Advanced Evaluation of Power Transmission Network Expansion Projects Training Course

Course Introduction

The Advanced Evaluation of Power Transmission Network Expansion Projects Training Course provides a comprehensive framework for evaluating complex electricity transmission investments from initial planning through economic appraisal, technical validation, implementation, and post-project performance assessment. Transmission expansion projects are essential for meeting growing electricity demand, connecting new generation capacity, strengthening regional interconnections, reducing network congestion, and improving the reliability of electricity supply. However, these projects involve substantial capital expenditure, long development periods, complex engineering requirements, environmental considerations, and significant regulatory obligations. Participants will develop the analytical skills needed to determine whether proposed investments are technically justified, economically viable, financially sustainable, and aligned with long-term electricity system development objectives.

The course examines advanced methodologies for identifying transmission expansion needs and evaluating alternative network configurations. Participants will explore load forecasting, generation expansion scenarios, renewable energy integration, network congestion analysis, transfer capacity assessment, and the identification of critical transmission corridors. Particular attention is given to the relationship between transmission investment and changes in electricity demand, generation technology, storage deployment, regional electricity trade, and distributed energy resources. Participants will learn to compare new transmission lines, substation upgrades, reconductoring, voltage uprating, high-voltage direct current systems, and grid-enhancing technologies. These approaches support more informed investment decisions by identifying solutions that balance system requirements, lifecycle costs, implementation constraints, and long-term operational benefits.

A major component of the training focuses on technical evaluation and power system reliability. Participants will examine power flow analysis, contingency assessment, voltage stability, transient stability, thermal loading, short-circuit performance, and the ability of proposed network configurations to withstand equipment outages and changing operating conditions. The course introduces the role of production cost modelling, capacity adequacy assessment, network simulation, and scenario-based planning in determining the operational consequences of transmission expansion. Participants will also explore how advanced monitoring, dynamic line ratings, topology optimization, and other grid-enhancing technologies can increase the utilization of existing assets or complement conventional infrastructure investments. The objective is to develop a technically defensible basis for comparing alternatives and identifying their effects on reliability, operating costs, and electricity delivery.

Economic and financial appraisal forms another central component of the programme. Participants will learn to evaluate capital expenditure, operating and maintenance costs, construction schedules, asset replacement requirements, financing arrangements, and the economic value of improved network performance. The training addresses net present value, benefit-cost ratios, economic internal rates of return, sensitivity analysis, and scenario-based financial modelling. It also examines the valuation of avoided generation costs, reduced congestion, lower technical losses, improved electricity supply reliability, renewable energy integration, and enhanced cross-border electricity trading opportunities. Participants will learn to distinguish financial returns to project owners from wider economic benefits to electricity consumers and the national economy, while identifying assumptions that could materially affect project viability.

The course integrates environmental, social, regulatory, and climate resilience considerations into the evaluation process. Transmission corridors can affect land use, biodiversity, local livelihoods, cultural heritage, communities, and existing infrastructure, making systematic assessment essential throughout project development. Participants will examine environmental and social impact assessment, stakeholder engagement, land acquisition and resettlement considerations, permitting requirements, climate risk screening, and mitigation monitoring. Emerging issues such as extreme weather, wildfire exposure, flooding, supply chain constraints, cybersecurity, and physical security will be incorporated into project risk assessment. The training also explores uncertainty in electricity demand, renewable generation, technology costs, policy developments, and project delivery schedules, emphasizing the importance of robust decision-making under multiple plausible future conditions.

By the end of the Advanced Evaluation of Power Transmission Network Expansion Projects Training Course, participants will be able to develop integrated evaluation frameworks, compare transmission investment alternatives, interpret power system studies, assess economic viability, and formulate evidence-based investment recommendations. They will gain practical experience in developing evaluation matrices, reviewing model assumptions, identifying implementation risks, assessing project performance indicators, and preparing decision-ready technical and financial reports. The course is intended to strengthen institutional capacity for transparent planning, efficient capital allocation, reliable electricity infrastructure, and sustainable power sector development. Its methodologies can be applied to national transmission master plans, regional interconnection projects, renewable energy transmission corridors, utility investment programmes, and major infrastructure proposals financed by governments, utilities, development banks, and private investors.

