32 Mio. t/a) is mineral waste. The aim of this research initiative is the establishment of a cutting-edge interdisciplinary competence center at the interface between waste, material, environmental, geo, and civil engineering sciences to develop a novel generation of waste-based geopolymer-based building materials with high (bio)chemical resistance following the concept of CO2-neutral circular economy. Succeeding the overall strategy for a climate-neutral economy by 2050 as presented by the European Commission, within the proposed advanced material development inorganic industrial waste and residual materials such as slags, ashes, mineral wools, clay-rich residual demolition masses and clays are further processed (as binder and activator) and complemented with carbon-rich waste compounds such as (waste)oils, organic fibers or industrial biomass residues. This combination allows to minimize environmental impact of material production and thereby presents a major step towards carbon neutral building material development. Continuative material testing based on accelerated, standards-compliant test procedures, field studies and pilot projects represents another core area of the research initiative. Therefore, advanced mineralogical, micro/nanostructural and (hydro)chemical analytics [e.g., X-ray and electron microscopy (FEG-EPMA, SEM, TEM), mass spectroscopy, X-ray microtomography, MAS-NMR etc.] will be linked with innovative monitoring tools (e.g., optical sensor systems, isotope/element tracers, fiber optic sensors) and complemented by experimental approaches, (micro)biological analyses, modeling and life cycle assessment calculations. Proposed material development and testing focus on reaction-specific processes at interfaces (liquid - solid - gas), proxy-based forensic reconstruction of physicochemical material properties and corresponding material adaptation to variable and possibly (in)favorable environmental and operational conditions. This approach forms the basis for targeted and tailored optimization and development of durable, ecologically friendly, mineral-based building materials for the respective application areas. Envisoned application areas are (i) (bio)chemically aggressive systems in (waste)water transport and treatment, (ii) transport infrastructure [e.g. tunnel drainage systems, tension elements (prestressed/non-prestressed), supporting structures], and (iii) (bio)waste disposal and stabilization.
Mitarbeiter*innen
Konsortialführer/in bzw. Koordinator/in von mehreren TU Graz Instituten
Cyrill Grengg
Dr.rer.nat. BSc MSc
Dr.rer.nat. BSc MSc
Projektleiter/in an der OE
Fördergeber*innen
- Christian-Doppler Forschungsgesellschaft, CDG
Externe Partner
- GSA - Gemeinschaft Steirischer Abwasserentsorger
- Forschungsverein Stein & Keramik des Fachverbandes der Stein- und keramischen Industrie
Forschungsgebiete
Ende: 30.12.2027
Beginn: 31.12.2022
The production of building materials and components made of structural concrete has a considerable impact on the environment,
In particular, greenhouse gases such as CO are emitted. This mainly relates to cement and the carbon dioxide released during the
carbon dioxide released during the production of reinforcing steel. Specifically for sulphate-prone concrete, as is the case in tunnel construction the case in tunnelling, sulphate-resistant and low-emission cements (CEM II/C with sulphate-resistant clinker) must be used.
be used. In order to reduce the ecological footprint of civil engineering structures, concrete steps must therefore be taken.
must be taken.
This project is primarily concerned with the circular economy and sustainability of concrete as a building material with optimisation of the
optimising constraining stresses and thus reducing the amount of reinforcement, using new types of reinforcement materials and innovative knitting and weaving processing of 3-dimensional reinforcement (e.g. for segments) and their practical realisation in construction.
Mitarbeiter*innen
Projektleiter/in an der OE
Bernhard Freytag
Priv.-Doz. Dipl.-Ing. Dr.techn.
Priv.-Doz. Dipl.-Ing. Dr.techn.
Dirk Schlicke
Univ.-Prof. Dipl.-Wirtsch.-Ing. Dr.techn.
Univ.-Prof. Dipl.-Wirtsch.-Ing. Dr.techn.
Fördergeber*innen
- Österreichische Forschungsförderungsgesellschaft mbH (FFG) , FFG
- Österreichische Bautechnikveranstaltungs GmbH, ÖBV
Externe Partner
- Vereinigung der Österreichischen Zementindustrie, VÖZ
- Universität für Bodenkultur Wien, BOKU
- Montanuniversität Leoben, Department Minerals Resources Engineering, Lehrstuhl für Subsurface Engineering
Forschungsgebiete
Ende: 30.05.2027
Beginn: 31.05.2024
According to the current concrete standard SN EN 206, in Switzerland, but also in many other countries, “concretes according to properties” are additionally subject to recipe specifications such as minimum cement content, maximum w/c ratio and maximum additive content. For this reason, CO2-reduced binder systems that fall below the minimum cement content or exceed the maximum w/c ratio or additive content are not permitted by standards, although the more sustainable concrete produced with them could meet the required properties. Today's concrete technology offers a variety of binder technologies and an advanced understanding of their influencing factors. Based on this, a design process for sustainable concrete should be developed. In order to speed up recipe optimization, a step-by-step process is being developed, according to which the glue and mortar are first optimized using rapid tests before the concrete recipe is tested. Concrete testing also takes place in two stages with preliminary rapid tests followed by more complex suitability tests. As part of the project, recommendations for the practical implementation of the new design process as well as suggestions for standard adjustments will be made.
Mitarbeiter*innen
Konsortialführer/in bzw. Koordinator/in von mehreren TU Graz Instituten
Projektleiter/in an der OE
Fördergeber*innen
- Eidgenössische Departement für Umwelt, Verkehr, Energie und Kommunikation (UVEK), Bundesamt für Strassen ASTRA
- LPM AG
Forschungsgebiete
Ende: 30.03.2027
Beginn: 30.06.2024
The main objectives of this proposal are to investigate fundamental physicochemical properties of 6 local inorganic wastes, to gain the basic knowledge on the utilization prospects of the latter to be used in AAM materials. In this context, understanding the leaching behaviour of the wastes in strongly alkaline settings and to develop experimental setups to remove/stabilize potential environmental harmful elements, so far limiting industrial applications, is key. Findings of the project form the basis for future development of industrial exploitation strategies of large local waste deposits to be utilized in the construction industry, following the overall strategy for a climate neutral economy by 2050.
Mitarbeiter*innen
Konsortialführer/in bzw. Koordinator/in bei Kooperationen mit externen Organisationen
Cyrill Grengg
Dr.rer.nat. BSc MSc
Dr.rer.nat. BSc MSc
Projektleiter/in an der OE
Fördergeber*innen
- Österreichischer Wissenschaftsfonds FWF, FWF
Externe Partner
- Zavod za gradbeništvo Slovenije, ZAG Ljubljana
Forschungsgebiete
Ende: 30.08.2026
Beginn: 31.08.2023
Development of an alternative concept for an efficient, more cost-effective storage cover - Solar Storage South project for Graz.
Mitarbeiter*innen
Projektleiter/in an der OE
Fördergeber*innen
- Wärmespeicher Weitendorf GmbH
Forschungsgebiete
Ende: 29.06.2026
Beginn: 29.02.2024
Fine fractions are ubiquitous in waste management. In Austria, the mechanical treatment of various waste streams (construction waste, municipal and commercial waste, waste incineration plant bottom ash, shredder residue processing plants) generates an estimated 1.9 million tons of various fine fractions annually, which corresponds to approx. 6.5 % of the total Austrian waste generation (excluding excavated soil). Despite this considerable amount, fine fractions are usually seen as an undesirable problematic fraction due to their heterogeneity, agglomeration tendency, or pollutant load, and are not reintroduced into material cycles, but are either incinerated and resulting residues are landfilled, or are directly deposited on landfills. However, fine fractions contain substantial amounts of materials that represent valuable resources and should be used as such. This poses a considerable challenge to recycling, since the dissipation of pollutants must be avoided. The motivation for the project is therefore to close material cycles of metals and mineral materials while simultaneously removing or immobilizing pollutants.
The aim and innovation of the MeteoR project is to reintegrate these large quantities of currently problematic fine fractions into material cycles and to use them as a resource, thus making a significant contribution to the further development of the circular economy and in a broader sense to the reduction of CO2 emissions in Austria.
Particularly, the following interdisciplinary approaches are being pursued:
1) Characterization of fine fractions and mechanical processing for the production of recyclable concentrates, secondary raw materials, cement aggregates and pollutant-depleted substitute fuels for the cement industry;
2) Testing of thermochemical treatment processes for fine fractions that cannot be further processed mechanically;
3) Research on the slags resulting from thermochemical treatment and their suitability for the production of alternative binders (AAM), supplementary cementitious materials (with hydraulic reactivity);
4) Removal/immobilization of pollutants;
5) LCA of the investigated recovery routes as well as a systemic-waste-economic evaluation.
The innovation of the project is to test technology concepts to deliver all components of fine fractions (mineral, metallic, organic) to the highest quality and best possible recovery. Through the holistic, systemic approach, the project supports a number of UN Sustainable Development Goals and EU Green Deal targets. The desired results are experimentally confirmed technology concepts for the mechanical-thermochemical treatment of previously unusable fine fractions from waste treatment plants to close material cycles without pollutant spreading. The aim is to gain a fundamental understanding of the composition and utilization potential of fine fractions, the mobility of pollutants, their removability by mechanical processing and their immobilization by thermochemical processes or alkaline activation.
Mitarbeiter*innen
Konsortialführer/in bzw. Koordinator/in von mehreren TU Graz Instituten
Projektleiter/in an der OE
Cyrill Grengg
Dr.rer.nat. BSc MSc
Dr.rer.nat. BSc MSc
Fördergeber*innen
- FCC Austria Abfall Service AG
- Bernegger GmbH
- Lafarge Cement Technical Center Vienna GmbH
- Österreichische Forschungsförderungsgesellschaft mbH (FFG) , FFG
- IFE Aufbereitungstechnik GmbH
Externe Partner
- Montanuniversität Leoben, Department Umwelt- und Energieverfahrenstechnik, Lehrstuhl für Abfallverwertungstechnik und Abfallwirtschaft
- Rheinisch-Westfälische Technische Hochschule Aachen, RWTH
Forschungsgebiete
Ende: 27.02.2026
Beginn: 28.02.2023
In the BitKOIN project, two technology concepts are being combined to develop a "granulated blast furnace slag 2.0" and the functional proof of this combination is being provided at system level. This takes into account two different market requirements: the waste management industry expects the development of a recycling path for mineral wool waste by 01.01.2027. The binder industry expects a replacement for blast furnace slag, which will no longer be produced in the future due to the decarbonization of the iron and steel industry and the associated phase-out of the blast furnace route, and requires quantities for this that exceed the annual volume of mineral wool waste (approx. 30,000 t in Austria). They can therefore only be achieved through a combination of residual materials. The project contributes to the strategic goals of the Austrian circular economy strategy in that, despite the elimination of traditional granulated blast furnace slag, larger quantities of primary raw materials do not have to be used for the future production of binders. Instead, mineral wool waste is deposited in combination with other residual materials, thus saving landfill volume. Overall, this has a positive effect on the climate and the environment, contributes to the security of supply of the Austrian binder industry even without granulated blast furnace slag, and establishes an Austrian network for closing mineral material cycles by building up knowledge and cooperation.
Mitarbeiter*innen
Konsortialführer/in bzw. Koordinator/in von mehreren TU Graz Instituten
Projektleiter/in an der OE
Martin Dietzel
Univ.-Prof. Dipl.-Min. Dr.rer.nat.habil.
Univ.-Prof. Dipl.-Min. Dr.rer.nat.habil.
Fördergeber*innen
- Rohrdorfer Umwelttechnik GmbH
- Lafarge Cement Technical Center Vienna GmbH
- Porr Umwelttechnik GesmbH
- IB Engineering GmbH
- Österreichische Forschungsförderungsgesellschaft mbH (FFG) , FFG
- Saint-Gobain Austria GmbH
Externe Partner
- Montanuniversität Leoben, Department Umwelt- und Energieverfahrenstechnik, Lehrstuhl für Abfallverwertungstechnik und Abfallwirtschaft
Forschungsgebiete
Ende: 27.02.2026
Beginn: 28.02.2023
FFG collective research project "Sprayed optimized concrete” (SpOC), aimed at developing, testing and practically demonstrating durable, high-strength, climate-friendly shotcrete. The project is especially focused on establishing life-cycle guidance applications for shotcrete sustainability, using and characterising innovative cementitious materials, developing novel analysis methods for internal shotcrete structure, and practical large-scale testing of shotcrete recipes
Mitarbeiter*innen
Projektleiter/in an der OE
Marcella Ruschi Mendes Saade
Mestra Dr.
Mestra Dr.
Teilnehmer*innen / Mitarbeiter*innen
Fördergeber*innen
- Österreichische Bautechnikveranstaltungs GmbH, ÖBV
- Österreichische Forschungsförderungsgesellschaft mbH (FFG) , FFG
Externe Partner
- Leopold-Franzens-Universität Innsbruck, Institut für Konstruktion und Materialwissenschaften
Forschungsgebiete
Ende: 30.12.2025
Beginn: 30.09.2022
The starting point for further developments in IoT4SHM are the technologies developed in the FFG project "PreMainSHM" and the EU project "SensMat", namely a wireless sensor system and, as a special feature, an intelligent software framework that has extensive analysis functions. Thus, analysis and forecasting procedures relevant for condition and risk assessment as well as service life prediction were and are being further developed, adapted and evaluated with the aim of on-site data cleansing and simultaneous data reduction and data fusion. In addition, both data models and analysis tools were prototypically developed and integrated into an interoperable software framework. The latter enables the representation of the state information in the form of a georeferenced digital twin via web user interfaces.
Within IoT4SHM, a sustainable and cost-efficient overall solution (modular system) for building monitoring in the form of a wireless incl. cloud-based software framework with tools for data analysis and visualisation, preventive risk assessment, documentation and alerting will be developed to market maturity. End users will have an IoT system at their disposal with which they can not only record and seamlessly document environmental influences in a simple and clear manner, but can also use specific analysis tools for the variety of different damage mechanisms and causes of damage, which enable a simple and plausible condition assessment and damage prognosis of buildings without complex calculations. The applications range from monitoring existing structures (especially bridges) to historical structures. Software interfaces enable the use of the monitoring data or the knowledge gained from it in GIS or BIM-based systems, in tools for structural design or recalculation or in asset maintenance and management systems.
Mitarbeiter*innen
Projektleiter/in an der OE
Fördergeber*innen
- Österreichische Forschungsförderungsgesellschaft mbH (FFG) , FFG
Forschungsgebiete
Ende: 30.07.2025
Beginn: 31.01.2024
Testing bridge waterproofing systems acc. to RVS 15.03.12 for FSV permission.
Mitarbeiter*innen
Projektleiter/in an der OE
Fördergeber*innen
- Bauder GesmbH
Forschungsgebiete
Ende: 30.12.2024
Beginn: 22.03.2023
On the way to climate neutrality in the construction industry (CO neutrality by 2040 in Austria and 2050 in the EU), the greening of concrete construction represents a major challenge. Concrete is the most widely used building material worldwide and, with its emission-intensive component Portland cement clinker, contributes significantly to CO emissions (globally around 8%). On the other hand, it is indispensable for the construction of sustainable infrastructure, the expansion of renewable energies, buildings for climate change adaptation and much more, even in times of transformation to a sustainable environmentally friendly economy. In order to be able to use concrete in a climate-friendly way, a step-by-step complete decarbonization of concrete construction is necessary, which can succeed through contributions from all actors along the concrete production value chain. This project makes a significant contribution in the field of concrete production and the design of concrete structures by laying the foundations for climate-compatible, performance-oriented concrete concepts.
In addition to climate compatibility and functional performance, the aspect of the greatest possible durability of concrete plays a decisive role in its sustainability. Good durability properties of concrete against the multiple impacts (exposures) and high quality during execution enable a long service life and thus reduced environmental impacts and costs over the entire life cycle. The latter is particularly important for the long-term economic viability of public buildings, for example.
The existing descriptive regulations of concrete standardization (such as ÖNORM B 4710-1:2018) make it difficult to really exploit the existing potential of decarbonization of concrete. Obstacles include (i) rigid specifications for minimum cement content, (ii) limits on the allowable amount of low-emission additives in the binder, and (iii)the lack of class-forming requirements for durability characteristics of concrete types, and (iv) the lack of reduction pathways for CO emissions. The industry-wide basis for new performance-based design and verification concepts for climate-compatible and durable concrete (based on statistically validated, extensive data and testing experience) must therefore first be created.
