CMC for Stationary Gas Turbines

The higher the operating temperature of stationary gas turbines, the higher their efficiency. From a technological point of view, a level has been reached where a significant increase in the operating temperature can only be achieved by using CMC.

Here you will find a selection of our research projects:

• CMC-Engine Lightweight structures made of SiC/SiC ceramics: key components for next-generation gas turbines
  
• DoMiGat Dense oxide ceramic CMC components for microturbine applications
  
• RoSiC Development of SiC fabrics for the winding process for the production of high-temperature resistant pipes
  
• 3D-FRG Development of a coating for short fibres via the vortex coating process
  
• TraTurb CMC support structures in the hot-fibre section of gas turbines
  
• CMC-TurbAn CMC optimisation for turbine applications
  

These publications might also interest you:

• Wet chemical deposition of BN, SiC and Si₃N₄ interphases on SiC fibers
  
• Oxide Ceramic Matrix Composites – Manufacturing, Machining, Properties and Industrial Applications
• Fabrication and upscaling of spinning processes for ceramic high-tech fiber production
• Ceramic Matrix Composites – an Alternative for Challenging Construction Tasks
  
• Joining of Ceramic an Metal Parts
• Adhesive Bonding of Oxide Ceramics for Complexe Ceramic Parts in High Temperature Furnaces
• Characterization of Furnace Sintered Mullite and Oxide Ceramic Matrix Composites (O-CMC) by Using Glass Solders
  
• Finite element modeling of reactive liquid silicon infiltration
• Fundamental Mechanisms With Reactive Infiltration of Silicon Melt Into Carbon Capillaries
  
• Anforderungsgerechte textile Halbzeuge und Z-verstärkte Preformen für Hochleistungsfaserverbundkeramiken
• BN-Based Fiber Coatings by Wet Chemical Coating