Dip Goswami is an Associate Professor in the Electronic Systems group of the Department of Electrical Engineering at Eindhoven University of Technology (TU/e). His research focuses on various design aspects of embedded control systems in resource-constrained domains such as automotive and robotics.
Much of Goswami’s interests are seen in his work with PhD students, such as in resource-aware design of embedded control systems, optimization of distributed automotive systems such as vehicle platoons, embedded implementation of motion control systems, optimization and analysis of data intensive control loops. In addition, he is closely involved in the development of design and performance analysis techniques for embedded control systems implemented on to predictable multi-core platforms.
Goswami has co-authored 60 conference papers, 20 journal articles, and 1 book chapter. He has published in several international journals and conferences in the fields of embedded control systems, robotics and cyber-physical systems, resulting in three best paper awards.
Dip Goswami obtained his PhD in Electrical and Computer Engineering from the National University of Singapore (NUS) in 2009. From 2010 to 2012, he was an Alexander von Humboldt Postdoctoral Fellow at TU Munich, Germany. Since 2013, Goswami is an Assistant Professor at Eindhoven University of Technology (TU/e).
He regularly serves on technical program committees (TPC) of a number of prominent conferences in embedded and cyber-physical systems, such as DAC, DATE, RTAS, RTSS, EMSOFT, DSD and so on. He is an associate editor of the Elsevier journal Microprocessors and Microsystems.
An Evaluation Framework for Vision-in-the-Loop Motion Control Systems(2022)
State-based switching multi-rate controller for improving resource utilization on predictable and composable platformsMicroprocessors and Microsystems (2022)
Delay-aware Multi-layer Multi-rate Model Predictive Control for Vehicle Platooning under Message-rate Congestion ControlIEEE Access (2022)
Analyzable Publish-Subcribe Communication Through a Wait-Free FIFO Channel for MPSoC Real-Time Applications(2022)
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