Reiner Anton
Siemens
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Featured researches published by Reiner Anton.
ASME 2006 Power Conference | 2006
Julie McGraw; George Van Deventer; Reiner Anton; Andrew J. Burns
The evolution of industrial gas turbines has been a driving factor in the advancement of repair techniques for industrial gas turbine components. Turbine vane segments (also known as stationary blades, non-rotational airfoils, or nozzles) are among the many components that have been a focus for repair development. Due to increasing engine efficiencies, the design of gas turbine vane segments continues to become progressively more complex. Neoteric vanes are cast of highly developed superalloys, have complex cooling designs, and are coated with the latest generation coating systems which utilize advanced oxidation resistant bondcoatings combined with thermal barrier coatings. While advanced technologies enable these vanes to operate at the extreme hot gas path running temperatures of today’s engines, they also significantly increase the level of technology required to successfully repair them. The ability to repair these components is essential to minimize the operators’ life cycle cost of the gas turbine. Recoating, reestablishing of critical cooling, dimensional restoration, along with surface and structural restoration using high strength weld and braze techniques are essential for these vanes. Conventional and advanced repair techniques are key elements in the continuing evolution of industrial gas turbine component repair development. This paper will focus on a variety of Siemens’ technical competencies applied during the restoration of service run vane segments for the turbine section of a gas turbine. These repair competencies and technology/service options include: • Dimensional restoration techniques utilizing hot and cold straightening; • Utilization of refurbished blade rings for completed roll-in/roll-out exchanges; • Coupon repair techniques; • Braze restoration of cracks; • Laser etching; • Strain tolerant coatings; • Future technologies under development.Copyright
ASME 2005 Power Conference | 2005
Julie McGraw; Reiner Anton; Christian Bähr; Mary Chiozza
In order to promote high efficiency combined with high power output, reliability, and availability, Siemens advanced gas turbines are equipped with state-of-the-art turbine blades and hot gas path parts. These parts embody the latest developments in base materials (single crystal and directionally solidified), as well as complex cooling arrangements (round and shaped holes) and coating systems. A modern gas turbine blade (or other hot gas path part) is a duplex component consisting of base material and coating system. Planned recoating and repair intervals are established as part of the blade design. Advanced repair technologies are essential to allow cost-effective refurbishing while maintaining high reliability. This paper gives an overview of the operating experience and key technologies used to repair these parts.Copyright
Archive | 2010
Reiner Anton; Christian Bähr; Brigitte Heinecke; Michael Ott
Archive | 2003
Reiner Anton; Marc De Vogelaere; Daniel Körtvelyessy; Ralph Reiche
Archive | 2010
Reiner Anton; Birgit Grüger; Brigitte Heinecke; Dirk Martin Dr. Seeger
Archive | 2008
Reiner Anton; Christian Ressel; Dirk Martin Dr. Seeger
Archive | 2009
Reiner Anton; Brigritte Heinecke; Michael Ott; Christian Ressel
Archive | 2009
Reiner Anton; Birgit Grüger; Brigitte Heinecke; Dirk Martin Dr. Seeger
Archive | 2003
Reiner Anton; Christian Bähr; Brigitte Heinecke; Michael Dr. Ott
Archive | 2016
Reiner Anton; Robert Herfurth; Kay Krabiell; Khaled Maiz; Jan Münzer; Ingo Reinkensmeier; Olaf Schmidt; Frank Schulz