Attend MathWorks Automotive Conference at Mövenpick Hotel Airport and Messe in Stuttgart, Germany on April 14th to learn from leading automotive engineers, researchers, and scientists as they share real-world examples about the latest automotive trends like software-defined vehicles, digital transformation, virtual engineering, electrification, AI and data, and automated driving.
BTC Embedded Systems will be present with a booth in the exhibition area. Meet Wolfgang Meincke and Markus Gros from our engineering team and learn about how we can help you to make your software testing more intelligent and automated.
Markus Gros
Senior Vice President Marketing & Sales · BTC Embedded Systems · Berlin, Germany
Markus Gros studied Mechatronics at the University of Darmstadt and at the Universidad Politecnica de Catalunya in Barcelona. After his Diploma in 2007, he began working for dSPACE in Paris where he provided support, trainings and consulting to French customers in the Automotive and Aerospace Domain for topics including model-based development, automatic code generation, AUTOSAR and ISO 26262. In 2012, he joined BTC Embedded Systems AG where he is today responsible for global marketing & sales activities. He also serves as President of BTC Embedded Systems Inc. in Detroit, Representative Director of BTC Japan and Vice Chairman of the Board of Directors of BTC Software Technology Shanghai.
Wolfgang Meincke
BTC Embedded Systems · Stuttgart, Germany
Wolfgang Meincke studied Computer Science at the University Ravensburg-Weingarten where he graduated in 2006. He then worked at EWE TEL GmbH where he was responsible for requirements engineering and project management for software development projects as well as agile software development processes. In 2014 he joined BTC as senior pilot engineer to support the customers to integrate the tools into their development processes as well as giving support and training on test methodologies regarding the ISO 26262 standard. One of his main areas of interest is the formalization of safety requirements and their verification based on formal testing and model-checking technologies for unit test, integration test and HIL real-time-testing.
