
Explore how 5G delivers up to 10 Gbps, low latency, and energy efficiency across diverse use cases with Ericsson's network splicing and dedicated services. Learn how 5G enables industrial IoT, connected vehicles, and safer, more sustainable cities.
Trace the evolution from 1G to 5G, cover digital 2G, 3G, and 4G milestones, and review GSM, CDMA, UMTS, LTE, IMT-2020 new radio, and MIMO techniques.
5g enables significantly more data and efficiency for diverse use cases, from autonomous cars to sensors, through network slicing that builds multiple independent logical slices on a shared core network.
Learn how cellular architecture links radio access networks with core networks, including eNodeB, MME, and packet gateway, while 4G and 5G voice and data travel as packets.
Explore 5G system architecture, including radio, transport, and cloud domains, with new radio interface, dual connectivity with LTE and 5G, and virtualization of core networks for scalable, secure applications.
Explore 5g architecture, including non-standalone and standalone deployments, with 4g core networks and 5g core, gnb, x2/xn interfaces, and spectrum evolution from 6 ghz to 1800 mhz.
Explore different 5G configurations, including LTE and 4G networks, 4G with 5G, IPSI configurations, and dual connectivity.
Explore how 5g achieves up to ~20 gbps data rates through ofdm multiplexing, resource blocks, small subframes, mimo configurations, and carrier aggregation.
Discover how 5G achieves energy efficiency through ultra lean design that minimizes reference signals and uses digital beam forming to focus transmission, reducing power loss and network energy use.
Discover how 5g achieves low latency by edge computing, placing the upf at the cell site, and understanding the ru, du, cu architecture and control vs user planes.
Explore 5G use cases across mobile broadband, massive IoT, critical IoT, and fixed wireless access, highlighting high data rates, ultra-low latency, and extended coverage with drones, gaming, cameras, and sensors.
Explore 5G ux videos to understand how latency differs between 5G and 4G, with latency near one millisecond for 5G and around 20 milliseconds for 4G.
Explain health and safety in 5g: electromagnetic waves pose no risks within limits per World Health Organization, and use six gigahertz for 5g with 900/1800 mhz 4g bands nationwide.
Conclude your 5G fundamentals journey with this final video, inviting questions, offering consultancy services, requesting feedback, and inviting contact at info at the red dot com.
Explore how generative AI transforms 5G communications by infusing products as AI copilots, enabling predictive maintenance, personalized services, and smart data insights.
Being a citizen of this digital world, its impossible that you haven’t come across the word- ‘5G’. There has been a lot of interest, concerns, speculations and expectations about the impact that 5G has on various industries and societies at large. The important role 5G plays in the digital transformation ecosystem is provide a faster and better connectivity to the users to access various applications and services.
In this course, we shall define 5G, understand it’s history and background and cover a very high level technical concepts, use cases and and user experiences.
For this course, it is required to have some basic knowledge about the cellular technologies and telecom operator business. I would recommend you to take the course Understanding the telecom operator business as a prerequisite. At the end of this course, I can assure you that you will have a good knowledge and understanding on 5G fundamentals.