Private 5G Industrial Network Deployment and Service Acceptance Intensive Course

Course Introduction

Private 5G networks are transforming industrial connectivity by enabling organizations to deploy secure, high-performance wireless infrastructure tailored to manufacturing, logistics, energy, mining, utilities, ports, transportation, and other mission-critical operating environments. Unlike conventional enterprise Wi-Fi deployments, private 5G initiatives require coordinated decisions concerning radio spectrum, network architecture, radio access infrastructure, core network functions, industrial device compatibility, cybersecurity, application integration, and operational service assurance. The Private 5G Industrial Network Deployment and Service Acceptance Intensive Course provides a structured approach to planning, deploying, integrating, testing, and accepting private 5G networks in complex industrial environments. Participants will learn how to translate operational requirements into measurable network performance targets and coordinate the technical and commercial activities required for successful deployment.

Industrial private 5G projects must accommodate demanding requirements for coverage, latency, reliability, mobility, device density, network isolation, and service continuity. Applications such as automated guided vehicles, industrial robotics, machine vision, connected worker systems, predictive maintenance, remote equipment monitoring, and real-time process control may depend on different combinations of bandwidth, latency, availability, and deterministic behavior. Participants will examine how to classify industrial use cases, define application traffic profiles, establish quality-of-service requirements, and determine the appropriate network architecture. The course also addresses the practical implications of spectrum availability, industrial building materials, electromagnetic interference, production equipment, environmental conditions, and the coexistence of 5G with existing wired, wireless, and operational technology systems.

Effective deployment requires careful coordination across radio access networks, 5G core infrastructure, transport networks, edge computing platforms, industrial applications, identity systems, and enterprise management tools. Participants will explore standalone and non-standalone architectures, radio unit placement, antenna configuration, synchronization, backhaul capacity, network slicing where supported, private data network integration, and edge application connectivity. They will also examine the roles of SIM and eSIM provisioning, device onboarding, authentication, roaming arrangements where applicable, and integration with manufacturing execution systems, supervisory control and data acquisition environments, industrial IoT platforms, and enterprise resource planning systems. Emphasis is placed on establishing clear interface specifications and preventing integration gaps between telecommunications suppliers, industrial automation vendors, application developers, and facility operators.

Network deployment alone does not establish that an industrial private 5G service is fit for operational use. Service acceptance requires objective evidence that the installed network meets agreed technical, operational, security, and business requirements under realistic conditions. Participants will learn how to design acceptance criteria, conduct radio coverage surveys, measure signal quality and throughput, evaluate latency and packet loss, test mobility and handovers, validate device connectivity, assess service availability, and verify performance under representative production loads. The course also addresses negative testing, failure recovery, resilience, cybersecurity validation, application-level testing, defect classification, retesting, and the documentation required for formal acceptance. Participants will distinguish laboratory results, site acceptance results, and sustained operational performance so that deployment decisions are based on relevant and traceable evidence.

Industrial 5G programmes increasingly incorporate edge artificial intelligence, private cloud infrastructure, time-sensitive networking, network automation, digital twins, machine vision, autonomous mobile equipment, and advanced industrial analytics. These developments create opportunities to improve operational efficiency, visibility, and flexibility, but they also increase integration complexity and introduce new requirements for cybersecurity, data governance, lifecycle support, and interoperability. The course examines how organizations can evaluate emerging capabilities without overstating their benefits or assuming that 5G alone guarantees deterministic performance for every industrial application. Participants will consider the role of application architecture, device capability, edge placement, end-to-end timing, industrial protocol support, and the wider operational environment when assessing whether a private 5G solution is appropriate for a specific use case.

By completing the Private 5G Industrial Network Deployment and Service Acceptance Intensive Course, participants will be equipped to manage the complete delivery lifecycle from requirements definition and site readiness through radio planning, infrastructure installation, core network configuration, industrial integration, testing, acceptance, and operational handover. They will develop practical capabilities in deployment governance, vendor coordination, network performance verification, service-level assessment, cybersecurity assurance, defect management, and continuous service improvement. The programme emphasizes measurable outcomes, disciplined technical acceptance, operational resilience, and clear accountability, enabling organizations to deploy private 5G infrastructure that supports industrial requirements and delivers demonstrable value across production, logistics, and other connected operational environments.

Duration

10 days

Who Should Attend

• Telecommunications project managers responsible for deploying private 5G networks across factories, industrial campuses, ports, mines, energy facilities, and logistics operations.

• Network architects and wireless engineers designing 5G radio access networks, private core networks, transport infrastructure, and industrial connectivity solutions.

• Radio frequency engineers responsible for spectrum planning, radio coverage design, antenna placement, interference analysis, and wireless performance optimization.

