Telecommunications Network Project Planning and Delivery Course

Course Introduction

Telecommunications networks are essential to digital transformation, economic development, public service delivery, enterprise connectivity, and the expansion of digital economies. The Telecommunications Network Project Planning and Delivery Course equips professionals with the strategic, technical, commercial, and project management capabilities required to plan, design, implement, upgrade, and manage telecommunications infrastructure projects. The programme covers mobile networks, fibre-optic infrastructure, fixed broadband, microwave transmission, radio access networks, core networks, data centres, and integrated connectivity solutions. Participants explore the complete project lifecycle, from network demand assessment and feasibility studies through engineering, procurement, construction, installation, integration, testing, commissioning, and operational handover, with emphasis on quality, cost control, schedule performance, network reliability, and long-term value.

Successful telecommunications projects require careful coordination of technology requirements, network architecture, site readiness, equipment availability, civil works, power supply, spectrum considerations, and regulatory obligations. Project teams must translate coverage targets, capacity forecasts, service-level expectations, and customer demand into implementable network deployment plans. This course examines network planning methodologies, infrastructure mapping, traffic forecasting, site selection, route surveys, radio coverage assessment, fibre route design, transmission capacity planning, and infrastructure sharing arrangements. Participants learn how to develop realistic project scopes, define technical acceptance criteria, establish delivery priorities, and coordinate interfaces between network operators, equipment vendors, utilities, landlords, civil contractors, regulators, and other stakeholders. The programme also addresses network expansion, modernization, densification, resilience improvements, and deployment challenges in urban, rural, and geographically dispersed environments.

Commercial and financial discipline is fundamental to telecommunications infrastructure delivery, particularly where projects involve substantial capital investment and rapidly evolving technologies. Equipment costs, tower construction, fibre installation, right-of-way charges, power infrastructure, leasing arrangements, logistics, software licensing, and ongoing maintenance can significantly influence project economics. Participants examine investment appraisal, capital expenditure planning, operating cost forecasting, total cost of ownership, business case development, and lifecycle financial analysis. The course explores procurement strategies, vendor evaluation, framework agreements, turnkey contracts, managed services, infrastructure-sharing models, and public-private partnership arrangements. Participants also learn to manage contractual milestones, service-level agreements, warranty obligations, performance guarantees, change requests, and commercial disputes while maintaining transparent financial controls, procurement integrity, audit readiness, and accountability for project outcomes.

Technical integration and delivery assurance are critical when implementing telecommunications infrastructure across multiple technologies and suppliers. Fibre-optic routes, radio access equipment, antennas, transmission links, routers, switches, power systems, cooling, grounding, monitoring platforms, and network management applications must operate together reliably. This course examines engineering coordination, installation standards, configuration management, interface control, integration planning, and testing protocols for new deployments and network upgrades. Participants consider site acquisition, permitting, environmental assessments, occupational safety, equipment installation, acceptance testing, service activation, and documentation requirements. The programme also addresses migration planning, service continuity, cutover management, disaster recovery, and network resilience, helping project teams reduce disruption while ensuring that delivered infrastructure meets approved technical specifications and operational performance requirements.

Telecommunications infrastructure is increasingly shaped by cloud-native architectures, software-defined networking, network automation, artificial intelligence, cybersecurity, and the rollout of advanced mobile technologies. The course considers 4G and 5G deployment, fibre-to-the-premises expansion, open and disaggregated network architectures, edge computing, Internet of Things connectivity, and the evolving requirements associated with future network generations. Participants explore how digital project controls, geographic information systems, digital twins, automated reporting, and analytics can improve planning accuracy, resource allocation, quality assurance, and progress monitoring. Particular attention is given to cybersecurity-by-design, secure equipment configuration, supply chain assurance, data privacy, software vulnerabilities, and responsible AI adoption. The programme also examines energy efficiency, renewable power options for remote sites, equipment lifecycle management, and environmental sustainability as integral elements of modern network infrastructure planning.