Mitarbeiter*innen
Konsortialführer/in bzw. Koordinator/in von mehreren TU Graz Instituten
Projektleiter/in an der OE
Fördergeber*innen
- Österreichische Bautechnikveranstaltungs GmbH, ÖBV
- Österreichische Forschungsförderungsgesellschaft mbH (FFG) , FFG
Externe Partner
- Höhere Technische Bundeslehr- u Versuchsanstalt - HTL Bau u Kunst
Forschungsgebiete
Ende: 30.08.2024
Beginn: 30.06.2023
The CO2 and energy-intensive iron and steel and building materials industries play a central role on the way to a resource-saving and efficient circular economy. The cross-sector recycling of bottom ash in a targeted combination with other secondary raw materials for the recovery of valuable metals and the development of low-CO2 binder components makes a significant contribution to decarbonization and climate neutrality.
The aim of the present project is to make slag from steel production using electric arc furnaces usable through suitable treatment steps on the one hand as a metallic secondary raw material and on the other hand as a mineral cement additive. For this purpose, the necessary procedural and metallurgical basics, the recovery rates of the metals and the targeted "activation" of the mineral content are being researched.
Mitarbeiter*innen
Projektleiter/in an der OE
Fördergeber*innen
- Amt der Steiermärkischen Landesregierung, Abteilung Wirtschaft, Tourismus, Wissenschaft und Forschung, Zukunftsfonds Steiermark - Geschäftsstelle, A12
Externe Partner
- Montanuniversität Leoben, Department Umwelt- und Energieverfahrenstechnik, Lehrstuhl für Thermoprozesstechnik
Forschungsgebiete
Ende: 30.07.2024
Beginn: 31.01.2023
PreMainSHM - Preventive structural health monitoring with intelligent, interconnected sensor systems
The project PreMainSHM aims to raise the area of preventive structural health monitoring (SHM) to a new level of networked systems. This applies not only to the networking of self-sustaining sensors and their sensor data, but also to the networking and utilization of relevant information for the building condition assessment and building management. The main aim of the project is to further develop existing components in the interaction of the various systems for exemplary application scenarios and to integrate them into a cloud-based, scalable, but also highly efficient and interoperable system.
The starting point for further developments is provided by the applicants’ existing technologies as well as their existing know-how in the field of wireless sensor networks and fiber optic systems. The proposed monitoring concepts are based on a separation into passive, embeddable sensor components and exchangeable measurement electronics. The aim is to provide cost-effective, robust, embeddable sensors based on electrical measurement principles that can be calibrated if necessary, for permanent installation on the building and to combine them with distributed fiber optic sensors (DFOS) in a complete monitoring solution.
In order to obtain information relevant to the building management, suitable analysis and prognosis procedures are being further developed, adapted and evaluated with the aim of on-site data cleansing and simultaneous data reduction and data fusion. In addition to model-based algorithms, artificial intelligence (AI) methods are used and integrated into an interoperable software framework. The latter enables the status information to be displayed in the form of a digital twin via web user interfaces, as well as the integration of the status information in building management systems via other interfaces.
Mitarbeiter*innen
Konsortialführer/in bzw. Koordinator/in von mehreren TU Graz Instituten
Projektleiter/in an der OE
Werner Lienhart
Univ.-Prof. Dipl.-Ing. Dr.techn.
Univ.-Prof. Dipl.-Ing. Dr.techn.
Fördergeber*innen
- ASFINAG Autobahnen- und Schnellstraßen-Finanzierungs-Aktiengesellschaft
- Österreichische Forschungsförderungsgesellschaft mbH (FFG) , FFG
Forschungsgebiete
Ende: 29.06.2024
Beginn: 30.06.2021
Testing bridge waterproofing Systems acc. to RVS 15.03.12 for FSV permission.
Mitarbeiter*innen
Projektleiter/in an der OE
Fördergeber*innen
- BMI Austria GmbH
Forschungsgebiete
Ende: 30.05.2024
Beginn: 18.01.2024
The project COOL-QUARTER-PLUS was developed to counteract the current trend towards inefficient individual units with coordinated cooling concepts at neighbourhood level. The focus is on office and research quarters, because here central measures are more likely to be implemented than in heterogeneous residential or mixed-use quarters due to the ownership structure and central management.
Mitarbeiter*innen
Konsortialführer/in bzw. Koordinator/in von mehreren TU Graz Instituten
Thomas Mach
Dipl.-Ing. Dr.techn.
Dipl.-Ing. Dr.techn.
Projektleiter/in an der OE
Martin Fürnschuß
Dipl.-Ing. BSc
Dipl.-Ing. BSc
Richard Heimrath
Dipl.-Ing. Dr.techn.
Dipl.-Ing. Dr.techn.
Christoph Hochenauer
Univ.-Prof. Dipl.-Ing. Dr.techn.
Univ.-Prof. Dipl.-Ing. Dr.techn.
Mike Alexander Lagler
Dipl.-Ing. BSc
Dipl.-Ing. BSc
Gerald Schweiger
Mag.phil. Dr.techn. MA MA
Mag.phil. Dr.techn. MA MA
Teilnehmer*innen / Mitarbeiter*innen
Fördergeber*innen
- Österreichische Forschungsförderungsgesellschaft mbH (FFG) , FFG
Forschungsgebiete
Ende: 30.03.2024
Beginn: 30.09.2020
In the project "Digitalisation meets high-performance concrete", we are working on the development of a recyclable, high-performance concrete for the quality-assured production of innovative concrete products (focus on drainage systems) and corresponding production processes. For the first time, the cross-linked production steps or sub-processes are to be digitally modelled and the product quality is to be continuously increased by means of big data analyses.
Mitarbeiter*innen
Projektleiter/in an der OE
Fördergeber*innen
- Amt d Oberösterreichischen Landesregierung
- Österreichische Forschungsförderungsgesellschaft mbH (FFG) , FFG
- BG - Graspointner GmbH
Forschungsgebiete
Ende: 30.10.2023
Beginn: 31.10.2021
High-resolution Luminescent Analyses of Construction Materials
The pH and chloride content of concrete-based construction materials are key parameter for the assessment of their stability and long-term performances, since major types of chemical degradation mechanisms such as carbonation, chloride induced steel corrosion, as well as leaching and acid attack are strongly associated with a change of the latter. The aim of this project is to explore luminescent analytical methods as an advanced technique for the measurements of pH and chloride on and in concrete-based materials in order to determine the state of repair of concrete constructions and to increase the understanding of ongoing corrosion processes. The main goals can be summarized as follows:
- Target-oriented development of high-resolution imaging system for pH, chloride and potentially further relevant ions (e.g. potassium and calcium).
- On-site application of the measurement method as a simple, fast and economical analytical tool for the state-of-repair of concrete infrastructure (e.g. miniaturized probes and/or sensor particles).
- Improvement of the process understanding of important alteration processes in concrete and elaboration of recommendations for applications & material developments.
Mitarbeiter*innen
Projektleiter/in an der OE
Martin Dietzel
Univ.-Prof. Dipl.-Min. Dr.rer.nat.habil.
Univ.-Prof. Dipl.-Min. Dr.rer.nat.habil.
Torsten Mayr
Assoc.Prof. Dipl.-Chem. Dr.rer.nat.
Assoc.Prof. Dipl.-Chem. Dr.rer.nat.
Fördergeber*innen
- Österreichische Forschungsförderungsgesellschaft mbH (FFG) , FFG
- Österreichische Bautechnikveranstaltungs GmbH, ÖBV
Forschungsgebiete
Ende: 30.07.2023
Beginn: 31.01.2020
In alignment with the Paris Agreement, Austria is committed to development towards a climate neutral society. The ParisBuildings project addresses the implications on buildings in Austria, considering both operational and embodied emissions. Moreover, the project combines environmental with economic assessments and develops Paris compatible public procurement requirements. The derived recommendations are evaluated based on case studies to support Austria’s policymakers.
Mitarbeiter*innen
Konsortialführer/in bzw. Koordinator/in bei Kooperationen mit externen Organisationen
Projektleiter/in an der OE
Günter Getzinger
Ass.Prof. Dipl.-Ing. Dr.phil.
Ass.Prof. Dipl.-Ing. Dr.phil.
Karl Steininger
Ao.Univ.-Prof. Dr.rer.soc.oec.
Ao.Univ.-Prof. Dr.rer.soc.oec.
Teilnehmer*innen / Mitarbeiter*innen
Helmuth Kreiner
Dipl.-Ing. Dr.techn.
Dipl.-Ing. Dr.techn.
Marco Scherz
Dipl.-Ing. Dipl.-Ing. BSc
Dipl.-Ing. Dipl.-Ing. BSc
Barbara Truger
BSc MSc
BSc MSc
Fördergeber*innen
- Klima- und Energiefonds
Externe Partner
- Universität Graz, Wegener Zentrum für Klima und Globalen Wandel
Forschungsgebiete
Ende: 29.06.2023
Beginn: 30.11.2019
In the “UpcycSlag-Binder” research project, the fundamentals for the provision of new, sustainable binders for mineral building materials made from residual materials and supplements are to be researched. An interdisciplinary consortium made up of the scientific partners Montan University Leoben - Chair for Thermal Process Technology (TPT) and Graz University of Technology - Institute for Materials Testing and Building Material Technology with TVFA (IMBT) will work together with regional partners.
The present project aims at making previously dumped metallurgical residues usable by means of suitable treatment, cooling and processing steps and by combining them with other secondary raw materials. For this purpose, the necessary process engineering fundamentals as well as the binder effectiveness or reaction mechanisms are explored and the properties or characteristic values of the new, sustainable binders are evaluated with regard to technical performance, CO2 emissions and recyclability.
Mitarbeiter*innen
Projektleiter/in an der OE
Martin Dietzel
Univ.-Prof. Dipl.-Min. Dr.rer.nat.habil.
Univ.-Prof. Dipl.-Min. Dr.rer.nat.habil.
Fördergeber*innen
- Amt der Steiermärkischen Landesregierung, Abteilung Wirtschaft, Tourismus, Wissenschaft und Forschung, Zukunftsfonds Steiermark - Geschäftsstelle, A12
- Stadt Graz - Klimaschutzfonds, Klimafonds
Externe Partner
- Montanuniversität Leoben, Department Umwelt- und Energieverfahrenstechnik, Lehrstuhl für Thermoprozesstechnik
Forschungsgebiete
Ende: 29.06.2023
Beginn: 31.12.2020
More than 275 million tons of asphalt are produced every year in Europe alone for maintenance and rehabilitation of roads. It results in large amounts of greenhouse gasses releases into the atmosphere and in the consumption of vast quantities of resources. To reduce the impact of road maintenance and rehabilitation, HERMES will provide a methodology able to select the best available technology and strategy with the lowest cost for the environment and society.
Mitarbeiter*innen
Konsortialführer/in bzw. Koordinator/in von mehreren TU Graz Instituten
Teilnehmer*innen / Mitarbeiter*innen
Endrit Hoxha
Dr. Master
Dr. Master
Helmuth Kreiner
Dipl.-Ing. Dr.techn.
Dipl.-Ing. Dr.techn.
Tajda Potrc Obrecht
Dipl.-Ing. dipl. inz. arh. (UN) dr.
Dipl.-Ing. dipl. inz. arh. (UN) dr.
Theres Reisinger
Fördergeber*innen
- Österreichische Forschungsförderungsgesellschaft mbH (FFG) , FFG
Externe Partner
- Norges teknisk-naturvitenskapelige universitet, NTNU
- SINTEF
- Shandong University, SDU
- Wuhan University of Technology, WHUT
Forschungsgebiete
Ende: 30.03.2023
Beginn: 28.02.2019
CARBAFIN will develop, based on an integrated biocatalytic production technology, a radically new value chain for the utilisation of surplus sucrose, estimated to exceed 300 kilotons/year as of 2019, from sugar beet biomass in the EU. CARBAFIN will demonstrate bio-based co-production of a functional glucoside and fructose. The glucoside products of CARBAFIN have large-scale uses in nutrition and feed, cosmetics and detergents (≥ 100 kilotons/year). Fructose is exploited in the production of 5-hydroxymethylfurfural (HMF), a versatile chemical building block currently considered for making bio-based plastics. Leading platform technologies in biocatalytic cell factories and downstream processing, conjointly optimised in CARBAFIN for performance efficiency and cost-effectiveness under full integration of LCA and economic evaluation, are key to make industrial co-production of glycosides and HMF via fructose competitive in today's markets (≤ 5 € production costs/kg). In addition, CARBAFIN contributes to the establishment of new, fully renewables-based value chains across the European industries, linking the sugar industry sector to the cosmetics, chemicals, polymer and detergents sectors and strengthening the sugar industries' role in food and feed. It supports the efficient cascading use of sugar beet-derived sucrose in combination with biomass-derived base chemicals (e.g. glycerol, glucose). CARBAFIN's HMF production aims at replacing petroleum-based chemicals with bio-based building blocks. CARBAFIN will thus contribute to development of a chemical industry that is low-carbon, resource-efficient and sustainable. CARBAFIN will help Europe to maintain global leadership in industrial biotechnology and secure position as innovation leader in sugar-based products. CARBAFIN's innovations will involve broadly the engagement of societal actors with particular emphasis on consumer awareness and acceptance.
Mitarbeiter*innen
Konsortialführer/in bzw. Koordinator/in von mehreren TU Graz Instituten
Bernd Nidetzky
Univ.-Prof. Dipl.-Ing. Dr.techn.
Univ.-Prof. Dipl.-Ing. Dr.techn.
Projektleiter/in an der OE
Mario Klimacek
Priv.-Doz. Dipl.-Ing. Dr.nat.techn.
Priv.-Doz. Dipl.-Ing. Dr.nat.techn.
Barbara Petschacher
Dipl.-Ing. Dr.techn.
Dipl.-Ing. Dr.techn.
Teilnehmer*innen / Mitarbeiter*innen
Rudolf Grünbichler
BA MA
BA MA
Helmuth Kreiner
Dipl.-Ing. Dr.techn.
Dipl.-Ing. Dr.techn.
Marco Scherz
Dipl.-Ing. Dipl.-Ing. BSc
Dipl.-Ing. Dipl.-Ing. BSc
Bernd Markus Zunk
Assoc.Prof. Priv.-Doz. Dipl.-Ing. Dipl.-Ing. Dr.techn.
Assoc.Prof. Priv.-Doz. Dipl.-Ing. Dipl.-Ing. Dr.techn.
Fördergeber*innen
- European Commission - Europäische Kommission, EU
Externe Partner
- acib GmbH
- Ghent University, Centre for Industrial Biotechnology and Biocatalysis, Faculty of Bioscience Engineering
Forschungsgebiete
Ende: 30.12.2022
Beginn: 31.12.2017
The “City Remixed” project opens the way for the circular economy in the construction sector in Graz. For this purpose, the urban area is analysed as closed system in which all built material is digitally recorded as a future building resource, enriched with metadata and thus made accessible for reuse and recycling, which will be demonstrated by renewal scenarios. Findings and effects on the building industry resulting from this process are prepared as fields of action, decision-making bases and recommendations with regard to the "Green Transformation" for the city, investors, planners and residents.
Mitarbeiter*innen
Konsortialführer/in bzw. Koordinator/in bei Kooperationen mit externen Organisationen
Matthias Raudaschl
Dipl.-Ing. Dr.techn. BSc
Dipl.-Ing. Dr.techn. BSc
Georgios Triantafyllidis
MU Dott. Mag. M.Sc.
MU Dott. Mag. M.Sc.
Konsortialführer/in bzw. Koordinator/in von mehreren TU Graz Instituten
Roger Riewe
Univ.-Prof. Dipl.-Ing. Architekt
Univ.-Prof. Dipl.-Ing. Architekt
Projektleiter/in an der OE
Teilnehmer*innen / Mitarbeiter*innen
Ernst Dengg
Dipl.-Ing.
Dipl.-Ing.
