
5G Network Engineer Course
Master every layer of 5G — from radio access and core network functions to security, slicing, and automation. This course gives network engineers the technical depth and hands-on frameworks needed to design, deploy, and optimise real-world 5G infrastructure. If you are serious about advancing your career in telecommunications, this is where you build the expertise that employers are hiring for.
What you will learn:
You will gain a thorough understanding of 5G architecture, covering the RAN, core network, transport, and security layers. The course walks you through gNB design, O-RAN functional splits, and massive MIMO configurations. You will learn how to architect network slices, manage their lifecycle, and enforce SLA-based QoS policies. 5G core network functions including AMF, SMF, and UPF are covered in detail, along with call flow procedures. RF planning, link budget calculations, and KPI-driven optimisation techniques are included to prepare you for real deployment scenarios. You will also explore network automation using NETCONF, YANG, and closed-loop control frameworks. By the end, you will have the technical knowledge to operate, troubleshoot, and evolve 5G networks professionally.
How you study in practice 5G Network Engineer Course
How you practise 5G Network Engineer Course
For companies looking to train their teams
With Dedika for businesses, the course includes exercises and examples tailored to your company and its specific needs.
Course content
8 Chapters • 40 LessonsDuration between 4 and 360 hours (you decide)
Chapter 1HideHide detailsSee detailsFoundations of 5G Technology
Foundations of 5G Technology
Lesson 1 • 5G Deployment Scenarios
Surveys NSA and SA deployment modes, small cell strategies, and heterogeneous networks. Prepares learners to evaluate deployment options in later chapters.
Lesson 2 • Mobile Network Generations Overview
Traces the evolution from 1G to 5G, highlighting key capability jumps at each generation. Establishes the historical context needed to understand 5G design decisions.
Lesson 3 • 5G Frequency Bands and Spectrum
Introduces sub-6 GHz and mmWave spectrum, licensing models, and propagation trade-offs. Grounds learners in the physical constraints shaping 5G deployment strategies.
Lesson 4 • Core 5G Design Principles
Explains service-based architecture, network slicing concepts, and cloud-native design. Provides the conceptual framework for all subsequent technical chapters.
Lesson 5 • 5G Standardisation and Ecosystem
Covers 3GPP release structure, key standards bodies, and industry stakeholders. Connects global standardisation to real-world deployment decisions.
Chapter 2HideHide detailsSee details5G Radio Access Network Architecture
5G Radio Access Network Architecture
Lesson 1 • Massive MIMO and Beamforming
Explains antenna array configurations, beamforming algorithms, and spatial multiplexing gains. Connects antenna technology to spectral efficiency improvements.
Lesson 2 • gNB Architecture and Components
Details the gNB-CU and gNB-DU split, interfaces, and protocol stacks. Establishes the building blocks of the 5G RAN for deeper protocol study.
Lesson 3 • New Radio Air Interface Fundamentals
Covers NR numerology, OFDM waveform design, and frame structure. Links physical layer parameters to system capacity and latency performance.
Lesson 4 • RAN Functional Splits and O-RAN
Examines the seven functional split options and the Open RAN disaggregation model. Prepares learners to evaluate vendor-neutral RAN deployments.
Lesson 5 • Channel Coding and Modulation
Covers LDPC and Polar codes, adaptive modulation, and link adaptation strategies. Demonstrates how coding choices affect throughput and reliability.
Chapter 3HideHide detailsSee details5G Core Network Architecture
5G Core Network Architecture
Lesson 1 • Network Exposure and APIs
Covers NEF, SCEF, and northbound APIs for third-party service exposure. Introduces programmability concepts that underpin network-as-a-service models.
Lesson 2 • Control Plane Network Functions
Covers AMF, SMF, PCF, UDM, and AUSF roles and interactions. Explains how control plane NFs manage sessions, policies, and authentication.
Lesson 3 • Registration and Session Procedures
Walks through UE registration, PDU session establishment, and handover signalling flows. Builds procedural knowledge essential for troubleshooting.
Lesson 4 • User Plane and Data Path
Details UPF functions, N4 interface, and traffic steering mechanisms. Connects user plane design to latency and throughput optimisation.
Lesson 5 • 5G Core Network Overview
Introduces the 5GC architecture, service-based interfaces, and key network functions. Sets the structural foundation for detailed NF study.
Chapter 4HideHide detailsSee detailsNetwork Slicing and Virtualisation
Network Slicing and Virtualisation
Lesson 1 • QoS and SLA Enforcement in Slices
Covers 5QI parameters, GBR and non-GBR flows, and SLA monitoring mechanisms. Ensures learners can map business SLAs to technical QoS configurations.
Lesson 2 • Slice Lifecycle Management
Details slice template design, instantiation, scaling, and termination workflows. Connects management operations to MANO and OSS/BSS systems.
Lesson 3 • Network Slice Architecture
Covers NSSAI, slice selection, and end-to-end slice composition across domains. Links slice identifiers to resource allocation and QoS enforcement.