Designed for professionals involved in telecommunications investment, network engineering, infrastructure development, and project execution, the course combines established project management principles with industry-specific planning and implementation practices. Participants strengthen their ability to establish governance arrangements, develop integrated schedules, control budgets, manage risks, coordinate contractors, monitor technical progress, and resolve delivery bottlenecks. They examine practical challenges such as delayed site access, fibre route obstructions, equipment shortages, permit delays, integration failures, power constraints, and changing technical requirements. Through structured planning exercises and project delivery scenarios, participants learn to connect strategic objectives with measurable delivery milestones, quality standards, and operational outcomes. By completing the programme, they will be better prepared to deliver secure, scalable, cost-effective, and resilient telecommunications networks that support expanding connectivity demand and long-term digital infrastructure development.

Duration

10 days

Who Should Attend

• Telecommunications project managers responsible for planning, coordinating, and delivering network deployment and modernization programmes.

• Network planning engineers involved in coverage analysis, capacity forecasting, route design, and infrastructure optimization.

• Radio access network specialists managing mobile network rollout, antenna installation, site integration, and performance acceptance.

• Fibre-optic network engineers responsible for backbone, metropolitan, access, and fibre-to-the-premises deployment.

• Transmission and core network engineers coordinating microwave links, routing, switching, transport capacity, and network integration.

• Telecommunications infrastructure developers managing towers, ducts, poles, equipment shelters, data centres, and shared infrastructure.

• Engineering, procurement, and construction contractors delivering telecommunications civil works, equipment installation, and site development.

• Procurement and supply chain professionals sourcing network equipment, fibre cables, antennas, power systems, and technical services.

• Commercial managers negotiating equipment supply contracts, turnkey agreements, service-level commitments, and infrastructure-sharing arrangements.

• Finance professionals evaluating telecommunications business cases, capital investment, operating costs, and project profitability.

• Network operators and internet service providers expanding mobile, broadband, enterprise, and wholesale connectivity services.

• Government officials and regulators involved in digital infrastructure programmes, spectrum policy, licensing, and universal connectivity initiatives.

• Programme directors overseeing nationwide broadband expansion, rural connectivity, mobile network upgrades, and digital transformation initiatives.

• Quality assurance and commissioning professionals responsible for installation inspections, integration testing, acceptance, and technical documentation.

• Health, safety, environmental, and quality specialists managing construction risks, site safety, environmental compliance, and contractor assurance.

• Cybersecurity and IT professionals securing network equipment, management platforms, software configurations, and operational technology interfaces.

• Risk managers, internal auditors, and project assurance specialists overseeing procurement controls, contractual compliance, governance, and delivery risks.

• Asset managers and operations teams responsible for network availability, maintenance planning, equipment lifecycle management, and performance improvement.

Course Objectives

• Develop a comprehensive understanding of telecommunications network project lifecycles, from strategic planning and feasibility through engineering, procurement, deployment, commissioning, and operational handover.

• Translate network coverage, capacity, reliability, customer demand, and service-level requirements into clearly defined project scopes, technical specifications, and measurable delivery objectives.

• Apply network planning and feasibility assessment methods to evaluate site suitability, fibre routes, radio coverage, transmission capacity, infrastructure availability, and deployment constraints.

• Prepare realistic project schedules, resource plans, capital budgets, cost forecasts, and implementation roadmaps for telecommunications network rollout and modernization programmes.

• Evaluate network technologies and infrastructure options by comparing performance, scalability, interoperability, resilience, lifecycle cost, energy consumption, and suitability for different operating environments.

• Develop effective procurement and contracting strategies covering equipment specifications, vendor qualification, tender evaluation, delivery milestones, warranties, service-level agreements, and contractual risk allocation.

• Coordinate civil works, fibre installation, tower construction, radio equipment deployment, power systems, transmission links, and network integration through structured interface management.

• Apply project governance, change control, risk management, quality assurance, progress measurement, and financial reporting practices to strengthen delivery accountability and predictability.

• Manage installation, configuration, integration, testing, commissioning, and acceptance activities using documented technical procedures and clearly defined performance criteria.

• Identify and mitigate construction, logistics, regulatory, cybersecurity, supply chain, service continuity, and technical integration risks affecting telecommunications infrastructure delivery.

• Integrate network automation, digital monitoring, analytics, geographic information systems, and responsible artificial intelligence into project planning, progress reporting, and delivery assurance.

• Establish operational readiness, asset handover, maintenance planning, performance monitoring, sustainability measures, and continuous improvement processes for long-term network reliability.