Alexander Lukas Gündera
Selina Haingartner
Bernd Hausegger
Dipl.-Ing. BSc
Dipl.-Ing. BSc
Carina Kurz
Dipl.-Ing.
Dipl.-Ing.
Toni Levak
Dipl.-Ing.
Dipl.-Ing.
David Schlegl
Fördergeber*innen
- Amt der Steiermärkischen Landesregierung, Abteilung Wirtschaft, Tourismus, Wissenschaft und Forschung, Zukunftsfonds Steiermark - Geschäftsstelle, A12
Forschungsgebiete
Ende: 30.10.2022
Beginn: 31.10.2021
The aim of the project is the structured preparation of the planning and decision-aiding processes for the digitalization of building permit procedures. For this purpose, the actual processes at municipal and city level will be analyzed and compared with the processes of a fictitiously submitted pilot project. Finally, problem areas are identified, optimization potentials are shown and target processes are derived. The cooperation and involvement of other cities and actors in project workshops is explicitly envisaged in order to achieve a broad acceptance and dissemination potential.
Mitarbeiter*innen
Konsortialführer/in bzw. Koordinator/in bei Kooperationen mit externen Organisationen
Projektleiter/in an der OE
Marco Scherz
Dipl.-Ing. Dipl.-Ing. BSc
Dipl.-Ing. Dipl.-Ing. BSc
Teilnehmer*innen / Mitarbeiter*innen
Michael Johannes Ortmann
BSc
BSc
Daniel Plazza
BSc
BSc
Fördergeber*innen
- Bundesministerium für Verkehr, Innovation und Technologie, BMVIT
- Österreichische Forschungsförderungsgesellschaft mbH (FFG) , FFG
Forschungsgebiete
Ende: 29.09.2022
Beginn: 30.09.2019
Preventive conservation (PC) has emerged as an important approach to save and ensure long-term health of sensitive cultural heritage (CH) movable artefacts currently displayed in inappropriate environmental conditions in small and medium EU museums. The aim of SensMat is to develop and implement innovative, low cost and user-friendly tools, including a decision making tool, with recommendations and guidelines for museum management and staff in charge of collection preservation. SensMat methodology will combine the results of a preliminary survey involving SensMat advisory group and relevant stakeholders’ feedbacks (cultural institutions, regions, certifications organisms, academies, museums, industrials) and include 8 WPs driven by a consortium with strong capacity to provide a new preventive solution achieving a TRL 7 maturity. SensMat concept is built around new sensors systems that monitor collection environments and continuously assess specific materials degradations. Based on multiscale modelling, data management systems, collaborative platforms and sensor communication networks (IoT), museums stakeholders will be informed in real-time of possible dangers to their artefacts, thus reducing degradation risks and costly conservation treatment. 10 representative case studies in museums , historical buildings, storage sites and workshops ((in Denmark, France and Austria), knowledge transfer, specific trainings, and recommendations of best practices will facilitate standardization, strategy implementation, new policy definition, and finally adoption of the new PCCH solution by all CH stakeholders.
Mitarbeiter*innen
Projektleiter/in an der OE
Alexander Bergmann
Univ.-Prof. Mag.rer.nat. Dr.rer.nat.
Univ.-Prof. Mag.rer.nat. Dr.rer.nat.
Fördergeber*innen
- European Commission - Europäische Kommission, EU
Externe Partner
- De Kulturhistoriske Museer i Holstebro Kommune
- Commissariat à l'énergie atomique et aux énergies alternatives, CEA
- Centre national de la recherche scientifique, CNRS
- Université de Bretagne Occidentale, UBO
- Universität Stuttgart, Materialprüfungsanstalt (MPA)
- Linköpings universitet
- Università Iuav di Venezia
- STRESS S.c.ar.l., Sviluppo Tecnologie e Ricerca per l’Edilizia Sismicamente Sicura ed ecoSostenibile, STRESS
- RISE Acreo
- Institut de la Corrosion SAS
- Métropole de Lyon
- Universalmuseum Joanneum GmbH
- Centre International de Rencontres Mathématiques, CIRM
Forschungsgebiete
Ende: 30.08.2022
Beginn: 31.12.2018
The main objective is the thermal improvement of geotechnical structural elements e.g. diaphragm walls, which are used for the construction of underground structures.
Mitarbeiter*innen
Konsortialführer/in bzw. Koordinator/in von mehreren TU Graz Instituten
Matthias Rebhan
Dipl.-Ing. Dipl.-Ing. Dr.techn. BSc Baumeister
Dipl.-Ing. Dipl.-Ing. Dr.techn. BSc Baumeister
Projektleiter/in an der OE
Viet Tue Nguyen
Univ.-Prof. Dr.-Ing. habil.
Univ.-Prof. Dr.-Ing. habil.
Dirk Schlicke
Univ.-Prof. Dipl.-Wirtsch.-Ing. Dr.techn.
Univ.-Prof. Dipl.-Wirtsch.-Ing. Dr.techn.
Fördergeber*innen
- Österreichische Forschungsförderungsgesellschaft mbH (FFG) , FFG
Externe Partner
- Universität Graz, Institut für Erdwissenschaften
Forschungsgebiete
Ende: 29.04.2022
Beginn: 02.08.2020
Order for the scientific support of constructional use of CO2-reduced concrete is based on the knowledges of ERESCON. The task is to verify Eco-filler/Micro-filler concept at an prototypical building (Durchlassbauwerk), which was built during the construction of the Prottendorfer railway line.
Mitarbeiter*innen
Projektleiter/in an der OE
Fördergeber*innen
- ÖBB-Infrastruktur Aktiengesellschaft
Forschungsgebiete
Ende: 30.03.2022
Beginn: 31.01.2017
Investigation in the cement and mortar testing laboratory.
Mitarbeiter*innen
Projektleiter/in an der OE
Fördergeber*innen
- voestalpine Metal Engineering GmbH & Co KG
Forschungsgebiete
Ende: 30.03.2022
Beginn: 31.10.2021
Microbial induced concrete corrosion (MICC) is accounted for ~40 % of the degradation of concrete based subsurface wastewater infrastructure globally. A further problem is the toxic outgazing, which poses a serious health hazard. In Germany a use of 450 Mil. Euro for repair measures of MICC-damaged sewer systems are documented each year. The number of unreported cases is suspected to be significantly higher.
At present there are two usual ways, how to repair such sewer constructions: Firstly by mounting inliners made from plastic and secondly by coating the inner surfaces. The latter is mostly realised by the use of organic polymer-modified mortars and synthetic resins (i.e. epoxy). A great number of such measures of repair turned out to be costly and non-durable. This is the reason why alternative materials, especially inorganic ones based on the silicate-technology, were developed and launched. These materials are used for making very thin (up to 3mm) coatings. Their long-lasting protective function has not been proven yet. Conventional sulphate attack happens via fluid transport whereas MICC progresses due to the transport and diffusion of aggressive gases such as H2S and CO2 and subsequent microbial transformations. Thin coatings from silicate-based inorganic materials are generally water-proof but permeable to gas and therefore they cannot sufficiently work as a MICC barrier for the standard concrete beyond. One of the most acid-resistant silicate-based materials are Geopolymers. However, their physical and microstructural properties vary in a wide range depending on their composition.
If Geopolymers are mixed with aggregates, one gets Geopolymer Concrete (GPC). The project consortium developed specific compositions of GPC, highly resistant against MICC. Further previous research work pointed out, that certain metallic admixtures significantly inhibit the growth of relevant bacteria steering this highly corrosive attack of concrete.
Based on these findings the outlined project BioResComp deals with the idea to use such innovative bacteriostatic Geopolymer Concrete as a more solid construction material instead of thin coating applications for both, repair measures and new construction of waste-water buildings. One can expect that constructing without any standard concrete will not be an economic future way. Therefore, the project proposes a new composite technique by combining a standard concrete part with a GPC part. The key of this technique is a very strong bond between the two materials. Main goal of the project is to study the mechanical composite behavior and the resistance of composites to MICC. A multi-disciplinary and mainly experimental research approach will help to get a comprehensive understanding of all the interdependencies between material composition, GPC-thickness, bond behavior, crack formation, bacterial growth and the corrosion mechanisms. We follow the hypothesis, that at certain thicknesses of the new bacteriostatic GPC layer (typically a few centimeters) a balance between the microbial growth (attack) and the corresponding resistance of the composite system will come into being.
Mitarbeiter*innen
Konsortialführer/in bzw. Koordinator/in von mehreren TU Graz Instituten
Bernhard Freytag
Priv.-Doz. Dipl.-Ing. Dr.techn.
Priv.-Doz. Dipl.-Ing. Dr.techn.
Projektleiter/in an der OE
Cyrill Grengg
Dr.rer.nat. BSc MSc
Dr.rer.nat. BSc MSc
Fördergeber*innen
- banah UK Ltd
- MM Kanal-Rohr-Sanierung GmbH
- Österreichische Forschungsförderungsgesellschaft mbH (FFG) , FFG
- TIBA AUSTRIA GmbH
Externe Partner
- Universität Graz, Institut für Molekulare Biowissenschaften
Forschungsgebiete
Ende: 27.02.2022
Beginn: 28.02.2019
Main project aims are investigations on the durability of cement clinker reduced concrete with respect to reinforcement corrosion.
Mitarbeiter*innen
Projektleiter/in an der OE
Fördergeber*innen
- Österreichische Bautechnikveranstaltungs GmbH, ÖBV
- Österreichische Forschungsförderungsgesellschaft mbH (FFG) , FFG
Forschungsgebiete
Ende: 30.12.2021
Beginn: 30.09.2017
The project UniNEtZ Universitäten und nachhaltige Entwicklungsziele (translation: Universities and Sustainable Development Goals) wants to strengthen this role of universities in Austria. The interdisciplinary project, involving 17 universities at present (August 2018), aims to build up cooperation between universities in order to work on the SDGs in a more targeted manner. The scientific basis for guiding political decisions and for developing meaningful measures for SDG implementation will be provided by the participating universities in order to support achievement of the SDGs. In order to build on existing expertise, it is important to know the status quo of available sustainability research. During the past months, we have been working on a digital map of research activities related to sustainability topics, based on the definition of the SDGs. The aim of this approach is to identify current focus areas as well as underrepresented research fields related to SDGs to provide universities with a basis for targeted sustainability research. The results are directly integrated into the activities in the frame of the project UniNEtZ.
Mitarbeiter*innen
Projektleiter/in an der OE
Teilnehmer*innen / Mitarbeiter*innen
Daniela Fuchs-Hanusch
Assoc.Prof. Dipl.-Ing. Dr.techn.
Assoc.Prof. Dipl.-Ing. Dr.techn.
Helmuth Kreiner
Dipl.-Ing. Dr.techn.
Dipl.-Ing. Dr.techn.
Matthias Landgraf
Dipl.-Ing. Dr.techn.
Dipl.-Ing. Dr.techn.
Marco Scherz
Dipl.-Ing. Dipl.-Ing. BSc
Dipl.-Ing. Dipl.-Ing. BSc
Antonija Ana Wieser
Bakk.techn. MA
Bakk.techn. MA
Fördergeber*innen
- Bundesministerium für Bildung, Wissenschaft und Forschung , BMBWF
- Technische Universität Graz, Büro des Rektorates
Externe Partner
- Universität Klagenfurt
- Donau-Universität Krems
- Universität Mozarteum Salzburg
- Universität Graz, UNI Graz
- Universität Innsbruck
- Universität für Musik und darstellende Kunst Graz
- Paris-Lodron-Universität Salzburg
- Johannes Kepler Universität Linz, JKU
- Medizinische Universität Graz, MedUni Graz
- Universität für Bodenkultur Wien, BOKU
- Universität für angewandte Kunst Wien
- Montanuniversität Leoben, MU Leoben
- Universität für Musik und darstellende Kunst Wien
Forschungsgebiete
Ende: 30.12.2021
Beginn: 31.12.2018
The intended research is to be used for future decisions on the further development of hydrogen from methane. An LCA of carbon - Life Cycle Assessment - will evaluate the various uses of the solid carbon produced, as well as describe the use of carbon in agriculture and construction, and the resulting properties of building materials and fertilizers. In electrolysis, the energy required for the electrochemical splitting of the water molecule accounts for the largest share of the total CO2 footprint (besides the electrode material). Energy from renewable sources can therefore make a significant contribution to reducing the CO2 footprint. In the case of pyrolysis from methane, the share of energy is significantly lower (thermodynamically only about 1/8 of electrolysis), but the raw material also has a certain CO2 footprint
Mitarbeiter*innen
Projektleiter/in an der OE
Teilnehmer*innen / Mitarbeiter*innen
Marcella Ruschi Mendes Saade
Mestra Ass.Prof. Dr.
Mestra Ass.Prof. Dr.
Fördergeber*innen
- Bundesministerium für Klimaschutz, Umwelt, Energie, Mobilität, Innovation und Technologie, BMK
Externe Partner
- Climate Change Centre Austria, CCCA
- Montanuniversität Leoben, MU Leoben
- Universität Graz, Wegener Zentrum für Klima und Globalen Wandel
- Universität für Bodenkultur Wien, Department für Wald- und Bodenwissenschaften, Institut für Bodenforschung (IBF), BOKU
Forschungsgebiete
Ende: 29.10.2021
Beginn: 31.12.2020
The aim of the project is to compare the 'Sustainable Impact' of purchasing with a quick glance to do. This information comes from numerous policy challenges (SDG, Rio+20, Climate Protection Agreement 2015 / COP21, etc.): It links clearly illustrates purchasing behaviour with sustainable use of resources and energy, extended this economically for the enterprises with a monetary/material, value bonus oriented
customer loyalty system and also generates a regional image of awareness in a global networked world. The developed software system integrates with its interfaces the already existing infrastructure (ERP, cash register systems) and opens up, also in the the sense of digitization, with resource-oriented labeling new sustainable Opportunities in trade.
Mitarbeiter*innen
Projektleiter/in an der OE
Teilnehmer*innen / Mitarbeiter*innen
René Kollmann
Mag.rer.nat.
Mag.rer.nat.
Fördergeber*innen
- Österreichische Forschungsförderungsgesellschaft mbH (FFG) , FFG
Forschungsgebiete
Ende: 29.09.2021
Beginn: 30.09.2019
Developing of recipes for a new product-innovationoffensive of DMH.
Mitarbeiter*innen
Projektleiter/in an der OE
Fördergeber*innen
- Österreichische Forschungsförderungsgesellschaft mbH (FFG) , FFG
- Graspointner GmbH & Co KG - Entwässerungssysteme
Forschungsgebiete
Ende: 30.08.2021
Beginn: 28.02.2019
Characterisation of slags for their utilisation in alkali activated materials.
Mitarbeiter*innen
Konsortialführer/in bzw. Koordinator/in von mehreren TU Graz Instituten
Cyrill Grengg
Dr.rer.nat. BSc MSc
Dr.rer.nat. BSc MSc
Projektleiter/in an der OE
Fördergeber*innen
- voestalpine Stahl Donawitz GmbH
Forschungsgebiete
Ende: 30.03.2021
Beginn: 10.02.2021
Developement of climate-friendly and sustainable neutral building standards for the City of Graz.
Mitarbeiter*innen
Projektleiter/in an der OE
Fördergeber*innen
- Magistrat Graz, Stadtbaudirektion, A10
Forschungsgebiete
Ende: 14.03.2021
Beginn: 11.01.2021
The objective of the project is to develop and implement a scalable temporary and post utilization concept for the brownfield sites. This should enable interested people to permanently or temporarily experience, shape and implement the green infrastructure in their district as a central climate change adaptation measure in cities. For this purpose an innovative demonstration building will be constructed as an example of a temporary use (green.LAB) on the brownfield area in the Smart City district. The green.LAB is a further development of the Urban Boxes of Energie Steiermark aiming at development of a transportable modular timber construction combined with green building concepts, biodiversity, district garden, rainwater management as well as efficient energy supply and the use of renewable energy sources. The green.LAB will be open to different target groups (neighbors / citizens, developers, investors, schools, businesses, administration) as a low- threshold, open learning, working and exhibition space for all topics revolving around urban green as well as a meeting point in the city district. It should be also temporarily used as the office of the district management. The green.LAB as a demonstration building with an innovative temporary-use concept should be scaled up in different urban development areas after the completion of the project. Moreover, concrete usage scenarios as well as use cases, including business models for the “green urban boxes” will be developed and evaluated
Mitarbeiter*innen
Projektleiter/in an der OE
Michael Monsberger
Univ.-Prof. Dipl.-Ing. Dr.techn.
