Overview
5G and 6G communication systems will employ mm-Wave frequencies. This has made the development of highly integrated antenna arrays and RF front ends a standard practice. Engineers need to integrate RF, electromagnetic analysis, and digital signal processing algorithms within their system-level models.
In this webinar, we provide practical examples of RF design and simulation techniques for MIMO transceivers to enhance the overall performance and reduce costly re-spins. For RF transmitters, you will learn how to model power amplifiers and their interaction with antenna arrays and beamforming algorithms. This includes quantifying their spectral regrowth, measuring metrics such as EVM and ACLR and developing linearization techniques such as digital predistortion. For RF receivers, we showcase how you can develop equalization strategies, anticipate the impact of in-band and out-of-band interfering signals and develop interference mitigation strategies based on filtering or null steering. Finally, we will develop new architectures and algorithms using data sheet specifications, component measurements, electromagnetic analyses and ray tracing methods.
Highlights
- Design and simulation of mmWave transceivers for 5G
- Integration of antenna arrays and RF front ends
- Linearization of mmWave transmitters
- Anticipating the impact of interfering signals on RF receivers
- Integration of RF modeling, EM analysis, and ray tracing algorithms for scenario modeling
About the Presenter
Giorgia Zucchelli is the product manager for RF and mixed-signal at MathWorks. Before moving to this role in 2013, she was an application engineer focusing on signal processing and communications systems and specializing in analog simulation. Before joining MathWorks in 2009, Giorgia worked at NXP Semiconductors on mixed-signal verification methodologies and at Philips Research developing system-level models for innovative communications systems. Giorgia has a master’s degree in electrical engineering and a doctorate in electronics for telecommunications from the University of Bologna.