Lesson 4 • NFV and SDN Fundamentals
Explains ETSI NFV architecture, VNF lifecycle, and SDN control plane separation. Provides the virtualisation foundation required for slice design.
Lesson 5 • Multi-Domain Slice Orchestration
Examines cross-domain orchestration, inter-operator slicing, and hierarchical MANO. Prepares learners for enterprise and roaming slice deployments.
Chapter 5HideHide detailsSee details5G Transport and Backhaul Networks
5G Transport and Backhaul Networks
Lesson 1 • Synchronisation and Timing
Covers IEEE 1588 PTP, SyncE, and GNSS-based timing for 5G RAN synchronisation. Explains how timing errors degrade TDD performance and MIMO coordination.
Lesson 2 • Packet Transport and Ethernet
Examines carrier Ethernet, MPLS-TP, and segment routing for 5G packet transport. Links packet transport protocols to latency and reliability targets.
Lesson 3 • Transport Network Segmentation
Defines fronthaul, midhaul, and backhaul segments and their distinct requirements. Establishes the transport framework for technology selection decisions.
Lesson 4 • Optical Transport Technologies
Covers DWDM, OTN, and passive optical network options for 5G transport. Connects optical capacity to high-density RAN deployments.
Lesson 5 • Wireless Backhaul and IAB
Covers microwave, mmWave backhaul, and 5G Integrated Access and Backhaul. Prepares learners to deploy cost-effective backhaul in dense urban environments.
Chapter 6HideHide detailsSee details5G Security Architecture and Protocols
5G Security Architecture and Protocols
Lesson 1 • 5G Security Architecture Overview
Maps the 3GPP security architecture, trust domains, and security edge protection. Provides the structural context for all protocol-level security topics.
Lesson 2 • Network Function and API Security
Covers TLS, OAuth 2.0, and certificate management for SBI security. Ensures learners can secure service-based interfaces in cloud-native deployments.
Lesson 3 • Authentication and Key Management
Covers 5G-AKA, EAP-AKA', SUPI/SUCI concealment, and key hierarchy derivation. Explains how subscriber identity is protected from registration through session.
Lesson 4 • Air Interface and NAS Security
Details AS and NAS security mode procedures, ciphering, and integrity protection. Connects radio-layer security to core network signalling protection.
Lesson 5 • Threat Modelling and Security Auditing
Applies STRIDE methodology to 5G components and covers penetration testing approaches. Prepares learners to proactively identify and remediate 5G vulnerabilities.
Chapter 7HideHide detailsSee details5G Network Planning and Optimisation
5G Network Planning and Optimisation
Lesson 1 • Site Survey and Antenna Planning
Covers site acquisition criteria, antenna tilt and azimuth optimisation, and inter-site distance. Translates planning outputs into actionable site engineering parameters.
Lesson 2 • Network Optimisation Techniques
Covers drive testing, SON algorithms, and AI-assisted parameter tuning. Closes the planning-to-performance loop with data-driven optimisation methods.
Lesson 3 • RF Propagation and Link Budget
Covers path loss models, link budget calculations, and coverage prediction tools. Grounds learners in the physics that drive site placement decisions.
Lesson 4 • Capacity Dimensioning and Traffic Modelling
Explains traffic forecasting, spectral efficiency estimation, and cell capacity calculations. Connects demand projections to site density and spectrum requirements.
Lesson 5 • KPI Definition and Measurement
Defines 5G KPIs for accessibility, retainability, mobility, and throughput. Establishes the measurement framework used in optimisation workflows.
Chapter 8HideHide detailsSee details5G Operations, Troubleshooting, and Automation
5G Operations, Troubleshooting, and Automation
Lesson 1 • OSS/BSS Architecture for 5G
Maps OSS and BSS functions, TMF frameworks, and their integration with 5GC. Establishes the operational management context for automation and assurance.
Lesson 2 • Fault Management and Troubleshooting
Covers alarm correlation, root cause analysis, and structured troubleshooting workflows. Builds systematic diagnostic skills applicable to RAN, transport, and core faults.
Lesson 3 • Performance Monitoring and Assurance
Explains PM data collection, threshold-based alerting, and SLA assurance dashboards. Connects monitoring outputs to proactive network management actions.
Lesson 4 • Network Automation with YANG and NETCONF
Covers YANG data modelling, NETCONF/RESTCONF protocols, and configuration automation. Enables learners to build automated provisioning and change management pipelines.
Lesson 5 • Closed-Loop Automation and Intent-Based Networking
Examines ONAP, intent translation, and closed-loop control for autonomous operations. Prepares learners to design self-healing and self-optimising network systems.
Your valid completion certificate
This course is for you:
LTE network engineers: ready to transition their skills into 5G deployments.
Telecom solutions architects: needing deeper protocol-level knowledge for 5G proposals.
Network operations centre staff: looking to expand into 5G infrastructure management.
IT professionals from enterprise backgrounds: moving into carrier-grade network engineering.
Recent engineering graduates: building specialised credentials for telecom job applications.
Career changers from IT security: targeting 5G network security and compliance roles.
What our students say
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