Duration

10 days

Who Should Attend

• Transmission planning engineers responsible for identifying network expansion requirements and developing long-term grid investment plans.

• Power system analysts conducting load flow studies, contingency assessments, stability studies, and transmission capacity evaluations.

• Electricity utility managers responsible for transmission investment prioritization, asset development, and infrastructure performance.

• Energy economists evaluating transmission investment benefits, economic efficiency, congestion costs, and electricity market impacts.

• Project appraisal specialists preparing technical, economic, financial, and institutional assessments of major electricity infrastructure projects.

• Regulatory authority professionals reviewing transmission investment proposals, network development plans, tariffs, and investment justification.

• Financial analysts and investment officers assessing capital expenditure, project financing, lifecycle costs, and infrastructure bankability.

• Renewable energy integration specialists examining grid connection requirements, transmission bottlenecks, and renewable energy evacuation infrastructure.

• Regional electricity market professionals evaluating cross-border transmission capacity and electricity trading opportunities.

• Environmental and social safeguards specialists assessing transmission corridors, community impacts, land acquisition, and mitigation requirements.

• Climate resilience specialists evaluating infrastructure exposure to flooding, extreme temperatures, storms, wildfire, and other climate hazards.

• Project managers coordinating the planning, procurement, implementation, commissioning, and monitoring of transmission infrastructure.

• Development finance institution staff reviewing power sector investment proposals and assessing development effectiveness.

• Electricity market consultants conducting transmission expansion studies and infrastructure investment assessments.

• Asset management professionals evaluating reconductoring, refurbishment, replacement, and life extension alternatives.

• High-voltage engineering professionals assessing transmission technologies, substations, conductors, transformers, and associated infrastructure.

• Energy policy advisers developing electricity sector strategies, regional interconnection policies, and transmission investment frameworks.

• Procurement and contract management specialists involved in transmission infrastructure tendering and contract performance assessment.

• Monitoring and evaluation professionals assessing the delivery, operational performance, and development outcomes of electricity infrastructure projects.

• Researchers and academics working in power systems engineering, electricity markets, energy economics, and infrastructure planning.

Course Objectives

By the end of this course, participants will be able to:

• Develop advanced evaluation frameworks for transmission expansion projects that integrate technical feasibility, economic efficiency, financial viability, reliability, sustainability, and regulatory compliance.

• Analyze electricity demand forecasts, generation development scenarios, renewable energy deployment, and regional trading requirements to establish justified transmission investment needs.

• Evaluate alternative transmission network configurations using power flow analysis, contingency studies, transfer capacity assessment, and appropriate power system simulation techniques.

• Apply economic appraisal methods, including net present value, benefit-cost analysis, economic internal rate of return, and lifecycle costing, to compare transmission investment options.

• Assess financial feasibility by examining capital expenditure, operating costs, financing structures, tariff assumptions, construction schedules, and long-term asset maintenance requirements.

• Evaluate the effects of transmission expansion on congestion, technical losses, electricity market efficiency, renewable energy curtailment, and the reliability of electricity supply.

• Examine the technical and economic suitability of HVDC systems, advanced conductors, dynamic line ratings, and other grid-enhancing technologies as alternatives or complements to conventional expansion.

• Incorporate uncertainty analysis, sensitivity testing, scenario planning, and risk assessment into transmission investment decisions under changing demand, technology, climate, and policy conditions.

• Assess environmental and social impacts, stakeholder engagement requirements, land acquisition risks, permitting obligations, and mitigation measures associated with transmission development.

• Develop project performance indicators and monitoring frameworks that measure construction progress, investment efficiency, reliability improvements, operational benefits, and achievement of intended outcomes.