Univ.-Prof. Dipl.-Ing. Dr.techn.
Fördergeber*innen
- Österreichische Forschungsförderungsgesellschaft mbH (FFG) , FFG
- Klima- und Energiefonds
- Stadt Graz, Magistratsdirektion, Sicherheitsmanagement und Bevölkerungsschutz
Externe Partner
- Magistrat Graz, Stadtbaudirektion, A10
Forschungsgebiete
Ende: 30.01.2021
Beginn: 31.01.2018
Concrete technology support shotcrete in the Bosruck tunnel.
Mitarbeiter*innen
Projektleiter/in an der OE
Fördergeber*innen
- ÖBB-Infrastruktur AG, Strecken- und Bahnhofmanagement, Region Nord
Forschungsgebiete
Ende: 30.12.2020
Beginn: 08.12.2019
The technology of the shotcrete in tunneling and underground mining has in Austria in connection with the "New Austrian Tunnelling Method" NATM a traditionally developed over the years with a high quality standard. Austrian companies are leaders in your application and thus successful international. Today new demands are in the foreground, especially a few years ago often underestimated (aggressive) environments in tunnels will increasingly lead to earlier than expected damage anddurability problems. Of which is affected not only the shotcrete, but the entire structure. This means for the operators and users of underground infrastructure constructions (tunnels, galleries, shafts, piping, etc.) are increasingly difficult to calculate risk, to invest limitations in the availability and in case of damage in a very costly repair measures. The technical objectives are the development of shotcrete with high durability, both for repairs and for new buildings. In this resources should be used efficiently and stustainable the context of sustainable development and climate change. This object is combined by the term "ASSpC - Advanced and Sustainable Sprayed Concrete". To achieve this overall objective, it is first necessary to develop recipes, in intermediate steps to put them into spray tests and parallel to define test method for assessing the durability as well as to investigate basic response and damage mechanisms. They may not depart the robustness of the mixtures in the application, nor the high propulsive power are endangered in the tunnel.
Mitarbeiter*innen
Konsortialführer/in bzw. Koordinator/in von mehreren TU Graz Instituten
Projektleiter/in an der OE
Dietmar Klammer
Ao.Univ.-Prof. Dr.phil.
Ao.Univ.-Prof. Dr.phil.
Fördergeber*innen
- Österreichische Forschungsförderungsgesellschaft mbH (FFG) , FFG
- Österreichische Bautechnikveranstaltungs GmbH, ÖBV
Externe Partner
- Ostbayerische Technische Hochschule Regensburg, OTH
- Leopold-Franzens-Universität Innsbruck, Institut für Konstruktion und Materialwissenschaften
Forschungsgebiete
Ende: 29.06.2020
Beginn: 30.06.2016
With this project the existing knowledge gaps regarding UHPC should be closed. Thereby the practical application of UHPC can be pushed forward. A guideline for the application of UHPC will be summarized at the end of the project.
Mitarbeiter*innen
Projektleiter/in an der OE
Bernhard Freytag
Priv.-Doz. Dipl.-Ing. Dr.techn.
Priv.-Doz. Dipl.-Ing. Dr.techn.
Viet Tue Nguyen
Univ.-Prof. Dr.-Ing. habil.
Univ.-Prof. Dr.-Ing. habil.
Fördergeber*innen
- Österreichische Bautechnikveranstaltungs GmbH, ÖBV
Forschungsgebiete
Ende: 29.06.2020
Beginn: 30.06.2019
Floorings for outdoor use, i.e. gardens and terraces, which include also concrete products, consists a great demand in large and thin products. They are very expensive in production-processes. Aim of this project is to develop concrete recipes under well-known production-processes and their adaption. These products should be interesting for the market and have enough stability and resistance as the usual concrete products.
Mitarbeiter*innen
Projektleiter/in an der OE
Fördergeber*innen
- METTEN Stein+Design GmbH & Co. KG
Forschungsgebiete
Ende: 29.04.2020
Beginn: 31.08.2017
Contributor to pilot phase of Level(s), testing the reporting framework for sustainability of buildings. Developed by the European Commissions Joint Research Center (JRC) based on existing standards, Level(s) provides a common EU approach to the assessment of environmental performance in the built environment
Mitarbeiter*innen
Projektleiter/in an der OE
Externe Partner
- European Commission, DG Joint Research Centre (JRC)
Forschungsgebiete
Ende: 30.12.2019
Beginn: 31.07.2018
The objective of this research project is to provide the essential fundaments for a product-related substitution of steel materials by Ultra High Performance Concrete (UHPC). This represents an essential contribution to sustainable construction because steel is significantly more intensive in terms of cost and CO2 emissions than UHPC. Further, raw materials available in Austria and the micro steel fibers of company Voestalpine CPA Filament GmbH will be used.
To achieve the goal of this project, in addition to the development of materials, questions about some basic issues such as the introduction of the prestressing force in thin UHPC components, the bond between normal concrete and UHPC, the connection between UHPC and steel, the confinement effect of UHPC by steel reinforcement and the shear capacity of thin-walled prestressed UHPC panels will be answered. For this purpose, detailed studies using non-linear finite element modeling, engineering models and model experiments are planned. In addition to the investigation into the mechanical relations, studies for the production technology are also scheduled.
The results of the basic research should be verified by laboratory tests to demonstrate the basic feasibility of this idea into practice and also to achieve the first reference values for an economic and ecological assessment in terms of product development in further research steps. The productions of the structural components and the tests will be carried out at the precast plant of Kirchdorfer Fertigteilholding GmbH.
The consortium consisting of TU Graz, FH Kärnten, Kirchdorfer Fertigteilholding GmbH and Voestalpine CPA Filament GmbH has high competence in various fields. Through mutual complement the best requirement for a successful implementation of the proposed research project is created.
Mitarbeiter*innen
Konsortialführer/in bzw. Koordinator/in von mehreren TU Graz Instituten
Viet Tue Nguyen
Univ.-Prof. Dr.-Ing. habil.
Univ.-Prof. Dr.-Ing. habil.
Projektleiter/in an der OE
Fördergeber*innen
- Kirchdorfer Fertigteilholding GmbH
- voestalpine Special Wire GmbH
- Österreichische Forschungsförderungsgesellschaft mbH (FFG) , FFG
Externe Partner
- Fachhochschule Kärnten gemeinnützige Privatstiftung, FH Kärnten
Forschungsgebiete
Ende: 30.12.2018
Beginn: 30.09.2014
The project aims at the (striking) presentation of the ecological footprint (according to the Sustainable Process Index, SPI) of heating systems, considering their whole life cycle for typical single and multi-family houses. The target groups for the results are consumers and energy consultants.
Mitarbeiter*innen
Kontaktperson
Michael Eder
Mag.rer.nat.
Mag.rer.nat.
Fördergeber*innen
- Amt der Steiermärkischen Landesregierung, Abteilung Energie, Wohnbau, Technik, A15
Forschungsgebiete
Ende: 30.12.2018
Beginn: 31.10.2017
In order to achieve the climate goals, sustainability is becoming more and more relevant in all sectors. Due to the long-term cost effects of the operating and maintenance costs and their technical systems, a life cycle-oriented approach is therefore an advantage, especially in infrastructure construction.
With the dynamic life cycle costing (a method from the classical investment calculation) a so-called capital value is determined, with which variants with respect to their costs under consideration of the time value of the money can be compared with each other.
Mitarbeiter*innen
Projektleiter/in an der OE
Helmuth Kreiner
Dipl.-Ing. Dr.techn.
Dipl.-Ing. Dr.techn.
Teilnehmer*innen / Mitarbeiter*innen
Marco Scherz
Dipl.-Ing. Dipl.-Ing. BSc
Dipl.-Ing. Dipl.-Ing. BSc
Fördergeber*innen
- ÖBB-Infrastruktur Aktiengesellschaft
Forschungsgebiete
Ende: 30.12.2018
Beginn: 30.11.2017
For three to five typical damage scenarios of traffic structures the refurbishment and strengthening with textile reinforced concrete is developed. Therefore results of basic research in Germany are evaluated and own supplementary investigations are performed. A direct transfer of the results into practice should be enabled by concrete development with raw materials from Austria, design concepts and a production guideline. By large scale application and load-bearing capacity tests the practical applicability and effectiveness of the developed solutions can be verified.
Mitarbeiter*innen
Projektleiter/in an der OE
Bernhard Freytag
Dipl.-Ing. Dr.techn. Univ.-Doz.
Dipl.-Ing. Dr.techn. Univ.-Doz.
Viet Tue Nguyen
Univ.-Prof. Dr.-Ing. habil.
Univ.-Prof. Dr.-Ing. habil.
Fördergeber*innen
- Österreichische Forschungsförderungsgesellschaft mbH (FFG) , FFG
- ÖBB-Infrastruktur Aktiengesellschaft
- ASFINAG Autobahnen- und Schnellstraßen-Finanzierungs-Aktiengesellschaft
Forschungsgebiete
Ende: 30.08.2018
Beginn: 31.08.2016
Within the scope of the project, the status quo of greenhouse gas emissions (GHGe) of the energy use of the Graz University of Technology should be surveyed, in order to be able to subsequently derive additional energy targets for Graz University of Technology as well as concrete supplementary measures. As part of the balancing process, the first step is to evaluate the GHG emissions, in kg or t CO2 equivalents (CO2e), of the electricity and heat input at the main campuses of Graz University of Technology.
Mitarbeiter*innen
Kontaktperson
Stephan Maier
Mag.rer.nat. PhD
Mag.rer.nat. PhD
Fördergeber*innen
- Technische Universität Graz, Büro des Rektorates
Forschungsgebiete
Ende: 29.04.2018
Beginn: 30.09.2017
Within the scope of the project, the status quo of greenhouse gas emissions (GHGe) of the energy use of the Graz University of Technology should be surveyed, in order to be able to subsequently derive additional energy targets for Graz University of Technology as well as concrete supplementary measures. As part of the balancing process GHG emissions, in kg or t CO2 equivalents (CO2e) of Graz University of Technology are calculated.
Mitarbeiter*innen
Kontaktperson
Stephan Maier
Mag.rer.nat. PhD
Mag.rer.nat. PhD
Fördergeber*innen
- Technische Universität Graz, Büro des Rektorates
Forschungsgebiete
Ende: 29.04.2018
Beginn: 30.09.2017
The Project will extend the implementation of the Roadmap established and endorsed under Pillar I Build Up Skills project in
Slovakia and the Czech Republic to middle and senior level professionals . These Roadmaps identified key measures for
setting up a national qualification and training scheme and other measures for ensuring development of skills essential for
the field of buildings to contribute to the fulfillment of the Europe 2020 energy targets. The project will particularly focus on
key measure 1.3 and facilitate implementation of key measures 1.1, 1.2, 1.5 and 2.2 of the Roadmap endorsed in Slovakia,
and on priority 4.3.1 and measures 1,2 and 4 of the Roadmap endorsed in the Czech Republic.
This will strengthen the qualification of professionals identified as target group in the Roadmaps . The project will facilitate
further investments in the skills anticipated in the EU Roadmap to a Resource Efficient Europe .
Particularly the project will lead to:
• Development of 5 education and training programmes for further education and training of middle and senior professionals
in the field of buildings;
• Setting up permanent network of trainers delivering the training programmes developed under the project;
• Training of trainers for delivery of the programmes;
• Proposal for financial measures to be established to facilitate and motivate middle and senior level professionals in
participating to training programmes and SMEs to invest into further education;
• Proposals to Slovak Government for incentives boosting demand for highly qualified professionals;
• Reaching financing agreements using ESF for dissemination of training programmes.
The project will establish necessary resources and prepare technical, organizational and financial conditions for training and
re-training on energy efficiency and use of renewable energy sources for middle and senior level professionals in the field of buildings.
Mitarbeiter*innen
Projektleiter/in an der OE
Helmuth Kreiner
Dipl.-Ing. Dr.techn.
Dipl.-Ing. Dr.techn.
Teilnehmer*innen / Mitarbeiter*innen
Marco Scherz
Dipl.-Ing. Dipl.-Ing. BSc
Dipl.-Ing. Dipl.-Ing. BSc
Fördergeber*innen
- European Commission - Europäische Kommission, EU
Externe Partner
- Universität für Bodenkultur Wien, BOKU
- Svaz podnikatelů ve stavebnictví v ČR
- Slovenská komora stavebných inžinierov, SKSI
- Narodny ustav celozivotneho vzdelavania
- Zväz stavebných podnikateľov Slovenska
- Slovenská technická univerzita v Bratislave, Fakulta chemickej a potravinárskej technólogie, Ústav fyzikálnej chémie a chemickej fyziky
Forschungsgebiete
Ende: 27.02.2018
Beginn: 28.02.2015
At present, about 33 billion tonnes of concrete are produced each year, and the cement used in concrete is responsible for five percent of total anthropogenic CO2 emissions.
The environmental impact assessment s for ready-mixed
concrete in Austria are calculated using Life Cycle Assessment. For this, 113 mixes from seven ready-mixed concrete companies, which produce around 40% of the ready-mixed concrete used in Austria, were reported.
In order to quantify the uncertainties in the background data, the Monte Carlo simulation method is used.
Mitarbeiter*innen
Kontaktperson
Teilnehmer*innen / Mitarbeiter*innen
Richard Deutsch
Dipl.-Ing. BSc
Dipl.-Ing. BSc
Fördergeber*innen
- Güteverband Transportbeton
Forschungsgebiete
Ende: 30.01.2018
Beginn: 31.12.2016
Non-destructive testing of pillars, ceilings, walls and a foundation plate.
Mitarbeiter*innen
Projektleiter/in an der OE
Fördergeber*innen
- BIG Bundesimmobiliengesellschaft m.b.H.
Externe Partner
- holz.bau forschungs GmbH
Forschungsgebiete
Ende: 30.10.2017
Beginn: 27.04.2017
The "Smart City Project Graz Mitte" is intended to be a premier, demonstrating new urban energy technologies for a smart zero-emission quarter offering great quality of life. Innovative developments in terms of buildings, energy networks and mobility will be linked up to form an urban whole. The integrated holistic planning process involving all relevant players will make smart urban development tangible and come alive.
Mitarbeiter*innen
Projektleiter*innen
Ernst Rainer
Dipl.-Ing.
Dipl.-Ing.
Projektleiter/in an der OE
Thomas Mach
Dipl.-Ing. Dr.techn.
Dipl.-Ing. Dr.techn.
Teilnehmer*innen / Mitarbeiter*innen
Daniel Brandl
Dipl.-Ing. Dr.techn.
Dipl.-Ing. Dr.techn.
Andreas Heinz
Dipl.-Ing. (FH) Dr.techn.
Dipl.-Ing. (FH) Dr.techn.
Helmuth Kreiner
Dipl.-Ing. Dr.techn.
Dipl.-Ing. Dr.techn.
Mike Alexander Lagler
Dipl.-Ing. BSc
Dipl.-Ing. BSc
Peter Josef Nageler
Dipl.-Ing. BSc
Dipl.-Ing. BSc
Hannes Oblak
Dipl.-Ing.
Dipl.-Ing.
Fördergeber*innen
- Österreichische Forschungsförderungsgesellschaft mbH (FFG) , FFG
- Klima- und Energiefonds
Externe Partner
- Magistrat Graz, Stadtbaudirektion, A10
- Hans Höllwart - Forschungszentrum für integrales Bauwesen AG, FIBAG
Forschungsgebiete
Ende: 29.06.2017
Beginn: 30.06.2012
Durable concrete for power plant tunnel by the attack of soft waters.
