Self-paced course

SWIPT Concept

This course introduces the SWIPT (Simultaneous Wireless Information and Power Transfer) concept, which enables the simultaneous transmission of both information and energy over wir

Description

This course introduces the SWIPT (Simultaneous Wireless Information and Power Transfer) concept, which enables the simultaneous transmission of both information and energy over wireless communication channels. SWIPT plays a key role in enabling energy-efficient wireless networks, Internet of Things (IoT) devices, and 5G communication systems, as it allows devices to harvest energy while receiving data.

Topics covered

  • Introduction to SWIPT: Basic concept, historical background, and importance in modern communication systems,
  • SWIPT Models and Architectures: Coexistence of power and information transfer, full-duplex vs half-duplex systems,
  • Power Splitting and Time Switching Techniques: Energy harvesting models, power splitting methods, and time switching mechanisms,
  • Energy-Efficient Communication: Optimizing energy transfer while maintaining high data throughput,
  • Channel Models for SWIPT: Wireless communication channels in IoT networks, 5G, and sensor networks,
  • SWIPT in Wireless Networks: Integration of SWIPT in Wi-Fi networks, cellular networks, and sensor networks,
  • Practical Applications of SWIPT: Low-power IoT devices, wireless sensor networks, energy harvesting for autonomous systems,
  • SWIPT Challenges: Interference, power allocation, and quality-of-service (QoS) constraints,
  • Advanced Techniques for SWIPT: Energy beamforming, adaptive power control, and multi-user SWIPT,
  • Future Trends in SWIPT: The integration of SWIPT with future 5G/6G networks, energy harvesting, and sustainable communication systems

Who should attend

  • Wireless communication engineers working on 5G/6G, IoT, and energy-aware network design

  • RF and antenna engineers interested in energy harvesting, beamforming, and wireless power transfer

  • IoT and sensor-network developers designing battery-less or low-power connected devices

  • Researchers and graduate students in telecommunications, electrical/electronics engineering, and signal processing

  • Embedded systems and hardware designers focusing on ultra-low-power architectures and energy-efficient communication modules

  • R&D teams and innovation managers exploring next-generation green communication and autonomous systems

  • Technology consultants and strategists evaluating sustainable and self-powered connectivity solutions