• Industrial automation engineers integrating private 5G with robotics, programmable logic controllers, supervisory control systems, manufacturing equipment, and industrial IoT platforms.

• IT infrastructure managers responsible for network integration, edge computing, enterprise connectivity, identity services, data transport, and operational support.

• Operational technology cybersecurity professionals responsible for network segmentation, device authentication, threat monitoring, access control, and secure industrial connectivity.

• Commissioning and service acceptance engineers responsible for site verification, performance testing, acceptance documentation, defect resolution, and operational readiness.

• Manufacturing and plant engineering managers evaluating private 5G for production automation, machine vision, mobile equipment, connected workers, and predictive maintenance.

• Utilities, mining, oil and gas, and energy professionals responsible for industrial communications, remote monitoring, field connectivity, and mission-critical operational applications.

• Quality assurance and service assurance specialists responsible for performance baselines, test methods, service-level agreements, reliability indicators, and acceptance evidence.

• Procurement and contract management professionals managing telecommunications suppliers, system integrators, equipment vendors, installation contractors, and managed service providers.

• Enterprise architects and digital transformation leaders aligning private 5G deployments with industrial digitalization, edge computing, cloud platforms, and data strategies.

• Project controls, PMO, and programme assurance professionals overseeing schedules, costs, risks, technical dependencies, milestone verification, and delivery governance.

• Regulatory and compliance specialists addressing spectrum authorization, telecommunications requirements, industrial safety, data protection, and cybersecurity obligations.

• Technical consultants and system integrators supporting private 5G feasibility studies, architecture design, deployment, industrial application integration, testing, and service transition.

Course Objectives

• Develop a comprehensive understanding of private 5G architecture, industrial use cases, deployment models, radio access infrastructure, core network functions, and service acceptance requirements.

• Translate industrial operational needs into measurable connectivity requirements covering coverage, throughput, latency, packet loss, availability, mobility, device density, and application performance.

• Evaluate private 5G deployment options, including standalone architecture, shared or dedicated infrastructure, enterprise-owned systems, and managed network services.

• Conduct industrial site assessments covering radio propagation, spectrum availability, interference, physical obstructions, infrastructure readiness, power, backhaul, and installation constraints.

• Design deployment plans that coordinate radio infrastructure, core network functions, transport connectivity, edge computing, device onboarding, industrial integration, and commissioning activities.

• Establish integration requirements for SIM and eSIM provisioning, device authentication, network management, industrial protocols, application interfaces, and enterprise security controls.

• Apply practical radio and end-to-end testing methods to verify signal quality, coverage, throughput, latency, mobility, reliability, and application-level performance.

• Develop objective service acceptance frameworks with defined test cases, measurement procedures, acceptance thresholds, evidence requirements, defect classifications, and approval responsibilities.

• Strengthen cybersecurity and resilience through network segmentation, access control, device lifecycle management, vulnerability assessment, redundancy, monitoring, and recovery testing.

• Manage supplier and contractor performance through interface control, installation quality assurance, milestone verification, change control, service-level assessment, and technical documentation.

• Integrate private 5G with industrial edge computing, automation systems, IoT platforms, and emerging digital applications while accounting for end-to-end performance dependencies.

• Prepare a comprehensive operational handover and service assurance plan covering configuration baselines, support responsibilities, incident management, maintenance, monitoring, and continuous improvement.

Comprehensive Course Outline

Module 1: Foundations of Private 5G Industrial Networks

• Examine private 5G concepts, deployment objectives, industrial connectivity requirements, and differences between private cellular networks, public mobile networks, and enterprise Wi-Fi.

• Explore relevant 5G system components, including radio access networks, gNodeBs, user equipment, 5G core functions, transport networks, management platforms, and industrial applications.

• Analyze use cases involving robotics, connected machinery, mobile equipment, machine vision, automated logistics, remote monitoring, and connected workforce applications.

• Identify technical and organizational factors that influence deployment feasibility, including spectrum, coverage, device support, operational risk, application requirements, and lifecycle cost.

Module 2: Industrial Use-Case Assessment and Service Requirements

• Document industrial workflows, user groups, device types, traffic profiles, mobility patterns, criticality levels, and operational constraints that influence network design.

• Translate application requirements into measurable service targets for throughput, latency, jitter, packet loss, coverage, availability, and concurrent device capacity.

• Distinguish radio-level performance from end-to-end application performance and identify dependencies on device hardware, edge processing, transport networks, and application architecture.

• Prioritize use cases according to business value, technical readiness, safety implications, deployment complexity, integration effort, and measurable acceptance outcomes.

Module 3: Private 5G Architecture and Deployment Models

• Compare standalone and non-standalone 5G architectures, including their respective core network requirements, capabilities, dependencies, and suitability for industrial deployments.