Mitarbeiter*innen
Projektleiter/in an der OE
Fördergeber*innen
- ÖBB-Infrastruktur Aktiengesellschaft
Forschungsgebiete
Ende: 29.04.2017
Beginn: 30.09.2016
Ziel des vorliegenden Forschungsprojekts ist es, Beton für Fertigteile hinsichtlich seiner Zusam-mensetzung grundlegend zu verbessern, sodass sein Treibhauspotenzial (CO2-Emissionen) sowie sein Ressourcenverbrauch gesenkt werden. Der verbesserte Beton soll eine gleichbleibende Festbetonqualität im Vergleich zu Normalbeton nach Norm sowie eine produktionsorientiert hohe Frühfestigkeit aufweisen. Betrachtet wird von Anfang an das Fünfstoff-System Beton (Zement, Wasser, Gesteinskörnungen, Zusatzstoffe und Zusatzmittel) unter Berücksichtigung der speziellen Erfordernisse der Betonherstellung in Fertigteilwerken. Durch eine Optimierung der Packungsdichte aller granularen Ausgangsstoffe von Beton bis in den Feinst-Teil-Bereich hinein (bis etwa 100 nm) verbunden mit einer Verringerung des Wasserbedarfs soll Zement (bzw. Portlandzementklinker) der die Hauptursache für das hohe Treibhauspotenzial von Beton ist und auch einen Hauptteil der Kosten ausmacht durch kostengünstige, in Österreich verfügbare und umweltfreundlichere Stoffe substituiert werden.
Die Bindemittelgehalte sollen durch betontechnologische Maßnahmen auch unter derzeitige Min-destbindemittelgehalte nach Norm gesenkt werden. Es bedarf gewisser Änderungen der Herstel-lungspraxis der Betonfertigteilproduktion und einer Überarbeitung des Regelwerks bezüglich der Reglementierungen der Betonzusammensetzung (i.e. Mindestbindemittelgehalte). Es ist nachzuwei-sen, dass die in ihrer Zusammensetzung optimierten Betone hinsichtlich Festigkeit und Dauerhaf-tigkeit bzw. Beständigkeit gegenüber Umwelteinwirkungen eine gleichwertige Leistungsfähigkeit aufweisen wie Betone nach derzeitiger Norm. Zudem müssen spezielle Anforderungen an Beton für Fertigteile erfüllt werden können: Das sind hohe Frühfestigkeiten, gute Verarbeitbarkeit, entsprechende Oberflächenqualität sowie die Robustheit der Mischungen gegenüber Produktionsschwankungen. Nicht zuletzt soll gezeigt werden, dass sich die ökologische Bewertung der Betone durch eine neue Zusammensetzung substantiell verbessern lässt und sie wirtschaftlich herstellbar sind.
Mitarbeiter*innen
Projektleiter*innen
Projektleiter/in an der OE
Johannes Khinast
Univ.-Prof. Dipl.-Ing. Dr.techn.
Univ.-Prof. Dipl.-Ing. Dr.techn.
Dietmar Klammer
Ao.Univ.-Prof.i.R. Dr.phil.
Ao.Univ.-Prof.i.R. Dr.phil.
Fördergeber*innen
- Österreichische Forschungsförderungsgesellschaft mbH (FFG) , FFG
- Verband Österreichischer Beton- und Fertigteilwerke, VÖB
Forschungsgebiete
Ende: 30.01.2017
Beginn: 31.10.2012
The holistic life-cycle-oriented consideration of construction activities develops into a mega trend in the construction sector. The UNAB project aims at the "Implementation of sustainable construction through optimized project management processes and integral building envelopes” by an interfaculty and interdisciplinary cooperation between Graz University of Technology and project partners from industry.
Operationalizing sustainable construction two different approaches will be investigated. The first approach follows the idea of systems engineering focussing sustainability requirements of planning and project management processes. Current planning processes mostly focus on single sustainability aspects like energy efficiency, reduction of environmental impacts or reduction of life cycle costs. According to the upcoming CEN/TC 350 standards the evaluation of buildings sustainability should include, environmental, social and economic as well as functional and technical issues, preferably already in the planning stage. Early estimations of the expected buildings sustainability lead to the need of appropriate tools that allow both, the consideration of sustainability aspects including their systemic affects as well as the identification of the influence by different stakeholder preferences. Henceforth the knowledge about system interdependences of building optimization processes should provide basic information to influence building sustainability regarding a holistic approach.
The second approach aims at the design implementation in the building envelope. The main focus is laid on materials that combine variety of cross-section design, easy disassembly (with suitable joining technique) durability (with proper choice of material) and maximum recyclability. The new façade concept should combine a self-supporting, highly efficient supporting structure with new methods of forming and joining technology from the mechanical engineering sector as well as the integration of building systems in the building envelope. This represents a major challenge for the implementation in the field of design, static, building physics and equipment-related issues which only can be solved by a close interdisciplinary cooperation between the disciplines involved. So-called "Integral facades" influence a variety of socio-functional and technical as well as economic and environmental assessment criteria of a building. Thus they are best suited to improve the overall building sustainability.
Based on the interaction of both approaches the results of this project should provide project owners, planners and project managers with basic information needed for a holistic life cycle orientated planning process.
Mitarbeiter*innen
Konsortialführer/in bzw. Koordinator/in von mehreren TU Graz Instituten
Projektleiter/in an der OE
Christoph Adametz
Dipl.-Ing.
Dipl.-Ing.
Christoph Hochenauer
Univ.-Prof. Dipl.-Ing. Dr.techn.
Univ.-Prof. Dipl.-Ing. Dr.techn.
Christian Hofstadler
Assoc.Prof. Dipl.-Ing. Dr.techn.
Assoc.Prof. Dipl.-Ing. Dr.techn.
Ralf Kolleck
Univ.-Prof. Dr.-Ing.
Univ.-Prof. Dr.-Ing.
Helmuth Kreiner
Dipl.-Ing. Dr.techn.
Dipl.-Ing. Dr.techn.
Thomas Mach
Dipl.-Ing. Dr.techn.
Dipl.-Ing. Dr.techn.
Roger Riewe
Univ.-Prof. Dipl.-Ing. Architekt
Univ.-Prof. Dipl.-Ing. Architekt
Manfred Zellinger
Dipl.-Ing. Dr.techn.
Dipl.-Ing. Dr.techn.
Teilnehmer*innen / Mitarbeiter*innen
Vladimir Boskovic
Dipl.-Ing.
Dipl.-Ing.
Daniel Brandl
Dipl.-Ing.
Dipl.-Ing.
Gerfried Klammer
Dipl.-Ing. BSc
Dipl.-Ing. BSc
Tim Lüking
Dipl.-Ing.
Dipl.-Ing.
Ferdinand Oswald
Dipl.-Ing.
Dipl.-Ing.
Martin Pichler
Mag.rer.nat. M.Sc. Ing.
Mag.rer.nat. M.Sc. Ing.
Marco Scherz
Dipl.-Ing. Dipl.-Ing. BSc
Dipl.-Ing. Dipl.-Ing. BSc
Helmut Schober
Dipl.-Ing.
Dipl.-Ing.
Thomas Trink
Mag.rer.soc.oec. MSc.
Mag.rer.soc.oec. MSc.
sonstige Funktion
Oliver Englhardt
Univ.-Prof. Dipl.-Ing. Dr.nat.techn.
Univ.-Prof. Dipl.-Ing. Dr.nat.techn.
Fördergeber*innen
- Amt der Steiermärkischen Landesregierung, Abteilung Wissenschaft und Gesundheit, Geschäftsstelle des Zukunftsfonds, A8
Forschungsgebiete
Ende: 29.09.2016
Beginn: 30.09.2013
Development of precast-drinking water tank-systems as competitive alternative to cast-in-place-concrete, plastic and stain-steel containers.
Mitarbeiter*innen
Projektleiter/in an der OE
Fördergeber*innen
- SW Umwelttechnik Österreich GmbH
Forschungsgebiete
Ende: 30.07.2016
Beginn: 31.05.2015
In this research project the University of Technology examined selected areas of the district Reininghaus-Alt in Graz. By using quantitative analysis based on the Swiss 2000 Watt area certification system the main parameters of district 1, 4 and 5 should be identified. Out of this the Status Quo and the performance in order to the achievment of the 2000 Watt Society will be proven and checked for feasibility. Based on this results different potentials will be calculated and significant adjusting screws in the fields of grey energy, energy supply, operating power and mobility should be identified under Austrian conditions.
Mitarbeiter*innen
Konsortialführer/in bzw. Koordinator/in von mehreren TU Graz Instituten
Hannes Oblak
Dipl.-Ing.
Dipl.-Ing.
Projektleiter/in an der OE
Ernst Rainer
Dipl.-Ing.
Dipl.-Ing.
Fördergeber*innen
- Magistrat Graz, Stadtbaudirektion, A10
Forschungsgebiete
Ende: 29.06.2016
Beginn: 31.10.2015
The IEA-ECBCS-Annex57 project aims at an Austrian collaboration in the IEA Annex 57, which focuses on methods for the Evaluation of Embodied Energy and Carbon Dioxide Emissions of Building Construction and materials.
Results and methods from several other research projects on this topic are summarized and evaluated. In addition this results then are compared to different international projects.
The final aim is to achieve international guidelines for the evaluation of building constructions, with low embodied energy and CO2 Emissions.
Networking with stakeholders and the international research community is created through the cooperation and national dissemination in Austria.
Mitarbeiter*innen
Projektleiter/in an der OE
Fördergeber*innen
- Österreichische Forschungsförderungsgesellschaft mbH (FFG) , FFG
Externe Partner
- Österreichisches Ökologie Institut, ÖÖI
Forschungsgebiete
Ende: 30.05.2016
Beginn: 31.12.2012
Ermittlung des Setzungsverhaltens von besohlten Betonschwellen bei unterschiedlichen Schotterqualitäten. Ermittlung des Lastverformunsverhaltens sowie fassen des mechanischen Zusammenspiels im Schotter bezüglich des Lastabtrages durch Bewegungen und Verschleiß und den sich ausbildenden Lastpfaden im Gleisschotter.
Mitarbeiter*innen
Projektleiter*innen
Armin Berghold
Dipl.-Ing. BSc
Dipl.-Ing. BSc
Projektleiter/in an der OE
Fördergeber*innen
- DB Netz AG, Regionalbereich Süd
- ÖBB-Infrastruktur Aktiengesellschaft
- Schweizerische Südostbahn AG, Geschäftsbereich Infrastruktur
- Schweizerische Bundesbahnen SBB AG, Infrastruktur, Anlagen und Technologie
Forschungsgebiete
Ende: 29.09.2015
Beginn: 31.05.2013
The ambition of this fundamental research project is to develop the entire process for the realization of a uhpc-shell structure made of precast-elements, reaching from the design to the fabrication. All issues are dealed by an interdisciplinary team of architects, structural engineers and material scientists. In addition to that business partners from different kind of industries are supporting the intention.
One part of the project is the development of adequate casting-methods for thin-walled shell elements, considering material properties of uhpc (ultra high performance concrete). Another issue is the design of different suitable joining technologies. Furthermore is the digital parametric design of shell structures and the engineering of a flexible formwork, actuated by an industrial robot a substantial part of the project.
Mitarbeiter*innen
Projektleiter*innen
Stefan Peters
Univ.-Prof. Dr.-Ing.
Univ.-Prof. Dr.-Ing.
Projektleiter/in an der OE
Bernhard Freytag
Dipl.-Ing. Dr.techn.
Dipl.-Ing. Dr.techn.
Teilnehmer*innen / Mitarbeiter*innen
Felix Amtsberg
Dipl.-Ing. M.Sc.
Dipl.-Ing. M.Sc.
Melanie Groß
M.Eng.
M.Eng.
Gernot Parmann
Dipl.-Ing.
Dipl.-Ing.
Andreas Trummer
Ass.Prof. Dipl.-Ing. Dr.nat.techn.
Ass.Prof. Dipl.-Ing. Dr.nat.techn.
Fördergeber*innen
- BASF Performance Products GmbH
- Österreichische Forschungsförderungsgesellschaft mbH (FFG) , FFG
- ABB AG
- Dyckerhoff AG, Hauptverwaltung
- SGL Technologies GmbH
- Max Bögl Bauservice GmbH & Co. KG
- NOMOTEC Anlagenautomationstechnik GmbH
Forschungsgebiete
Ende: 30.08.2015
Beginn: 31.08.2012
Dissemination of results, public relation and creation of political awareness, as well as interface t othe Haus der Zukunft plus Leitrprojekt "Energy City Graz-Reininghaus (ECR)".
Mitarbeiter*innen
Konsortialführer/in bzw. Koordinator/in bei Kooperationen mit externen Organisationen
Heimo Staller
Dipl.-Ing
Dipl.-Ing
Projektleiter/in an der OE
Richard Heimrath
Dipl.-Ing. Dr.techn.
Dipl.-Ing. Dr.techn.
Thomas Mach
Dipl.-Ing. Dr.techn.
Dipl.-Ing. Dr.techn.
Ernst Rainer
Dipl.-Ing.
Dipl.-Ing.
Kontaktperson
Werner Nussmüller
Dipl.-Ing. Architekt
Dipl.-Ing. Architekt
Manfred Partoll
Teilnehmer*innen / Mitarbeiter*innen
Christian Halmdienst
Dipl.-Ing
Dipl.-Ing
Helmuth Kreiner
Dipl.-Ing. Dr.techn.
Dipl.-Ing. Dr.techn.
Hannes Oblak
Dipl.-Ing.
Dipl.-Ing.
Fördergeber*innen
- Österreichische Forschungsförderungsgesellschaft mbH (FFG) , FFG
- AEE - Institut für Nachhaltige Technologien
Externe Partner
- AEE - Institut für Nachhaltige Technologien
Forschungsgebiete
Ende: 30.08.2015
Beginn: 31.08.2012
The most used material in traffic infrastructure is concrete. It will be developed towards more sustainability by innovative technology and an improved composition. Its granular components will be optimized including ultrafine particles. Portland-cement-clinker, can be substituted by more resource saving materials available in Austria.The concrete shall show the identical performance (EN 206-1) of presently used concrete for the infrastructure in terms of strength, durability and costs.
Mitarbeiter*innen
Konsortialführer/in bzw. Koordinator/in von mehreren TU Graz Instituten
Projektleiter/in an der OE
Dietmar Klammer
Ao.Univ.-Prof. Dr.phil.
Ao.Univ.-Prof. Dr.phil.
Teilnehmer*innen / Mitarbeiter*innen
Gernot Franz Fischer
Dipl.-Ing. BSc
Dipl.-Ing. BSc
Fördergeber*innen
- ASFINAG Autobahnen- und Schnellstraßen-Finanzierungs-Aktiengesellschaft
- Bundesministerium für Verkehr, Innovation und Technologie, BMVIT
- ÖBB-Infrastruktur Aktiengesellschaft
- Österreichische Forschungsförderungsgesellschaft mbH (FFG) , FFG
Externe Partner
- Bundesministerium für Verkehr, Innovation und Technologie, BMVIT
Forschungsgebiete
Ende: 30.08.2015
Beginn: 31.08.2013
The mechanisms of sulphate can vary due to different conditions (ettringite and thaumasite formation). Thaumasite forms at low temperatures and a source of carbonate is needed. It causes damages in the cement matrix, which will lead to a mushy substance. The standards include only volume expansion due to the formation of ettringite or gypsum. But it is not included how fluctuant sulphate concentration should be evaluated. The treshold values of sulphate concentration are assumped under constant conditions. Specimen were made and stored in different sulphate solutions (constant level and fluctuant level) in the laboratory. Other specimen were stored in a waste water sewer to get a practical aspect. Those examinations should give a view, what kind of the influence fluctuant sulphate concentrations have and which sulphate concentration is needed to be harmful
Mitarbeiter*innen
Projektleiter*innen
Kontaktperson
Andrea Brunnsteiner
Mag.rer.nat.
Mag.rer.nat.
Dietmar Klammer
Ao.Univ.-Prof. Dr.phil.
Ao.Univ.-Prof. Dr.phil.
Fördergeber*innen
- Österreichische Forschungsförderungsgesellschaft mbH (FFG) , FFG
- Österreichische Bautechnikveranstaltungs GmbH, ÖBV
Externe Partner
- Vereinigung der Österreichischen Zementindustrie, VÖZ
- Leopold-Franzens-Universität Innsbruck, Institut für Konstruktion und Materialwissenschaften
Forschungsgebiete
Ende: 29.06.2015
Beginn: 31.05.2009
The project "iENERGY Weiz-Gleisdorf 2.0 the power of a vision!"
is built on the energy vision 2050 of the energy region Weiz-Gleisdorf.
