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Collaborative Research Center SFB 799: TRIP-Matrix-Composites Design of tough, transformation- strengthened composites and structures based on Fe-ZrO 2 Planned program period: 2008 – 2020 Coordinator: Prof. Dr.-Ing. habil. Horst Biermann, Institute of Materials Technology, TU BAF Deputy Coordinator: Prof. Dr.-Ing. habil. Christos G. Aneziris, IKGB, TU BAF The vision of the SFB 799 is the exploration of a new class of high-performance composites called TRIP-MATRIX-COMPOSITES based on TRIP-assisted steels and zirconium dioxide ceramics (TRIP: transformation-induced plasticity). The development of innovative materials, structures, and processes as well as the application of bionic principles to micro and macro structures enable the generation of high-performance, highly stressable components with pioneering characteristics for the passenger safety in cars, trains and aircrafts. www.tu-freiberg.de/ze/sfb799 Priority Programme SPP 1418: Refractories – Initiative to Reduce Emissions – FIRE Planned program period: 2009 – 2015 Coordinator: Prof. Dr.-Ing. habil. Christos G. Aneziris, IKGB, TU BAF The German Research Foundation (DFG) has triggered a Priority Programme SPP 1418 for the next 6 years for applicable basic research in the refractory area by bridging different material disciplines and understanding the refractory materials as multifunctional, active, advanced ceramic compo- nents. Main targets are lower emissions at high temperature applications due to the impact of re- fractory innovations, development of improved thermal shocked oxide materials and designs as well as functionality in the application area of steel metallurgy and energy sector. www.tu-freiberg.de/ze/fire GLASING Planned program period: 2007 – 2016 Coordinator: Prof. Dr.-Ing. Heiko Hessenkemper, IKGB, TU BAF The aim of the GLASING project is the development of energy efficient technology suitable for the production of thermal toughened glass with a thickness of less than 2 mm and improved chemical and optical properties. The level of tension in the glass should reach that of toughened safety glass. For the thermal toughening of thin glass the heat transmission between glass and cooling medium has to be increased considerably. This can be accomplished by employing a liquid phase or a gas/liquid phase as a cooling medium. In order to apply this intensified cooling process to the indu- strial thermal toughening of glass, the strength of the glass sheets has to be increased by different means. www.glasing.info TECHNISCHE UNIVERSITÄT BERGAKADEMIE FREIBERG Institute of Ceramic, Glass and Construction Materials www.ikgb.de www.ikgb.de Professorships Prof. Dr.-Ing. habil. Christos G. Aneziris Professorship of ceramics Agricolastr. 17 · 09599 Freiberg phone +49 (0) 3731 39-25 05 fax +49 (0) 3731 39-24 19 e-mail [email protected] Prof. Dr.-Ing. Heiko Hessenkemper Professorship of glass and enamel technology Leipziger Str. 28 · 09599 Freiberg phone +49 (0) 3731 39-31 33 fax +49 (0) 3731 39-24 51 e-mail [email protected] Prof. Dr.-Ing. Thomas A. Bier Professorship of construction materials technology Leipziger Str. 28 · 09599 Freiberg phone +49 (0) 3731 39-42 42 fax +49 (0) 3731 39-22 23 e-mail [email protected]

TECHNISCHE UNIVERSITÄT BERGAKADEMIE …tu-freiberg.de/sites/default/files/media/institut-fuer-keramik... · This can be accomplished by employing a liquid phase or a ... manufacturing

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Collaborative Research Center SFB 799:TRIP-Matrix-Composites Design of tough, transformation-strengthened composites and structures based on Fe-ZrO2

Planned program period: 2008 – 2020Coordinator: Prof. Dr.-Ing. habil. Horst Biermann, Institute of Materials Technology, TU BAFDeputy Coordinator: Prof. Dr.-Ing. habil. Christos G. Aneziris, IKGB, TU BAF

The vision of the SFB 799 is the exploration of a new class of high-performance composites calledTRIP-MATRIX-COMPOSITES based on TRIP-assisted steels and zirconium dioxide ceramics (TRIP:transformation-induced plasticity). The development of innovative materials, structures, andprocesses as well as the application of bionic principles to micro and macro structures enable thegeneration of high-performance, highly stressable components with pioneering characteristics forthe passenger safety in cars, trains and aircrafts.www.tu-freiberg.de/ze/sfb799

Priority Programme SPP 1418:Refractories – Initiative to Reduce Emissions – FIRE

Planned program period: 2009 – 2015Coordinator: Prof. Dr.-Ing. habil. Christos G. Aneziris, IKGB, TU BAF

The German Research Foundation (DFG) has triggered a Priority Programme SPP 1418 for the next6 years for applicable basic research in the refractory area by bridging different material disciplinesand understanding the refractory materials as multifunctional, active, advanced ceramic compo-nents. Main targets are lower emissions at high temperature applications due to the impact of re-fractory innovations, development of improved thermal shocked oxide materials and designs as wellas functionality in the application area of steel metallurgy and energy sector.www.tu-freiberg.de/ze/fire

GLASING

Planned program period: 2007 – 2016Coordinator: Prof. Dr.-Ing. Heiko Hessenkemper, IKGB, TU BAF

The aim of the GLASING project is the development of energy efficient technology suitable for theproduction of thermal toughened glass with a thickness of less than 2 mm and improved chemicaland optical properties. The level of tension in the glass should reach that of toughened safety glass.For the thermal toughening of thin glass the heat transmission between glass and cooling mediumhas to be increased considerably. This can be accomplished by employing a liquid phase or agas/liquid phase as a cooling medium. In order to apply this intensified cooling process to the indu-strial thermal toughening of glass, the strength of the glass sheets has to be increased by differentmeans.www.glasing.info