• Evaluate enterprise-owned, operator-managed, neutral-host, shared-spectrum, and dedicated-spectrum approaches where legally and commercially available.

• Examine deployment choices involving on-premises, cloud-hosted, and hybrid core networks, including implications for control, resilience, latency, data handling, and maintenance.

• Develop architecture decision records that document performance objectives, security requirements, ownership arrangements, capacity assumptions, operational responsibilities, and integration constraints.

Module 4: Spectrum Planning, Radio Design, and Site Surveys

• Assess spectrum authorization requirements, available frequency bands, channel bandwidths, propagation characteristics, interference exposure, and local regulatory constraints.

• Conduct industrial site surveys to document buildings, metal structures, machinery, storage racks, outdoor areas, hazardous zones, and other features affecting radio propagation.

• Develop radio coverage plans considering antenna locations, mounting arrangements, power levels, signal quality, handover areas, capacity distribution, and expected traffic demand.

• Establish survey documentation and design validation procedures using suitable radio planning tools, field measurements, coverage maps, and clearly stated engineering assumptions.

Module 5: Radio Access Network Installation and Optimization

• Plan the installation of radio units, antennas, cabling, mounting structures, power connections, synchronization interfaces, and associated infrastructure.

• Verify equipment placement, antenna orientation, cable routing, connector integrity, installation quality, environmental protection, and compliance with approved design documentation.

• Configure and assess radio parameters, including transmission power, channel allocation, handover behavior, neighbor relationships, and other supported optimization settings.

• Perform coverage and capacity optimization using signal strength, signal quality, throughput, interference indicators, device distribution, and representative operating conditions.

Module 6: 5G Core, Transport, and Edge Infrastructure

• Examine relevant 5G core functions, including authentication, session management, user-plane processing, policy control, subscriber management, and network management.

• Design transport connectivity between radio access infrastructure, the core network, enterprise systems, edge platforms, and external networks where required.

• Evaluate edge computing placement and capacity for applications requiring local processing, reduced data transport, lower latency, or local operational continuity.

• Establish infrastructure readiness checks covering routing, addressing, synchronization, redundancy, compute resources, storage, power, cooling, monitoring, and secure administration.

Module 7: Device Onboarding, SIM Management, and Industrial Integration

• Establish procedures for registering industrial devices, provisioning SIM or eSIM profiles, authenticating subscribers, assigning network access, and maintaining device inventories.

• Verify compatibility among 5G modules, gateways, routers, industrial terminals, antennas, firmware versions, supported bands, and required device capabilities.

• Integrate private 5G connectivity with industrial protocols, programmable logic controllers, SCADA systems, manufacturing execution platforms, and industrial IoT applications where supported.

• Develop troubleshooting and lifecycle procedures for failed authentication, incompatible devices, provisioning errors, roaming restrictions, firmware updates, and device replacement.

Module 8: Quality of Service, Network Slicing, and Performance Engineering

• Map industrial traffic classes to supported quality-of-service mechanisms, priority handling, admission controls, and application-specific performance requirements.

• Examine network slicing concepts and implementation dependencies, recognizing that availability and isolation capabilities depend on the chosen architecture and supplier solution.

• Evaluate how radio congestion, transport capacity, core network configuration, edge placement, and application processing influence end-to-end service performance.

• Develop traffic models and capacity plans that account for peak demand, mobile devices, burst traffic, future expansion, redundancy requirements, and operational growth.

Module 9: Cybersecurity, Segmentation, and Operational Technology Protection

• Identify threats involving compromised devices, unauthorized access, SIM misuse, insecure management interfaces, exposed APIs, misconfiguration, and supply-chain vulnerabilities.

• Implement security controls for subscriber authentication, network segmentation, privileged access, encryption, logging, certificate management, and secure remote administration.

• Define trust boundaries between enterprise IT, industrial OT, the private 5G network, edge computing platforms, external service providers, and vendor maintenance connections.

• Develop cybersecurity testing and incident response procedures that protect industrial operations while supporting coordinated investigation, containment, recovery, and evidence preservation.

Module 10: Industrial Site Readiness, Installation, and Construction Coordination

• Assess site readiness for power, grounding, mounting structures, equipment cabinets, fiber connectivity, backhaul, environmental controls, physical access, and safe installation.

• Coordinate installation activities with production schedules, maintenance windows, contractor access, equipment availability, permits, and operational safety requirements.

• Establish work packages, installation inspection checklists, equipment acceptance procedures, interface responsibilities, and quality documentation for field deployment.

• Manage construction and installation risks involving access restrictions, hazardous environments, equipment delivery delays, design changes, interference with existing services, and incomplete prerequisites.

Module 11: Systems Integration and End-to-End Application Validation

• Develop an integration matrix linking radio access, core network, transport, edge computing, industrial devices, application systems, identity services, and monitoring platforms.