It is the aim of this project to visually anticipate this vision in form of single demonstration projects, i.e. public visualization of visionary complete solutions within the context of "Smart Cities" or "Smart Urban Regions", renewable energy, energy efficiency and regional
energetic autonomy.
Complete sustainable solutions arise mainly from the involvement of citizens - the use of innovative technologies or their integration into intelligent products and services and their user-oriented demonstration are important stimuli for the energy awareness, both on group and individual levels.
Thus, this project is an important building block for an accelerated development of the energy region towards its vision.
Mitarbeiter*innen
Konsortialführer/in bzw. Koordinator/in von mehreren TU Graz Instituten
Michael Narodoslawsky
Ao.Univ.-Prof. Dipl.-Ing. Dr.techn.
Ao.Univ.-Prof. Dipl.-Ing. Dr.techn.
Projektleiter/in an der OE
Lothar Fickert
Univ.-Prof. Dipl.-Ing. Dr.techn.
Univ.-Prof. Dipl.-Ing. Dr.techn.
Bernhard König
Dipl.-Ing.
Dipl.-Ing.
Teilnehmer*innen / Mitarbeiter*innen
Michael Eder
Mag.rer.nat.
Mag.rer.nat.
Brigitte Hasewend
Hofrätin Mag.phil.
Hofrätin Mag.phil.
Karl-Heinz Kettl
Mag.rer.nat.
Mag.rer.nat.
Nora Niemetz
Mag.rer.nat.
Mag.rer.nat.
Herwig Renner
Ao.Univ.-Prof. Dipl.-Ing. Dr.techn.
Ao.Univ.-Prof. Dipl.-Ing. Dr.techn.
Khurram Shahzad
Beti Trajanoska
Dipl.-Ing.
Dipl.-Ing.
Fördergeber*innen
- Klima- und Energiefonds
- Österreichische Forschungsförderungsgesellschaft mbH (FFG) , FFG
Externe Partner
- eseia - European Sustainable Energy Innovation Alliance - Verein zur Förderung der europäischen Innovation für Erneuerbare Energien
- JOANNEUM RESEARCH Forschungsgesellschaft mbH
Forschungsgebiete
Ende: 30.05.2015
Beginn: 31.05.2012
The aim of the current research project is the identification of environmental indicators, which should be taken into account to assess and quantify the environmental impact of buildings and building products. In this project the indicators, as also the common LCIA-Methods, which are integrated in the EN 15804 at the moment for the construction sector should be adapted and developed further with additional indicators to build an essential basis for the ecological optimization of building products.
The need of an further development of environmental indicators is given in the fields of land use and soil sealing, biodiversity as also human – and eco toxicity. In those areas the scientific point of view haven’t been considered in detail.
The analysis of the different additional indicators should show the relevance for the construction sector, as also there should be shown the quality, robustness and the availability of the environmental indicators and the LCIA-Methods. As an result there should be identified suitable methods to show the priority of the environmental indicators. Furthermore the results should be a basis to supplement or revise the EN15804, as also to define the core indicators for NAD ÖNORM B 15804
Mitarbeiter*innen
Projektleiter/in an der OE
Fördergeber*innen
- Österreichische Forschungsförderungsgesellschaft mbH (FFG) , FFG
- Forschungsverein Steine - Keramik
Externe Partner
- Wirtschaftskammer Österreich, Fachverband der Stein- und keramischen Industrie, WKO
Forschungsgebiete
Ende: 27.02.2015
Beginn: 28.02.2014
The project "EPD-VÖB" aims at creating a Type-III-Enironmental Product Declaration for an average Austrian precast concrete. With an LCA-Tool ist is possible to make a statement about the environmental impact of the concrete and its components. An EPD helps companies to develop and improve their products and also for marketing purposes.
Mitarbeiter*innen
Projektleiter/in an der OE
Gerfried Klammer
Dipl.-Ing. BSc
Dipl.-Ing. BSc
Teilnehmer*innen / Mitarbeiter*innen
Gernot Franz Fischer
Dipl.-Ing. BSc
Dipl.-Ing. BSc
Fördergeber*innen
- Verband Österreichischer Beton- und Fertigteilwerke, VÖB
Forschungsgebiete
Ende: 30.12.2014
Beginn: 28.02.2013
Urban strategies for conceptual design, construction, use and redevelopment of the energy independent city-area Graz-Reininghaus
Mitarbeiter*innen
Projektleiter/in an der OE
Lothar Fickert
Em.Univ.-Prof. Dipl.-Ing. Dr.techn.
Em.Univ.-Prof. Dipl.-Ing. Dr.techn.
Christoph Hochenauer
Univ.-Prof. Dipl.-Ing. Dr.techn.
Univ.-Prof. Dipl.-Ing. Dr.techn.
Helmuth Kreiner
Dipl.-Ing. Dr.techn.
Dipl.-Ing. Dr.techn.
Thomas Mach
Dipl.-Ing. Dr.techn.
Dipl.-Ing. Dr.techn.
Hans Schnitzer
Ao.Univ.-Prof.i.R. Dipl.-Ing. Dr.techn.
Ao.Univ.-Prof.i.R. Dipl.-Ing. Dr.techn.
Kontaktperson
Ernst Rainer
Dipl.-Ing.
Dipl.-Ing.
Fördergeber*innen
- Magistrat Graz - Bezirksamt 1. Bezirk Innere Stadt
Forschungsgebiete
Ende: 30.12.2014
Beginn: 30.09.2009
Die vorliegende Literatur-Studie soll eine generelle Übersicht über unterschiedliche Ansätze zur Bewertung der Dauerhaftigkeit von Bauwerken sowie über Bauwerks-Management-Systeme geben, um den Handlungsbedarf für die Anpassung des ASFINAG-Erhaltungsmanagements ableiten zu können.
Schwerpunkte der Literaturrecherche sind Publikationen über derzeit angewandte Bauwerks-Management-Systeme für Budgetplanung auf Netz-Ebene sowie Modelle zur Bewertung der Dauerhaftigkeit und Zuverlässigkeit von Kunstbauten. Ausgehend von der derzeitig praktizierten ingenieurmäßigen Zustandsbewertung von Bauwerken gemäß RVS 13.03.XX soll künftig eine genauere Abschätzung der Rest-Lebensdauer von Kunstbauten möglich sein, um eine Optimierung aller erforderlichen Erhaltungsmaßnahmen mit einer vorgegebenen Budget-Obergrenze durchführen zu können. Ein umfassendes Bauwerks-Monitoring wird derzeit nur für Schlüsselobjekte angewandt, wobei der Ansatz verfolgt wird, diese bauwerks- und standortspezifischen Informationen für die Dauerhaftigkeitsbewertung für vergleichbare Bauwerke zu nutzen.
Mitarbeiter*innen
Fördergeber*innen
- ASFINAG Service GmbH
Forschungsgebiete
Ende: 20.01.2014
Beginn: 13.08.2013
Ökobilanzierung (LCA) der einzelnen Projekte je Energiestandard und konstruktiver Durchbildung mit Darstellung der Ökobilanzkennwerte.
Mitarbeiter*innen
Projektleiter/in an der OE
Fördergeber*innen
- Forschungsverein Stein & Keramik des Fachverbandes der Stein- und keramischen Industrie
Externe Partner
- Wirtschaftskammer Österreich, WKÖ
Forschungsgebiete
Ende: 30.12.2013
Beginn: 31.12.2011
Das von der ASFiNAG beauftragte Forschungsvorhaben "Fahrbahnaufbauten auf Brücken" befasst sich mit der Formulierung von Anforderungen für Fahrbahnaufbauten auf Brücken speziell für das hochbelastete A+S-Netz. Folgende Teilziele werden verfolgt:
Ausbildung dauerhafter Systeme des bituminösen Fahrbahnaufbaus auf Brücken;
(erweiterte) Anforderungen an das Mischgut und der Schichten des Fahrbahnaufbaus;
Anordnung und Ausbildung der Entwässerungssysteme;
Anforderungen und Konstruktion von Anschlüssen an Rändern, Einbauten und Fahrbahnübergangskonstruktionen sowie
standardisierte Instandhaltungs- und Instandsetzungsmethode in Abhängigkeit von charakteristischen
Schadensbildern.
Mitarbeiter*innen
Projektleiter/in an der OE
Teilnehmer*innen / Mitarbeiter*innen
Fördergeber*innen
- Technische Universität Wien, Institut für Verkehrswissenschaften
- ASFINAG Service GmbH, Verkehrsmanagement, Verkehrsstatistik
Externe Partner
- Technische Universität Wien, Institut für Verkehrswissenschaften
Forschungsgebiete
Ende: 30.12.2013
Beginn: 31.12.2010
Optimisation of the fibre coctail design.
Mitarbeiter*innen
Projektleiter/in an der OE
Bernhard Freytag
Dipl.-Ing. Dr.techn. Univ.-Doz.
Dipl.-Ing. Dr.techn. Univ.-Doz.
Fördergeber*innen
- Oberndorfer Franz GmbH & Co
Forschungsgebiete
Ende: 27.02.2013
Beginn: 30.06.2012
As an international venue of science, technology, design and environment, Graz City offers
numerous components for building a Smart City. Up to 2050, a very high quality of life with
one-fifth of current resource consumption will become a magnet for doubling the population
influx. With I live Graz, the vision, guidelines and roadmaps for the Smart City Graz are
going to be elaborated using the ZEUS method. Main focus of the project is the development
of two demo projects (within a national and an international call) in international cooperation
with Copenhagen, Freiburg, Oerias (Lisbon), Malmo Vilnius, and others. Currently there are already two approved national follow-up projects: Smart City Project Graz Mitte, iENERGY Weiz-Gleisdorf 2.0 the power of a vision!
Mitarbeiter*innen
Projektleiter*innen
Ernst Rainer
Dipl.-Ing.
Dipl.-Ing.
Hans Schnitzer
Ao.Univ.-Prof. Dipl.-Ing. Dr.techn.
Ao.Univ.-Prof. Dipl.-Ing. Dr.techn.
Teilnehmer*innen / Mitarbeiter*innen
Markus Bogensberger
Dipl.-Ing.
Dipl.-Ing.
Herwig Breitwieser
Dipl.-Ing.
Dipl.-Ing.
Heinz Ferk
Dipl.-Ing.
Dipl.-Ing.
Daniela Fuchs-Hanusch
Ass.Prof. Dipl.-Ing. Dr.techn.
Ass.Prof. Dipl.-Ing. Dr.techn.
Günter Gruber
Ass.Prof. Dipl.-Ing. Dr.techn.
Ass.Prof. Dipl.-Ing. Dr.techn.
Emilio Hauer
Dipl. NDS ETHZ Dipl.-Ing.
Dipl. NDS ETHZ Dipl.-Ing.
Christian Hofbauer
Dipl.-Ing.
Dipl.-Ing.
Evelyn Krall
Ass.Prof. Dipl.-Ing. Dr.techn.
Ass.Prof. Dipl.-Ing. Dr.techn.
Andreas Lechner
Dipl.-Ing. Dr.techn.
Dipl.-Ing. Dr.techn.
Wolfgang Löschnig
Dipl.-Ing. Architekt
Dipl.-Ing. Architekt
Tim Lüking
Dipl.-Ing.
Dipl.-Ing.
Thomas Mach
Dipl.-Ing. Dr.techn.
Dipl.-Ing. Dr.techn.
Michael Narodoslawsky
Ao.Univ.-Prof. Dipl.-Ing. Dr.techn.
Ao.Univ.-Prof. Dipl.-Ing. Dr.techn.
Agnieszka Pluta-Fürst
Mag.phil.
Mag.phil.
Beti Trajanoska
Dipl.-Ing.
Dipl.-Ing.
sonstige Funktion
Brian Cody
Univ.-Prof. B.Sc.(Hons). CEng MCIBSE
Univ.-Prof. B.Sc.(Hons). CEng MCIBSE
Arno Eichberger
Dipl.-Ing. Dr.techn. Univ.-Doz.
Dipl.-Ing. Dr.techn. Univ.-Doz.
Martin Fellendorf
Univ.-Prof. Dr.-Ing.
Univ.-Prof. Dr.-Ing.
Lothar Fickert
Univ.-Prof. Dipl.-Ing. Dr.techn.
Univ.-Prof. Dipl.-Ing. Dr.techn.
Brigitte Hasewend
Oberrätin Mag.phil.
Oberrätin Mag.phil.
Fördergeber*innen
- Klima- und Energiefonds
- Österreichische Forschungsförderungsgesellschaft mbH (FFG) , FFG
Externe Partner
- eseia - European Sustainable Energy Innovation Alliance - Verein zur Förderung der europäischen Innovation für Erneuerbare Energien
- Magistrat Graz, Stadtbaudirektion, A10
Forschungsgebiete
Ende: 29.06.2012
Beginn: 01.04.2011
This project deals with the implementation of a quality management system in asphalt mixing plants. The demands for bituminous mixtures are fixed extensive with requirements in technical specifications and standards.
The results of the tests are compared with the requirements. If the test result is outside of the tolerances, it will come to deductions or waste. If the existence of non conformities is not discovered, the non conform product will cause follow-up costs for the placing of bituminous mixtures or can lead to a negative inspection for the final product "road".
The later one realises non conformities the higher the follow-up costs will be. Therefore, companies look forward to set steps to secure the quality of the bituminous mixtures and further the quality of the road.
This project also makes use of the results of the research project "factory production control according to the new prEN 13108-21".
The aim of the project is to work out a quality management system for asphalt plants with the necessary statistical methods. Finally the created quality management system shall be tested by implementation in an asphalt mixing plant.
Mitarbeiter*innen
Projektleiter*innen
Gudrun Klimisch-Ibler
Univ.-Ass., Dipl.-Ing.
Univ.-Ass., Dipl.-Ing.
Forschungsgebiete
Ende: 30.01.2012
Beginn: 31.12.1999
Know-How-Plus - Options and constraints of building renovation towards plus energy building standard
Aim of this research project is to identify the realizable reduction potential of energy consumption and CO2 emissions by refurbishment of the Austrian building stock towards plus energy building standard. Furthermore a construction-oriented manual will be supplied for interdisciplinary planning.
Mitarbeiter*innen
Projektleiter*innen
Fördergeber*innen
- Österreichische Forschungsförderungsgesellschaft mbH (FFG) , FFG
Externe Partner
- AEE - Institut für Nachhaltige Technologien
Forschungsgebiete
Ende: 30.08.2011
Beginn: 31.08.2009
The main focus of the work is to optimise the thermal envelope and to find innovative strategies for energy-generation. Furthermore, the project deals with the development of appropriate concepts for storage and distribution, as well as the development of concepts for the integration of supplying ducts within the new building envelope and the integration of the building into heating or current grids.
Mitarbeiter*innen
Kontaktperson
Fördergeber*innen
- Österreichische Forschungsförderungsgesellschaft mbH (FFG) , FFG
Forschungsgebiete
Ende: 30.07.2011
Beginn: 31.03.2010
Schaffung der Grundlagen für die technologische Weiterentwicklung der Produkte und Dienstleistungen der Stein- und keramischen Industrie bzw. der gesamten Bauwirtschaft und Weiterentwicklung des umfassenden Nachhaltigkeitsbewertungstools für Gebäude, Total Quality Building (TQB), unter besonderer Berücksichtigung energetischer Aspekte. Die TU Graz ist Subpartner bei diesem FFG-Projekt (Nachhaltig Wirtschaften - Energiesysteme der Zukunft).
