
Kick off your learning with an introduction to phased array antennas and 5G networks, download slides, and rely on feedback and a 30-day money-back guarantee to improve the course.
Explore the 5G triangle consisting of ultra reliable low latency communication, massive machine type communication, and enhanced mobile broadband, and its applications in health care, traffic management, and autonomous driving.
Explore beamforming for 5g antennas, p4p technique use, beam scanning, and beam splitting, showing how more radiating elements raise gain and direct signals to users.
Explore the blast matrix beamforming technique, using transmission lines and directional couplers to create beams by time delays for any element count, with progressive phase shifts and lossy orthogonal-beam design.
Explore the Rotman lens antenna, its adaptive reflections and delay lines that steer energy to beam ports for high-resolution beamforming in 5G networks.
Explore beam scanning, or beam steering, by changing the relative phases of radiating elements to steer the main radiation pattern toward users A, B, or C.
Explore beam splitting, dividing a single radiating element into two beams to extend network coverage across all four quadrants, mitigating losses in beam forming via the feed network.
Explain the reflection phase of a high impedance surface at normal incidence using its LCL equivalent circuit, showing zero reflection phase as an open circuit and contrasting with metamaterials.
Explore microwave absorbers with high dielectric constants to absorb and attenuate RF signals, enabling beam splitting and loss reduction in high-frequency 5G systems, using absorber formats like sheets and pyramids.
Explore phase shifting methods for phased array antennas, including changing frequency, physical length, dielectric constant, and permeability. See how these methods affect beam direction in linear, planar, and vertical arrays.
Explore cellular networks and how capacity grows through cell density, available spectrum, and spectrum efficiency. Learn about base stations, throughput calculations, and the role of modulation in boosting efficiency.
Explore the classification of multiuser MIMO versus point-to-point MIMO, detailing how a base station with M antennas serves K users, uplink and downlink spectral efficiency, and the role of CSI.
Explore how massive MIMO uses many base station antennas to serve multiple terminals with linear signal processing in uplink and downlink, boosting throughput. Compare it with conventional multiuser MIMO.
Explore favorable propagation in massive MIMO, showing how normalizing channel vectors yields orthogonal paths that enable user separation in uplink and downlink and boost cell throughput with many antennas.
12/22/2020 Per student's feedback we did a complete voice over on the course to improve audio quality
Course Description: Evolution of 5G Technology and Advanced Antenna Concepts
Welcome to RAHAE310, where we embark on an exciting journey through the evolution of wireless technology from 1G to the cutting-edge 5G era. This course explores the pivotal role that antennas have played in each generation of wireless technology, shedding light on beamforming techniques, phased arrays, and the transformative impact of Massive MIMO in 5G technology.
Course Highlights:
In RAHAE310, we delve into the following key areas:
Revolutionary Evolution of 5G Technology: Trace the evolution of wireless technology, from the early days of 1G to the groundbreaking advancements of 5G.
Requirements to Implement 5G Technology: Understand the essential prerequisites and infrastructure needed to implement 5G technology successfully.
Beamforming: Explore various beamforming techniques, including Butler matrix, Blass matrix, and Disruptive beamforming, and their significance in wireless communication.
Beam Scanning and Beam Splitting: Dive into the fundamental concepts of beam management, beam scanning, and the principles behind metasurfaces, explained in a simplified manner.
Phased Array: Gain insights into phased arrays, different phase-shifting methods, and their advantages over planar arrays.
Role of Massive MIMO in 5G: Discover the pivotal role that Massive MIMO technology plays in the 5G landscape and its impact on wireless communication.
RF Antenna Diversity: Explore the concept of antenna diversity and its crucial requirements in the context of 5G communication.
Target Audience:
This course is designed for a diverse audience, including:
Antenna Engineers seeking to expand their knowledge in advanced antenna concepts.
Postgraduate students looking to specialize in the field of RF technology.
Research scholars in the realm of wireless communication.
RF Technicians aiming to enhance their expertise.
Test Engineers in the RF industry striving for a deeper understanding of 5G technology.
Prerequisite:
Students planning to obtain the Rahsoft RF Certificate for RAHAE310 should have a foundational understanding of RF technology.
Course Content:
Revolutionary Evolution of 5G Technology
Requirements to Implement 5G Technology
Exploring Beamforming Techniques
Unraveling Beam Scanning and Beam Splitting
Phased Array: Advantages and Methods
Massive MIMO's Transformative Role in 5G
RF Antenna Diversity in 5G Communication
Join us in exploring the dynamic landscape of wireless technology, from its inception to the cutting-edge innovations of 5G. Enroll in RAHAE310 today and stay ahead in the ever-evolving world of wireless communication!G Communication