• Validate end-to-end connectivity for representative industrial workflows, including device attachment, session establishment, data exchange, application response, mobility, and recovery.

• Test interactions between private 5G services and existing wired networks, Wi-Fi, industrial gateways, security appliances, cloud platforms, and legacy operational systems.

• Establish defect tracking, interface troubleshooting, configuration control, regression testing, and technical sign-off procedures for resolving cross-system integration problems.

Module 12: Performance Testing, Reliability, and Acceptance Criteria

• Design test plans covering radio coverage, signal quality, throughput, latency, jitter, packet loss, device capacity, mobility, and application response under representative conditions.

• Conduct load, stress, endurance, and resilience tests to assess performance during peak demand, extended operation, congestion, component failure, and degraded connectivity.

• Define measurable acceptance thresholds, sampling methods, test locations, device configurations, traffic profiles, test durations, evidence requirements, and approval responsibilities.

• Distinguish factory testing, laboratory integration, site acceptance testing, operational validation, and sustained service performance, documenting limitations and unresolved dependencies.

Module 13: Mobility, Handover, and Industrial Application Reliability

• Evaluate mobility requirements for automated guided vehicles, autonomous mobile robots, connected tools, wearable devices, and other moving industrial equipment.

• Test handover performance, session continuity, application recovery, packet loss, latency variation, and service interruption across relevant coverage boundaries.

• Assess how device implementation, antenna placement, radio conditions, application behavior, and network configuration influence mobility performance.

• Establish acceptance scenarios for representative production routes, operating speeds, handover locations, repeated movement cycles, and recovery after temporary connectivity loss.

Module 14: Service-Level Agreements, Vendor Management, and Acceptance Governance

• Translate industrial service requirements into measurable service-level agreements covering availability, response times, throughput, latency, incident handling, and support obligations.

• Define acceptance responsibilities among the network operator, equipment supplier, systems integrator, industrial automation provider, application owner, and customer organization.

• Establish evidence-based milestone approvals, defect severity classifications, retesting rules, conditional acceptance criteria, and procedures for handling unresolved deficiencies.

• Manage contract changes, supplier dependencies, software updates, warranties, performance reporting, escalation mechanisms, and disputes concerning service acceptance or nonconformance.

Module 15: Operational Handover, Monitoring, and Continuous Service Assurance

• Develop an operational handover package containing network diagrams, configuration baselines, asset registers, device inventories, test reports, known issues, and maintenance procedures.

• Establish monitoring dashboards for radio performance, device connectivity, service availability, core network health, capacity utilization, security events, and application-level indicators.

• Define operational procedures for fault triage, incident prioritization, escalation, root-cause analysis, planned maintenance, configuration changes, and service restoration.

• Develop lifecycle plans for capacity expansion, firmware updates, software upgrades, cybersecurity patching, spare equipment, support contracts, and continuous performance improvement.

Module 16: Integrated Private 5G Deployment and Service Acceptance Capstone

• Develop a complete private 5G deployment plan for a representative industrial site, covering requirements, architecture, spectrum, radio design, infrastructure, integration, risks, and delivery milestones.

• Prepare a technical acceptance matrix linking each business and engineering requirement to a test procedure, measurable threshold, responsible party, and required evidence.

• Analyze a simulated acceptance failure involving poor coverage, unstable latency, device authentication errors, handover interruptions, or inadequate application performance.

• Present a final service acceptance and operational readiness package containing test results, defect disposition, risk status, service-level evidence, handover documentation, and recommendations for production operation.

Training Approach

This course will be delivered by our skilled trainers who have vast knowledge and experience as expert professionals in the fields. The course is taught in English and through a mix of theory, practical activities, group discussion and case studies. Course manuals and additional training materials will be provided to the participants upon completion of the training.

Tailor-Made Course

This course can also be tailor-made to meet organization requirement. For further inquiries, please contact us on: Email: training@upskilldevelopment.com Tel: +254 721 331 808

Training Venue 

The training will be held at our Upskill Training Centre. We also offer training for a group (at a discount of 10% to 50%) at requested location all over the world. The Onsite course fee covers the course tuition, training materials, two break refreshments, buffet lunch, airport transfers, Upskill gift package, and guided tour.

Visa application, travel expenses, dinners, accommodation, insurance, and other personal expenses are catered by the participant

Certification

Participants will be issued with Upskill certificate upon completion of this course.

Airport Pickup and Accommodation

Airport pickup and accommodation is arranged upon request. For booking contact our Training Coordinator through Email: training@upskilldevelopment.com, +254 721 331 808

Terms of Payment:

Unless otherwise agreed between the two parties’ payment of the course fee should be done 3 working days before commencement of the training so as to enable us to prepare better.