Comprehensive Course Outline

Module 1: Telecommunications Infrastructure Fundamentals and Industry Landscape

• Overview of telecommunications network architectures, including mobile access, fixed broadband, fibre transport, microwave transmission, core networks, and supporting infrastructure.

• Assessment of connectivity demand, subscriber growth, data traffic, service expectations, digital inclusion priorities, and changing enterprise network requirements.

• Comparison of greenfield deployment, brownfield expansion, network modernization, capacity upgrades, and infrastructure-sharing approaches.

• Analysis of industry trends involving 5G, fibre expansion, cloud networking, edge computing, network automation, and emerging connectivity technologies.

Module 2: Network Strategy, Demand Forecasting and Project Definition

• Translation of business objectives, coverage obligations, service targets, and customer requirements into network deployment priorities and implementation strategies.

• Development of traffic forecasts, subscriber growth assumptions, capacity models, coverage objectives, and infrastructure expansion scenarios.

• Preparation of project charters, scope statements, work breakdown structures, deliverables, acceptance criteria, and governance arrangements.

• Application of prioritization frameworks to balance investment requirements, geographic coverage, commercial returns, service quality, and deployment urgency.

Module 3: Feasibility Studies, Site Surveys and Infrastructure Planning

• Evaluation of site suitability, land access, tower locations, equipment shelters, power availability, transport access, and environmental constraints.

• Conduct of fibre route surveys, radio propagation assessments, line-of-sight studies, civil infrastructure inspections, and preliminary technical investigations.

• Assessment of permitting requirements, rights of way, wayleave agreements, municipal approvals, utility coordination, and stakeholder access arrangements.

• Development of feasibility reports, preliminary budgets, implementation schedules, risk registers, and recommendations for investment approval.

Module 4: Telecommunications Network Architecture and Technology Selection

• Comparison of mobile radio access networks, fibre-optic systems, microwave links, IP transport, optical transmission, and core network architectures.

• Evaluation of equipment specifications, network capacity, interoperability, scalability, redundancy, lifecycle costs, and supplier support arrangements.

• Assessment of 4G and 5G deployment models, fibre-to-the-premises architectures, open network approaches, and emerging network virtualization requirements.

• Development of technical selection criteria that align service requirements, deployment conditions, investment constraints, and future expansion plans.

Module 5: Radio Access Network Planning and Mobile Site Deployment

• Planning of mobile coverage, radio capacity, antenna locations, sector configurations, frequency requirements, and site deployment priorities.

• Assessment of radio propagation, interference, coverage gaps, traffic demand, and site-specific constraints affecting network performance.

• Coordination of tower installation, antenna mounting, radio equipment, baseband units, transmission links, grounding, and site power infrastructure.

• Management of radio site readiness, integration sequencing, coverage verification, performance testing, and acceptance of deployed mobile infrastructure.

Module 6: Fibre Optic Networks, Broadband and Civil Infrastructure

• Planning of fibre backbone, metropolitan rings, access networks, fibre-to-the-premises systems, ducts, poles, chambers, and distribution points.

• Evaluation of fibre route design, cable capacity, splice locations, optical loss budgets, network topology, and redundancy requirements.

• Management of trenching, duct installation, cable blowing, splicing, termination, reinstatement, and coordination with other underground utilities.

• Application of optical testing, route documentation, geographic information systems, as-built records, and fibre asset registration procedures.

Module 7: Transmission, Core Networks and Network Integration

• Planning of microwave backhaul, optical transport, routers, switches, IP connectivity, aggregation networks, and core network interfaces.

• Assessment of transmission capacity, latency, redundancy, synchronization, resilience, and quality-of-service requirements.

• Coordination of network configuration, addressing, routing, software versions, interface dependencies, and interoperability across equipment suppliers.

• Development of integration plans, configuration controls, migration procedures, rollback arrangements, and end-to-end technical acceptance criteria.

Module 8: Power, Cooling, Site Resilience and Infrastructure Sustainability

• Assessment of power requirements, utility connections, backup generators, batteries, rectifiers, grounding, and electrical protection for network sites.

• Design coordination for cooling, ventilation, equipment shelters, fire protection, environmental monitoring, and physical site security.

• Evaluation of renewable power, hybrid energy systems, energy-efficient equipment, and remote site energy management to reduce operating costs.

