5G Fundamentals for Beginners from Zero to Hero

Explore the evolution of mobile generations from 1G to 5G, highlighting voice, data speeds, and key milestones like GSM, GPRS, EDGE, and LTE.

Explore how RAJEEB, the 3GPP standards body, defines 5G through release 15 phase one and 16/17 phase two, highlighting new radio, network slicing, MTC and URLLC for industry and transport.

Examine the four pillars driving 5g deployments—fixed wireless access, enhanced mobile broadband, ultra reliable low latency, and massive machine type communication—with targets like 1 ms latency and gigabit speeds.

Learn how 5G achieves ultra low latency and high reliability through the minimum slot, the many-slot concept, and a flexible frame, enabling remote surgery, autonomous driving, and industrial automation.

Understand 5g spectrum ranges—low, mid, and high—and how dynamic spectrum sharing enables 4g and 5g to coexist while delivering IoT, high data rates, and ultra-low latency.

Explore millimeter wave bands from 24 to 100 GHz enabling multi-gigabit connectivity and ultra reliable communication for 5G, while small cells and dynamic spectrum sharing boost coverage and spectrum efficiency.

Explore massive MIMO and beamforming as core 5G physical layer technologies that enhance capacity, coverage, and spectrum efficiency in millimeter wave bands by focusing signals toward users.

Trace the shift from the first to the fourth industrial revolution, highlighting drivers and enablers. See how 5G, virtualization, and cloud enable billions of IoT sensors and real-time automation.

Compare 5G with 4G to reveal machine-type communication, IoT, and sensors enabling low-latency, reliable use cases such as e-health and autonomous driving, with up to one million devices per kilometer.

Explore 5G use cases across health, industry automation, drones, smart cities, and autonomous vehicles. Emphasize ultra-low latency, enhanced mobile broadband, massive machine-type communication, and private networks.

Explore the flexible design of 5G networks, covering carrier frequencies, deployment types, and diverse use-case configurations, then emphasize forward compatibility and ultra-lean design to improve energy efficiency and reduce opex.

Discover core 5g enablers for IoT and industrial automation, including end-to-end network slicing, mobile computing, and control plane-user plane separation. Learn how up to eight slices per device reduce latency.

Explore how 5g network slicing creates virtual subnets with tailored resources, enabling ultra low latency, IoT, and critical applications. Learn how vertical and horizontal slicing optimize QoS and infrastructure sharing.

Discover how edge computing near the user reduces latency, while multi connectivity and user-plane separation enable traffic steering across 5G, LTE, and Wi-Fi.

Explore 5g deployment options, including non-standalone dual connectivity and standalone architectures, and compare their costs, timelines, and readiness for migration to a full 5g network.

Explore how the 5G core shifts to a cloud-based service-based architecture, enabling control and user plane separation, AMF, SMF, UPF, and a migration path to standalone 5G.

Explore how the 5G core adopts a cloud-based service-based architecture. Demonstrate how network functions provide services to other authorized network functions through standard interfaces.

Explore the 5g network architecture and its service-based design, detailing key network functions such as AMF, UPF, NRF, UDR, and policy control, along with control and user plane separation.