Mitarbeiter*innen
Projektleiter*innen
Fördergeber*innen
- Forschungsverein Stein & Keramik des Fachverbandes der Stein- und keramischen Industrie
- Österreichische Forschungsförderungsgesellschaft mbH (FFG) , FFG
Externe Partner
- Technische Universität Wien, Institut für Wassergüte, Ressourcenmanagement und Abfallwirtschaft
- Technische Universität Wien, Institut für Hochbau und Technologie
- Technische Universität Wien, TU Wien
- Donau-Universität Krems
- Forschungsverein Stein & Keramik des Fachverbandes der Stein- und keramischen Industrie
- Wirtschaftskammer Österreich, WKÖ
- Wirtschaftskammer Österreich, Fachverband der Stein- und keramischen Industrie, WKO
- Bautechnisches Institut Linz
- Austrian Institute of Technology GmbH, Mobility Department, Transportation Infrastructure Technologies, AIT
- IBO Österreichisches Institut für Baubiologie und -ökologie GmbH
- Österreichisches Ökologie-Institut
- IFZ - Interuniversitäres Forschungszentrum für Technik, Arbeit und Kultur
Forschungsgebiete
Ende: 30.10.2010
Beginn: 31.10.2007
-
Mitarbeiter*innen
Koordinator
Lutz Sparowitz
O.Univ.-Prof. Dipl.-Ing. Dr.techn.
O.Univ.-Prof. Dipl.-Ing. Dr.techn.
Kontaktperson
Ulrich Walder
Vertragsprof. Dr.techn. Dipl.-Bauing.
Vertragsprof. Dr.techn. Dipl.-Bauing.
Teilnehmer*innen / Mitarbeiter*innen
Gernot Beer
O.Univ.-Prof. Dipl.-Ing. Dr.techn.
O.Univ.-Prof. Dipl.-Ing. Dr.techn.
Bernhard Freytag
Dipl.-Ing. Dr.techn.
Dipl.-Ing. Dr.techn.
Horst Gamerith
O.Univ.-Prof. Dipl.-Ing. Dr.techn. Architekt
O.Univ.-Prof. Dipl.-Ing. Dr.techn. Architekt
Richard Greiner
O.Univ.-Prof. Dipl.-Ing. Dr.techn.
O.Univ.-Prof. Dipl.-Ing. Dr.techn.
Hans Lechner
Univ.-Prof. Dipl.-Ing.
Univ.-Prof. Dipl.-Ing.
Martin Schanz
Univ.-Prof. Priv.-Doz. Dr.-Ing.
Univ.-Prof. Priv.-Doz. Dr.-Ing.
Gerhard Schickhofer
Univ.-Prof. Dipl.-Ing. Dr.techn.
Univ.-Prof. Dipl.-Ing. Dr.techn.
Gerhard Vabitsch
Ass.Prof.i.R. Dipl.-Ing. Dr.techn. Architekt
Ass.Prof.i.R. Dipl.-Ing. Dr.techn. Architekt
Forschungsgebiete
Ende: 30.12.2009
Beginn: 31.12.2004
text
Mitarbeiter*innen
Projektleiter*innen
sonstige Funktion
Manuela Kloner
Ing.
Ing.
Fördergeber*innen
- H. Junger Baugesellschaft m.b.H.
Forschungsgebiete
Ende: 30.01.2009
Beginn: 31.12.2005
The Project contains the conception, elaboration and installation of directives in the frame of the quality manual of the producer of masonry units.
Mitarbeiter*innen
Projektleiter*innen
sonstige Funktion
Franz Hofer
Dipl.-Ing.
Dipl.-Ing.
Fördergeber*innen
- ERP Fonds
Forschungsgebiete
Ende: 30.10.2008
Beginn: 31.10.2005
Das Forschungsvorhaben zielt auf die Umsetzung des Strategiekonzepts Nachhaltig Bauen und
Sanieren in der Steiermark 2010/2015 (im Folgenden NBS genannt) ab. Das Ergebnis sind
konkrete Planungsleitlinien, die auf den geförderten Wohnbau und kommunalen Hochbau
abgestimmt sind. Mit diesem Projekt soll die Steiermark ihre Vorreiterrolle im Bereich
ökoeffizienten Wirtschaftens ausbauen und einen Innovationsschub für die steirische
Bauwirtschaft auslösen.
Mitarbeiter*innen
Projektleiter*innen
Guido Cresnik
Dipl.-Ing.
Dipl.-Ing.
Teilnehmer*innen / Mitarbeiter*innen
Markus Michlmair
sonstige Funktion
Horst Gamerith
Em.Univ.-Prof. Dipl.-Ing. Dr.techn. Architekt
Em.Univ.-Prof. Dipl.-Ing. Dr.techn. Architekt
Wolfgang Streicher
Ao.Univ.-Prof. Dipl.-Ing. Dr.techn.
Ao.Univ.-Prof. Dipl.-Ing. Dr.techn.
Fördergeber*innen
- Amt der Steiermärkischen Landesregierung, Abteilung Wissenschaft und Forschung, A3 (Vorläuferabteilung von A8)
Forschungsgebiete
Ende: 30.08.2008
Beginn: 30.09.2007
By variation of several technological parameters of concrete for prefabricated wall-panels the behavior of the concrete concerning workability and athesion to the panel material is studied.
Mitarbeiter*innen
Koordinator
Projektleiter*innen
Rudolf Treffinger
Mag. Ing.
Mag. Ing.
Fördergeber*innen
- Knauf Insulation GmbH
Forschungsgebiete
Ende: 30.07.2008
Beginn: 31.07.2005
Zerstörungsfreie Korrosionsschutzmaßnahmen
Mitarbeiter*innen
Projektleiter*innen
Teilnehmer*innen / Mitarbeiter*innen
Erwin Baumgartner
FH. Prof. Dr.
FH. Prof. Dr.
Fördergeber*innen
- Bundesministerium für Verkehr, Innovation und Technologie, BMVIT
Forschungsgebiete
Ende: 30.01.2007
Beginn: 31.12.2003
Investigation of different options for repairing the existing traditional track sections of the light railway line in Dublin.
Mitarbeiter*innen
Projektleiter*innen
Klaus Rießberger
O.Univ.-Prof. Dipl.-Ing. Dr.techn.
O.Univ.-Prof. Dipl.-Ing. Dr.techn.
Teilnehmer*innen / Mitarbeiter*innen
Albert Jörg
Dipl.-Ing.
Dipl.-Ing.
sonstige Funktion
Fördergeber*innen
- Ansaldo Ricerche SRL, Società per lo Sviluppo di Nuove Tecnologie
Forschungsgebiete
Ende: 30.01.2007
Beginn: 31.12.2004
The Concept contains studies on the quality management system (initial type testing, quality manual), life cycle assessment, aspects of building physics and energetic behavior.
Mitarbeiter*innen
Koordinator
Projektleiter*innen
Kontaktperson
sonstige Funktion
Hannes Ebner
Dipl.-Ing.
Dipl.-Ing.
Heinz Ferk
Dipl.-Ing.
Dipl.-Ing.
Manfred Luschan
Dipl.-Ing.
Dipl.-Ing.
Thomas Mach
Dipl.-Ing.
Dipl.-Ing.
Fördergeber*innen
- Ing. Viertl Bau & Baustoffe GmbH
Forschungsgebiete
Ende: 29.08.2006
Beginn: 31.05.2005
The task of the project was the preparation and organisation of a worshop on the use of a thermal insulating material and the elaboration of a research program on basis of the workshop results.
Mitarbeiter*innen
Koordinator
Projektleiter*innen
sonstige Funktion
Gilbert Dreschl
Ing.
Ing.
Franz Hofer
Dipl.-Ing.
Dipl.-Ing.
Petra Staberhofer
Mag.
Mag.
Rudolf Treffinger
Mag. Ing.
Mag. Ing.
Fördergeber*innen
- Technische Universität Graz, Forschungs- & Technologieinformation (FTI)
Forschungsgebiete
Ende: 27.02.2006
Beginn: 30.11.2005
Common procedures for determining the rheology, setting time and bleeding of grouts have been developed between the partners in this project. First results of the influence of ingredients - cement and admixtures - on these parameters were investigated. The results will be integrated with the state of the art knowledge to produce authoritative guidance to the producers of prestressing grouts.
Mitarbeiter*innen
Projektleiter*innen
Teilnehmer*innen / Mitarbeiter*innen
Phil Banfill
PhD; Prof.
PhD; Prof.
Irina Stipanovic
Msc
Msc
Externe Partner
- Heriot-Watt University, School of the Built Environment
- Sveučilište u Zagrebu
Forschungsgebiete
Ende: 30.01.2006
Beginn: 31.12.2003
Sustainable aspects of solid buildings are considered.
Mitarbeiter*innen
Koordinator
Projektleiter*innen
Fördergeber*innen
- Wirtschaftskammer Steiermark, WKO
Forschungsgebiete
Ende: 30.01.2006
Beginn: 31.12.2003
Development of a new kind of spray-on and plastered noise absorber on the basis of cellulose from recycled paper. The absorber system preferably attenuates the low-frequency range, that can usually only be controlled with rather complex systems, and can also be used where conventional absorbers could cause problems due to impermissible water vapour condensation.
Mitarbeiter*innen
Koordinator
Herwig Hengsberger
Dipl.-Ing.
Dipl.-Ing.
Projektleiter*innen
Peter Kautsch
Ao.Univ.-Prof. Mag. Dipl.-Ing. Dr.iur. Dr.techn.
Ao.Univ.-Prof. Mag. Dipl.-Ing. Dr.iur. Dr.techn.
sonstige Funktion
Gerhard Graber
Ao.Univ.-Prof. Dipl.-Ing. Dr.techn.
Ao.Univ.-Prof. Dipl.-Ing. Dr.techn.
Peter Häupl
Prof.Dr.Ing.
Prof.Dr.Ing.
Martin Kormout
Wolfgang Lackner
Ing.
Ing.
Philip Leistner
Dr.Ing.
Dr.Ing.
Robert Schmied
DI
DI
Fördergeber*innen
- Österreichische Forschungsförderungsgesellschaft mbH (FFG) , FFG
- Bundesministerium für Verkehr, Innovation und Technologie, BMVIT
Externe Partner
- Technische Universität Dresden
- Fraunhofer-Institut für Bauphysik, IBP
Forschungsgebiete
Ende: 30.01.2006
Beginn: 31.12.2003
Special attention concerning the use of interior insulation is given to the expected formation of moisture in the wall cross-section. Attempts were made to tackle this situation by means of a wide range of vapour barriers, but it soon became clear that branch lines and openings for building sections and deformations (e.g. wooden joist ceiling beam ends) pose a problem that is difficult to solve. Additionally the Glaser method provides an inadequate description of hygrothermic processes in the wall as it does not allow for capillary moisture transport in the various building materials.
Based upon international research findings and a precursor HdZ-project the aim of this research work is to further develop conventional recycled paper cellulose flakes to create a sprayable, self-supporting, 3 - 8 cm thick body of insulation to be covered with an interior spray-on plaster that is open for diffusion. The aim is to avoid harmful water vapour condensation by taking advantage of the high sorption capacity and capillary conductivity of the cellulose fibres and to provide a failure-tolerant, inexpensive alternative to existing insulation systems, particular with regard to the renovation of existing (historically valuable) buildings (02/2003).
Mitarbeiter*innen
Konsortialführer/in bzw. Koordinator/in bei Kooperationen mit externen Organisationen
Wolfgang Streicher
Ao.Univ.-Prof., Dipl.-Ing. Dr.techn.
Ao.Univ.-Prof., Dipl.-Ing. Dr.techn.
Konsortialführer/in bzw. Koordinator/in von mehreren TU Graz Instituten
Herwig Hengsberger
Dipl.-Ing.
Dipl.-Ing.
Teilnehmer*innen / Mitarbeiter*innen
Andreas Heinz
Dipl.-Ing. (FH)
Dipl.-Ing. (FH)
Peter Kautsch
Ao.Univ.-Prof., Mag. Dipl.-Ing. Dr.iur. Dr.techn.
Ao.Univ.-Prof., Mag. Dipl.-Ing. Dr.iur. Dr.techn.
Fördergeber*innen
- Österreichische Forschungsförderungsgesellschaft mbH (FFG) , FFG
Externe Partner
- Technische Universität Dresden, Institut für Bauklimatik
Forschungsgebiete
Ende: 30.12.2005
Beginn: 31.10.2003
If reinforced concrete contains chloride ions, e.g. due to the use of deicing salts, the reinforcement is no longer protected against corrosion. Nitrite salts are in use as corrosion inhibitors. As only nitrite ions dissolved in the pore solution of the cement matrix and not the ions bound in cement can inhibit, it is of great practical relevance to study the degree of nitrite binding in cement and the influence of chloride ions on it. Results show that nitrite ions are bound in cement to a certain degree, however to a lesser extent than chloride. In case of the simultaneous presence of both, chloride and nitrite ions, nitrite binding is further reduced. This is proven by pore solution analysis of cement paste samples prepared with the addition of nitrate or chloride and of both (NaCl and/or NaNO2). The nitrite concentration in pore solutions of the samples containing both salts is demonstrated to be higher than in comparable samples prepared with the addition of nitrite only.
Mitarbeiter*innen
Projektleiter*innen
Fördergeber*innen
- Honorarkonsulat des Königreiches Großbritannien und Nordirland
- Bundesministerium für Wirtschaft und Arbeit, BMWA
Externe Partner
- Heriot-Watt University, School of the Built Environment
Forschungsgebiete
Ende: 30.01.2005
Beginn: 31.12.1997
Corrosion inhibitors recommended for subsequent application onto existing structures are a kind of repair material which is cost-efficient and easy to apply. According to the manufacturers, these substances penetrate very rapidly, however, the mechanisms which are responsible for fast migration and involved in transport (capillary suction, diffusion in dissolved state and diffusion in the gaseous phase) have not been sufficiently investigated so far. The major part of the study therefore focuses on the transport of the corrosion inhibitor SIKA Ferro-Gard (FG 903) in cement paste and concrete. It contains two active ingredients, namely a phosphorous compound and an aminoalcohol. It has been shown that the phosphorous compound forms an insoluble salt with the calcium ions of the cement and, therefore, does not penetrate from outside into the concrete and cannot develop an inhibiting effect there. The aminoalcohol, on the other hand, remains largely dissolved in the pore liquid, thus providing optimal conditions for high mobility. The analysis of the transport mechanisms involved has revealed that diffusion in dissolved state is by far the most efficient transport mechanism. While basically transport of the aminoalcohol via the gaseous phase is possible, it plays an inferior role only. Surprisingly, the substance is hardly absorbed by concrete by capillary suction, but remains close to the concrete surface at first.
Mitarbeiter*innen
Fördergeber*innen
- Bundesministerium für wirtschaftliche Angelegenheiten, Straßenforschungsfonds
Forschungsgebiete
Ende: 30.01.2005
Beginn: 31.12.1997
The use of secondary raw materials (fly ash; residuals from industry, etc) as well as additional sources of energy such as old tires, contaminated oil, organic solvents, etc. for the production of cement clinker increases during the last years. Therefore the number and quantity of heavy metals in clinker increases and their binding and mobility is affected by this. In this research project the incorporation of heavy metals (chromium, vanadium, lead, copper, barium and others) in various clinker minerals, the changes of the properties of cement clinker (crystal structure, texture, etc) and the leachability of heavy metals is studied.
Mitarbeiter*innen
Koordinator
Ferenc Tamas
Prof.
Prof.
sonstige Funktion
Janos Borszekei
Assoc. Prof. Dr.
Assoc. Prof. Dr.
Ludmilla Opoczky
Univ.-Prof. h.c. Dr.
Univ.-Prof. h.c. Dr.
Fördergeber*innen
- Österreichischer Austauschdienst GmbH - Agentur für Internationale Bildungs- und Wissenschaftskooperation, OeAD
Forschungsgebiete
Ende: 30.01.2005
Beginn: 31.12.2000
Greening of Styrian residential buildings by public fundings
Mitarbeiter*innen
Koordinator
Projektleiter*innen
Jason Prabitz
Dipl.-Ing.
Dipl.-Ing.
Teilnehmer*innen / Mitarbeiter*innen
Fördergeber*innen
- Amt der Steiermärkischen Landesregierung, Abteilung Wohnbauförderung, A15
Forschungsgebiete
Ende: 30.01.2005
Beginn: 31.12.2003
text
Mitarbeiter*innen
Projektleiter*innen
Teilnehmer*innen / Mitarbeiter*innen
Georg Connert
Dipl.-Ing.
Dipl.-Ing.
sonstige Funktion
Hannes Ebner
Dipl.-Ing.
Dipl.-Ing.
Heinz Ferk
Dipl.-Ing.
Dipl.-Ing.
Augustin Heuberger
Dipl.-Ing.