TECHNISCHE UNIVERSITÄT BERGAKADEMIE FREIBERG

Institute of Ceramic, Glass andConstruction Materials

www.ikgb.de

www.ikgb.de

Professorships

Prof. Dr.-Ing. habil. Christos G. AnezirisProfessorship of ceramicsAgricolastr. 17 · 09599 Freibergphone +49 (0) 3731 39-25 05fax +49 (0) 3731 39-24 19e-mail [email protected]

Prof. Dr.-Ing. Heiko HessenkemperProfessorship of glass and enamel technologyLeipziger Str. 28 · 09599 Freibergphone +49 (0) 3731 39-31 33fax +49 (0) 3731 39-24 51e-mail [email protected]

Prof. Dr.-Ing. Thomas A. BierProfessorship of construction materials technologyLeipziger Str. 28 · 09599 Freibergphone +49 (0) 3731 39-42 42fax +49 (0) 3731 39-22 23e-mail [email protected]

Main Research

� Ceramics� Development of thermal shock and corrosion resistant ceramic materials for

high temperature applications in the metallurgy, cement and glass industry(carbon containing ceramics, castables for furnace lining, insulating materials,thermal shock resistant ceramics for steel metallurgy)

� Open porous ceramics for high temperature applications(diesel soot particle filters, molten metal filters)

� Alkali-resistant insulating materials for the cement industry� Metal-ceramics composite materials for high temperature and abrasion applications� Ceramic process engineering

� Glass� Fundamental and applied research of glass technology

– Stabilisation of manufacturing processes(redox state, cullet input, foam control, viscosity)

– Development of novel melting and processing technologies formanufacturing of solar glass and container glass

– Heat transport in the melting and forming processes– Material problems at forming processes– Recycling of glasses and residuals– Improvement of vitreous surfaces– Colour analysis and colouring process– Vitreous enamels and enamelling technology

� Construction Materials� R&D of various building materials such as mortar and concrete

(self compacting concrete), geopolymers, refractory concrete� Optimisation of macroscopic properties such as durability,

flow and mechanical properties and surface properties of reactive materials� Basic research into microstructure using calorimetry, X-ray diffractometry,

water vapour sorption, porosimetry, rheometry� Research and optimisation of building materials through high temperature processes

including autoclave processes

Research Projects

� Ceramics� Phase transition-capable zirconia-containing macrostructures for

manufacturing of ceramic-steel composite materials by infiltration� Cold extrusion as well as cold joining of ceramic-steel-sinter materials� 2D and 3D in-situ characterisation of deformation and

damage using scanning electron microscopy and computed tomography� Material and process evaluation of refractory systems

in an experimental steel casting facility� Pressure slip casting technology of coarse-grained, oxide ceramic slips

for the manufacturing of large-scale components with high density� Process innovation and energy saving in the cement industry

and in the utilisation of secondary fuels� Innovative heating technology for energy saving and quality improvement

in the glass industry.Subproject: Development of ceramics and burners

� Refractories for the transport of molten aluminium� Carbon containing castables

� Glass� One step forming process of container glass� Improved thermal hardening of thin flat glass sheets� Application of porous burners for processes in glass melting� Highly resistant fibre glass� Lubricants� High temperature vitreous enamels

� Construction Materials� New brown coal coke product for the improvement

of the sustainability during the operation of small-scale shaft kilns.Subproject: Hydrothermal binders

� Development of new mineral admixtures for cement and concrete� Development of alternative building materials� Properties of calcium aluminate cements

Equipment

� Analytics� ESEM, EDX, EBSD� Rapid X-ray diffractometry� Computed tomography� UV-VIS spectrometry� ICP-OES� LECO for sulphur determination� Laser granulometry� Mercury intrusion porosimetry� Water vapour sorption by DVS

� Testing equipment� Hood-type furnace up to 1650 °C (refractoriness under load, creep in compression)� Testing equipment for determination of modulus of rupture at elevated temperatures

up to 1450 °C� Testing equipment for determination of thermal conductivity up to 1200 °C� Corrosion testing furnace up to 1600 °C� Rheometry up to 200 °C/45 bar (different modes)� Equipment for testing of green and hardened mortars and concrete� Freeze thaw/deicing-salt-attack resistance of mortars and concrete by CF/CDF� Shrinkage channel� Testing equipment for determination of transmission, reflexion, index of whiteness,

chromaticity coordinate, chemical resistance, viscometric fixed points of glasses,enamels and glazes

� Ultrasonic technique for non-destructive testing

� Pilot equipment� Glass melting aggregate GLAWA-1 (with the capacity of 1 t/d)

for tests under industrial conditions in pilot scale (rolling machine applicable)� Equipment for thermal hardening of flat glass� Different chamber and tube furnaces up to 1750 °C, partial with adjustable atmosphere� Facilities for technology investigations (slip casting, extrusion, pressing)� Pressure slip casting machine� Flame spray unit� Autoclaves

Contact persons

Ceramics: Glass:Dipl.-Ing. Jana Hubálková Dr.-Ing. Sabine HönigAgricolastr. 17 · 09596 Freiberg Leipziger Straße 28 · 09596 Freibergphone +49 (0) 3731 / 39-42 55 phone +49 (0) 3731 / 39-26 48fax +49 (0) 3731 / 39-24 19 fax +49 (0) 3731 / 39-24 51e-mail [email protected] e-mail [email protected]

Construction Materials:Dr. rer. nat. Torsten WestphalLeipziger Str. 28 · 09596 Freibergphone +49 (0) 3731 / 39-31 32fax +49 (0) 3731 / 39-22 23e-mail [email protected]

� Thermal analytics� DTA/TG, DSC� Calorimetry� Dilatometry up to 1500 °C� Hot stage microscopy up to 1650 °C