RF Systems Engineering for Multi-Radio Coexistence Training by Tonex
This course provides an in-depth exploration into the engineering and management of RF systems, emphasizing the coexistence and performance optimization of various wireless technologies including Cellular, Wi-Fi, Bluetooth (BT), GPS, Near Field Communication (NFC), Ultra-Wideband (UWB), and Thread. It covers the principles of radio operation, wireless architectures, RF hardware design, and standard methodologies for system-level performance enhancement. Through a blend of theoretical knowledge and practical skills, participants will learn to navigate the complexities of multi-radio coexistence, conduct hands-on debugging, and implement design optimizations for improved system performance.
Intended Audience:
This course is designed for:
- RF Engineers and Systems Engineers
- Wireless Communication Professionals
- Technical Managers overseeing RF projects
- Academics and Researchers in Wireless Communications
- Product Development Engineers in the IoT and mobile device sectors
Learning Objectives:
Upon completion of this course, participants will be able to:
- Understand the fundamental operation of various radios including Cellular, GPS, Bluetooth, Wi-Fi, Thread, NFC, and UWB.
- Gain knowledge in wireless architectures, including front-end, antenna sharing, and link budget line-up.
- Develop a proven understanding of RF hardware and methodologies for grounding, shielding, isolation, and electromagnetic interference mitigation.
- Acquire skills in RF component characteristics and practical experience using lab equipment such as spectrum analyzers, network analyzers, signal generators, and oscilloscopes.
- Perform hands-on disassembly and system-level debugging on modules, reference boards, or at the system level.
- Debug and optimize conducted or radiated radio systems to enhance multi-radio coexistence.
Course Topics:
Module 1: Introduction to RF Systems and Multi-Radio Coexistence
- Overview of RF systems engineering and importance of multi-radio coexistence.
- Challenges in multi-radio environments.
Module 2: Radio Technologies: Cellular, GPS, Bluetooth, Wi-Fi, Thread, NFC, and UWB
- Principles of operation, advantages, and challenges of each technology in multi-radio contexts.
Module 3: Wireless Architectures and System Design
- Understanding of front-end design, antenna sharing technologies, and link budget analysis.
- RF/wireless system-level failure analysis and hardware modifications for performance optimization.
Module 4: RF Hardware Design and Methodologies
- Grounding, shielding, isolation techniques, and electromagnetic interference mitigation.
- Design and process changes for addressing multi-radio coexistence issues.
Module 5: Component Characteristics and Lab Equipment Proficiency
- Deep dive into RF component functionalities and characteristics.
- Hands-on training with spectrum analyzers, network analyzers, signal generators, and oscilloscopes.
Module 6: System Level Debugging and Optimization
- Techniques for disassembly, system-level debugging, and optimization.
- Debugging and optimization at conducted or radiated levels for improved radio system performance.
Module 7: Validation, Characterization, and Experimental Design
- Execution of validation and characterization test plans.
- Use of hardware mock-ups, system prototypes, and experimental setups for understanding and mitigating risks.
Module 8: Collaboration and Communication
- Aligning with cross-functional partners on design trade-offs and implementation paths.
- Communication skills for effectively sharing insights and proposals.
Course Format:
- Lectures
- Hands-on laboratory sessions
- Group projects
- Case studies and real-world problem solving
- Guest lectures from industry experts
Assessment:
- Quizzes and exams
- Laboratory reports
- Group project presentations
- Final exam
This course aims to equip participants with the knowledge and skills necessary to excel in the rapidly evolving field of RF systems engineering, with a special focus on the challenges and solutions related to multi-radio coexistence.