Dipl.-Ing.
Fördergeber*innen
- Knauf Insulation GmbH
Forschungsgebiete
Ende: 30.10.2004
Beginn: 31.12.2002
The European Standard prEN 13108-21 "Bitumious mixtures - Quality - Part 21: Factory production control" describes how mixing plants shall operate their production control. In this project six mixing plants of different age and conception were investigated to show the effects of a quality management system as described in prEN 13108-21 on the results of mixture control. It is intended that the results of this project help to estimate future quality costs and their effects on the price of bitumious mixtures. On the other hand the results should assure that the frequencies set in prEN 13108-21 are realistic and that mixing plants are able to fulfill the requirements of this FPC system.
Mitarbeiter*innen
Projektleiter*innen
sonstige Funktion
Gudrun Klimisch-Ibler
Dipl.-Ing., Univ.-Ass.
Dipl.-Ing., Univ.-Ass.
Forschungsgebiete
Ende: 30.12.2003
Beginn: 14.07.2000
The application of flowable polymer-modified fine aggregate concretes shall be examined for the production of reinforced surface layers (as an alternative to sprayed concrete) in the repair of RC structures. Through examining different polymers and fibres a special concrete shall be developed. It shall achieve the desired qualities like reduced shrinkage, high ductility in elongation and good bond and tensile strength. After optimizing the mixture with rheological measurements and determining the characteristic properties of the fresh and the hardened concrete (including durability and corrosion protection), the application techniques shall be tested on model structures. The final goal shall be the development of a self-compacting polymer-modified fine concrete for the repair and strengthening of RC structures in cases where satisfactory solutions cannot be expected with sprayed concrete.
Mitarbeiter*innen
Koordinator
Tobias Altendorfer
Dipl.-Ing., Univ.-Ass.
Dipl.-Ing., Univ.-Ass.
Projektleiter*innen
Helmuth Geymayer
Dipl.-Ing. Dr.techn., O.Univ.-Prof.
Dipl.-Ing. Dr.techn., O.Univ.-Prof.
Forschungsgebiete
Ende: 29.11.2003
Beginn: 29.02.2000
In Austria the waterproofing of concrete bridgedecks is almost exclusively based on two layers of bitumen sheets. In a research project at the Technical College/Spittal, Project No. 800004 various bridgedeck waterproofing systems were examined for their long-term efficiency. The results showed that the application of polymer bitumen sheets and the use of epoxy resin for sealing the concrete substructure led to a clear improvement of the characteristics of bridgedeck waterproofing systems. Part of this thesis also deals with the effects the European standardizations - which are presently being developed - will have on our national standards. The investigation of bridgedeck waterproofing systems in this thesis consists of the determination of tensile bond and the determination of shear. In doing so, the examination methods of prEN and RVS were applied and then compared with each other.
Mitarbeiter*innen
Projektleiter*innen
Erwin Baumgartner
Mag. Dr., Prof.
Mag. Dr., Prof.
Walter Pichler
Univ.-Doz. Dipl.-Ing. Dr.
Univ.-Doz. Dipl.-Ing. Dr.
sonstige Funktion
Gerhard Dohr
Dipl.-Ing.
Dipl.-Ing.
Fördergeber*innen
- Forschungsförderungsfonds für die gewerbliche Wirtschaft, FFF
Externe Partner
- Amt der Kärntner Landesregierung, Abteilung 17 Straßen- und Brückenbau
- Technikum Kärnten Forschungs- Gesellschaft m.b.H.
Forschungsgebiete
Ende: 30.01.2002
Beginn: 31.12.1997
The knowledge and use of the Poisson's ratio in methods of mixture and pavement design is of primary importance. Test methods to find realistic values, however, are not very common. Mostly they are rather sophisticated and therefor not used in daily laboratory practice.
In an Austrian R&D-project a new device has been developed which is able to measure the deformation of test specimens by mean of a video camera, the connected software allows to evaluate the ration simultaneously.
In this stdy the Poisson's ration is investigated using Marshall test specimens, both in Marshal tests as well as in indirect tensile tests. Different mixture types will be tested under different test conditions (temperature and deformation rate).
In this study a new device has
Mitarbeiter*innen
sonstige Funktion
Forschungsgebiete
Ende: 30.01.2002
Beginn: 30.11.2001
Some Austrian concrete dams are suspected to suffer from very slow alkali-aggregate reactions. Investigations on cores taken from 6 dams shall show, whether distructive reactions causing expansion and structural damage do really occur and which test methods are most suitable to detect endangered concretes and potentially dangerous aggregates.
Mitarbeiter*innen
Fördergeber*innen
- Austrian Power Grid AG, APG
Externe Partner
- Leopold-Franzens-Universität Innsbruck, Institut für Baustoffkunde
Forschungsgebiete
Ende: 30.01.2002
Beginn: 31.12.1995
A new test method to determine caharacteristic fracture mechanic data of concrete, especially mass concrete, is investigated. Large cylindrical specimens (diameter 60 to 110 cm, hight 40 to 60 cm) with an internal penny shaped crack are used. Pressure is slowly applied in the crack using an open or closed (flat jack) hydraulic system and the critical pressure causing instable crack growth is determined to calculate KIc values. Efforts are made to allow the determination of the fracture energy values.
The aim of this project is to develop and optimize a new test method for mass concrete, giving engineeers a practical tool to quantitatively evaluate the stability of cracked unreinforced concrete structures.
Expected advantages of the method are the relatively simple test set up, the long circular crack-process-zone and the easy production and testing of large specimens.
Forschungsgebiete
Ende: 30.01.2002
Beginn: 31.12.1995
It was the main goal of this study to get a first insight of the role of limestone as a mineral admixture of cement concerning the hydration process as well as the mechanical properties, the frost- and frost/de-icing salt resistance of mortar and concrete prepared with the use of limestone containing cement (up to 30 m% limestone). Furthermore, questions concerning the influence of limestone on the behaviour of concrete admixtures (plasticisers, air entraining agents etc.) and questions concerning the corrosion of reinforcements had been studied.
Mitarbeiter*innen
Koordinator
Jana Selih
Prof. Dr.
Prof. Dr.
sonstige Funktion
Katarina Cavlek
Jerneja Strupi Suput
B.sc.
B.sc.
Tomaz Vuk
B.sc., M.sc.
B.sc., M.sc.
Fördergeber*innen
- Österreichischer Austauschdienst GmbH - Agentur für Internationale Bildungs- und Wissenschaftskooperation, OeAD
Externe Partner
- Zavod za gradbeništvo Slovenije, ZAG Ljubljana
Forschungsgebiete
Ende: 29.11.2001
Beginn: 30.09.2000
This research work was done to expand knowledge about outside sprayed-on cellulose insulation application focusing on mechanical and physical properties respectively. Various spraying equipment was used for applying cellulose layers onto brick walls. These spraying experiments indicated that the general performance of the widespread common spraying methods or techniques is rather poor as far as achievable shear stress parameters are concerned. In the testing also glue or bonding agents were used to improve the mechanical properties. Material tests were performed using a tensile testing machine to gain mechanical parameters of spray-applied cellulose insulation layers. The involved parameters were shear stress, tensile resistance (in as well as normal to layer direction) compression strength and thermal conductivity. The results indicated that the tensile resistance of binder reinforced spray-applied cellulose insulation can achieve and even overtop threshold values required for mineral-wool insulation boards (MW-PT). If a more homogeneous mixture between binding and cellulose can be achieved the properties may even be increased distinctly. Concerning the hygro-thermal performance of the system further research work will be done in a following project.
Mitarbeiter*innen
sonstige Funktion
Herwig Hengsberger
Dipl.-Ing.
Dipl.-Ing.
Peter Kautsch
Mag. Dipl.-Ing. Dr.techn. Dr.iur., Ao.Univ.-Prof.
Mag. Dipl.-Ing. Dr.techn. Dr.iur., Ao.Univ.-Prof.
Fördergeber*innen
- Österreichische Forschungsförderungsgesellschaft mbH (FFG) , FFG
- Bundesministerium für Verkehr, Innovation und Technologie, BMVIT
Externe Partner
- JOANNEUM RESEARCH Forschungsgesellschaft mbH, POLICIES - Zentrum für Wirtschafts- und Innovationsforschung
Forschungsgebiete
Ende: 29.04.2001
Beginn: 29.02.2000
Some Hungarian and Austrian clinker and cement samples have been analysed for their content of strontium, barium, manganese, magnesium, titanium and zirconium, and analytical data processed by statistical ¿pattern recognition" methods: dendrograms were constructed and the significance value of the above elements computed. The recognition is quite good in the case of ordinary Portland cement clinkers, worse in the case of sulphate resistant clinkers.
Unfortunately, it turned out that the use of mineral admixtures from other sources causes such a great uncertainty that the identification is not possible.
Mitarbeiter*innen
Externe Partner
- Pannon Egyetem
Forschungsgebiete
Ende: 30.01.2001
Beginn: 31.12.1995
The experimental work for this diploma thesis was carried out in the laboratories of the Institute for Material Testing and Building Materials Technology and the attached Research and Testing Laboratory (TVFA) of the Technical University Graz.
The study started with rheological measurements on cement slurries using three different cements, two additives and three high performance superplasticizers, which gave the starting parameters (combination and dosage of the materials) for the experiments on the concrete itself.
For the determination of the characteristics of fresh concrete three test set-ups were used.
The Slump-Flow-Test for the determination of the Flow-Slump, the V-Funnel-Test for Funnel time (for the viscosity and cohesion) and a special U-Box-Test for the capability of self-levelling.
Twenty-five mixtures were made with varying components and particle-size distribution curves. The results were compared to assess the suitability of each test rig for the determination of the fresh concrete characteristics.
Mitarbeiter*innen
Projektleiter*innen
Helmuth Geymayer
Dipl.-Ing. Dr.techn., O.Univ.-Prof.
Dipl.-Ing. Dr.techn., O.Univ.-Prof.
Forschungsgebiete
Ende: 29.11.2000
Beginn: 31.01.2000
Objective of this cooperative research project was the development of organic covers as corrosion protection for reinforcing steels capable to withstand chloride solutions as well as aquaous solutions with pH values between 7 and 14. In addition a deposition technology should be devised to apply the protective layers after welding operations in the course of the production process of prefabricated reinforced concrete elements. A total of 35 different protective layers were tested with regard to corrosion resistance in a salt spray test arrangement similar to DIN 50021. Since the results were disappointing, as well with respect to the application techniques as with respect to corrosion resistance, the project was discontinued. not assigned KP: HR Dipl.-Ing. Dr. techn. Fritz Grasenick
Mitarbeiter*innen
Kontaktperson
Helmuth Geymayer
Dipl.-Ing. Dr.techn., O.Univ.-Prof.
Dipl.-Ing. Dr.techn., O.Univ.-Prof.
sonstige Funktion
Helmut Jäger
Em.Univ.-Prof. Dipl.-Ing. Dr.techn.
Em.Univ.-Prof. Dipl.-Ing. Dr.techn.
Fördergeber*innen
- Forschungsförderungsfonds für die gewerbliche Wirtschaft, FFF
Externe Partner
- Zentrum für Elektronenmikroskopie Graz, ZFE Graz
Forschungsgebiete
Ende: 30.01.1999
Beginn: 31.12.1997
After discussing different standards regulating the requirements for positioning, size and cover of reinforcements in concrete structures (state of the art), the various nondestructive test methods presently used to determine the size, position and cover in reinforced concrete structures are described and particualr emphasis is laid on magnetic measuring methods.
Two modern measuring sytemes were selected for detailed performance testing in the laboratory and on site. Both are based on magnetic measuring procedures, i.e. the Profometer 4 from Proceq and the Ferroscan System FS 10 from Hilti. A test program to investigate the effect of different influences such as distance, diameter and type of reinforcement, age and composition of concrete, multilayer reinforcement etc. was carried out and the repeatability and reproduceability of the measurements were determined.
Laboratory investigations were followed by practical field applications and the advantages and disavantages of both measuring devices were compared and possibilities for further improvements were suggested.
Mitarbeiter*innen
Forschungsgebiete
Ende: 30.01.1999
Beginn: 31.12.1996
Electroplating processes and other industrial methods often produce wastes containing heavy metals, such as chromium. If recovery of theses wastes is not feasible, a technical possible remedy can be their immobilisation in cement. At the high pH-value of hardened cement most heavy metals precipitate as hydroxides. Depending on its oxidation state, chromium can either be present as readily soluble chromate (6-valent chromium) or precipitates as chromium-hydroxide (3-valent chromium). Portland cement is usually unsuitable for reducing 6-valent chromium. After being complemented by reducing character additives (such as blast furnace slag, BFS), however, it may be satisfactory. The quantity of safely confinable Cr-load is assessed in this study by pore fluid expression and quasi-dynamic leaching techniques as a function of matrix composition.
Mitarbeiter*innen
Forschungsgebiete
Ende: 30.01.1998
Beginn: 31.12.1994
Mitarbeiter*innen
Externe Partner
- Norwegian Public Roads Administration
Forschungsgebiete
Ende: 30.01.1997
Beginn: 31.12.1995
Mitarbeiter*innen
Forschungsgebiete
Ende: 30.01.1997
Beginn: 31.12.1989
not assigned GG: Aktion Österreich-Ungarn im Rahmen des Austauschprogrammes Mittel- und Osteuropa
Mitarbeiter*innen
Externe Partner
- Pannon Egyetem
Forschungsgebiete
Ende: 30.01.1996
Beginn: 31.12.1994
Studies were carried out to provide a deeper inside into the mechanismn of electrochemical chloride removal (ECR). They were aimed at determining the changes in (i) total chloride content and (ii) the Cl--and OH--concentrations of the pore solution at varying concrete depths during ECR. It was shown that the efficiency of chloride removal deceased in the concrete cover with increasing depth, and that it was least efficient near the reinforcement. The factor that was identified as being responsible for this was the changes in OH--concentration of the pore solution that had been caused by reactions at the electrodes. The OH--concentration of the pore solution decreased in the area close to the surface during treatment, while it rose dramatically around the reinforcement. This resulted in an increase of the Chloride Transference Number and thus the efficiency of chloride removal close to the concrete surface, and a drastic decrease close to the reinforcement.
Mitarbeiter*innen
Fördergeber*innen
- Bundesministerium für wirtschaftliche Angelegenheiten, Straßenforschungsfonds
Forschungsgebiete
Ende: 30.01.1996
Beginn: 31.12.1992
Gradually increasing water pressure was applied to internal circular cracks (diameter 10-36 cm) in concrete cylinders (diam. 60 to 110 cm, 40-70 cm high) until unstable crack growth initiated failure. The tests have shown that moderate pressures (50-20 bar) can be sufficient to cause instable growth of relatively small cracks. The influence of sample and test geometry, concrete composition and the feasability to the method for determining KIc values for concrete were investigated.
Mitarbeiter*innen
Forschungsgebiete
Ende: 30.01.1996
Beginn: 31.12.1994
To meet the specific requirements, waterproofings used for concrete bridge decks must be resistent agianst cracks coming from the concrete below the waterproofing. Otherwise, the penetrating water creates a major corrosion risk to the reinforcing steel.
Different bituminous waterproofing membranes and systems have been tested.
Mitarbeiter*innen
Projektleiter*innen
Fördergeber*innen
- Forschungsförderungsfonds für die Straßenforschung
Forschungsgebiete
Ende: 30.01.1995
Beginn: 31.12.1994
Mitarbeiter*innen
Fördergeber*innen
- Österreichische Draukraftwerke AG
Forschungsgebiete
Ende: 30.01.1995
Beginn: 31.12.1992
Mitarbeiter*innen
Fördergeber*innen
- Wietersdorfer & Peggauer Zementwerke GmbH
Forschungsgebiete
Ende: 30.01.1995
Beginn: 31.12.1993
Mitarbeiter*innen
Fördergeber*innen
- Bundesministerium für wirtschaftliche Angelegenheiten, Straßenforschungsfonds
Externe Partner
- JOANNEUM RESEARCH Forschungsgesellschaft mbH, POLICIES - Zentrum für Wirtschafts- und Innovationsforschung
Forschungsgebiete
Ende: 30.01.1990
Beginn: 18.12.2024