• Planning for backup capacity, disaster recovery, physical resilience, equipment lifecycle management, and environmental performance monitoring.

Module 9: Business Cases, Capital Budgeting and Investment Appraisal

• Preparation of capital expenditure budgets covering network equipment, towers, fibre routes, civil works, power infrastructure, software, and professional services.

• Assessment of operating costs, equipment maintenance, site leasing, energy consumption, licensing, connectivity charges, and ongoing vendor support.

• Application of investment appraisal techniques, including net present value, internal rate of return, payback analysis, and total cost of ownership.

• Development of financial scenarios and sensitivity analyses covering traffic growth, equipment prices, project delays, utilization, and revenue uncertainty.

Module 10: Procurement, Vendor Management and Contract Administration

• Development of procurement plans, technical specifications, tender documentation, supplier qualification criteria, and transparent evaluation processes.

• Assessment of equipment vendors, installation contractors, software providers, logistics partners, and managed service providers.

• Negotiation and administration of turnkey contracts, equipment supply agreements, framework contracts, warranties, and service-level commitments.

• Management of delivery milestones, contractual variations, supplier performance, claims, invoice verification, and procurement audit documentation.

Module 11: Project Planning, Governance and Delivery Controls

• Development of integrated project schedules, critical path analyses, resource plans, construction sequences, milestones, and implementation baselines.

• Application of project cost controls, progress measurement, earned value principles, change management, and schedule recovery techniques.

• Establishment of governance structures, delegated authorities, decision registers, escalation mechanisms, reporting routines, and assurance checkpoints.

• Management of delivery risks involving access delays, permits, equipment shortages, route obstructions, integration failures, and changing requirements.

Module 12: Construction Management, Installation and Quality Assurance

• Planning of site preparation, tower foundations, equipment shelter construction, duct installation, cable deployment, and equipment mounting.

• Coordination of contractors, work permits, materials delivery, site access, construction sequencing, and multidisciplinary engineering interfaces.

• Application of quality management plans, inspection and test plans, nonconformance reporting, corrective actions, and installation verification.

• Management of health and safety, environmental controls, construction documentation, photographic evidence, and as-built drawing preparation.

Module 13: Testing, Commissioning, Acceptance and Service Migration

• Preparation of commissioning plans, test scripts, readiness reviews, integration checklists, and formal acceptance procedures for new network assets.

• Execution planning for fibre optical loss testing, transmission verification, radio performance checks, alarm testing, and end-to-end service validation.

• Management of service migration, network cutovers, customer impact assessments, rollback plans, and continuity of critical telecommunications services.

• Verification of technical performance, defect resolution, documentation completeness, asset registration, and handover to network operations teams.

Module 14: Digital Project Controls, Automation and Responsible AI

• Application of project management information systems, geographic information systems, dashboards, and digital reporting to monitor deployment progress.

• Use of analytics and responsible artificial intelligence to forecast delivery risks, identify schedule deviations, improve resource allocation, and prioritize corrective actions.

• Evaluation of digital twins, automated network inventories, remote inspections, and mobile field applications for improved infrastructure coordination.

• Establishment of data governance, information quality controls, human review, cybersecurity safeguards, and responsible use of automated project recommendations.

Module 15: Cybersecurity, Regulatory Compliance and Network Risk Management

• Identification of cybersecurity risks involving network equipment, management systems, software supply chains, remote access, and privileged accounts.

• Application of secure configuration, access management, vulnerability assessment, patching, incident response, and supplier security assurance.

• Management of spectrum licensing, construction permits, environmental requirements, data protection, equipment certification, and applicable telecommunications regulations.

• Development of risk registers, business continuity arrangements, compliance evidence, audit trails, incident escalation, and management assurance reporting.

Module 16: Operational Handover, Asset Management and Future Network Readiness

• Development of operational handover plans covering asset registers, configuration records, warranties, maintenance schedules, support contacts, and technical documentation.

• Establishment of performance indicators for network availability, coverage, capacity, fault resolution, installation quality, cost efficiency, and service reliability.

• Application of lifecycle asset management, preventive maintenance, capacity expansion planning, obsolescence management, and continuous improvement processes.

• Preparation of an integrated network delivery case covering investment rationale, technical design, procurement, implementation controls, commissioning, and future scalability.

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.