• Interpret technical studies, economic models, and financial projections critically, identifying data gaps, modelling limitations, double counting, and assumptions that may distort investment recommendations.

• Prepare integrated evaluation reports and investment recommendations that communicate project alternatives, key risks, expected benefits, and implementation priorities to decision-makers and financing institutions.

Comprehensive Course Outline

Module 1: Strategic Foundations of Transmission Network Expansion Evaluation

• Examine the role of transmission infrastructure in electricity supply security, generation integration, regional power trade, and long-term energy system development.

• Identify the drivers of network expansion, including demand growth, renewable energy deployment, congestion, ageing assets, and changing electricity market conditions.

• Distinguish strategic planning, feasibility assessment, project appraisal, investment approval, implementation monitoring, and post-completion evaluation.

• Establish evaluation criteria covering technical feasibility, economic efficiency, financial sustainability, reliability, environmental performance, and regulatory compliance.

Module 2: Electricity Demand Forecasting and Long-Term Network Planning

• Apply demand forecasting approaches that account for population growth, industrial development, electrification, electric vehicles, and emerging data centre demand.

• Evaluate alternative demand trajectories and generation development scenarios to determine transmission capacity requirements across different planning horizons.

• Examine the influence of distributed energy resources, energy storage, demand response, and changing consumption patterns on network expansion needs.

• Develop scenario-based planning assumptions that capture uncertainty in economic growth, energy policy, technology adoption, and future electricity consumption.

Module 3: Transmission Network Modelling and Technical Feasibility Assessment

• Review transmission network models, system topology, conductor parameters, transformer characteristics, substation configurations, and relevant equipment operating limits.

• Apply load flow analysis to identify voltage violations, thermal overloads, reactive power requirements, and constraints under expected operating conditions.

• Evaluate contingency conditions, including line and transformer outages, to determine whether proposed expansions improve network security and operational flexibility.

• Examine model validation, input data quality, boundary assumptions, and representation of interconnected systems to strengthen the reliability of technical conclusions.

Module 4: Advanced Reliability, Stability, and Security Evaluation

• Assess voltage stability, transient stability, frequency-related interactions, short-circuit levels, and other relevant technical considerations associated with network expansion.

• Evaluate system performance under credible contingencies and identify investments needed to maintain acceptable operating conditions and reliability standards.

• Examine the contribution of additional transmission capacity to resource adequacy, operational flexibility, resilience, and restoration following major disturbances.

• Interpret reliability indicators and technical simulation outputs to determine whether project alternatives deliver measurable improvements in power system security.

Module 5: Transmission Expansion Alternatives and Technology Selection

• Compare new overhead transmission lines, underground cables, substation upgrades, reconductoring, voltage uprating, and alternative network configurations.

• Evaluate the technical and economic suitability of high-voltage direct current systems for long-distance transfer, asynchronous interconnection, and controllable power flows.

• Assess grid-enhancing technologies, including dynamic line ratings, advanced conductors, topology optimization, and power flow control devices, against conventional expansion.

• Develop technology selection matrices incorporating capacity requirements, losses, operational flexibility, land constraints, project costs, implementation time, and asset compatibility.

Module 6: Renewable Energy Integration and Network Congestion Analysis

• Assess transmission requirements for connecting utility-scale solar, wind, hydropower, and other generation resources to load centres and existing networks.

• Evaluate congestion patterns, renewable energy curtailment, transfer limits, and the operational costs associated with insufficient transmission capacity.

• Use production cost modelling and scenario analysis to compare generation dispatch, electricity market outcomes, and operating costs under alternative network configurations.

• Examine renewable energy zones and coordinated generation-transmission planning approaches for improving resource utilization and minimizing system-wide costs.

Module 7: Economic Cost-Benefit Analysis and Investment Appraisal

• Estimate capital expenditure, operating costs, maintenance requirements, replacement costs, and other relevant lifecycle costs for transmission investment alternatives.

• Quantify economic benefits associated with reduced congestion, lower operating costs, improved reliability, reduced losses, and enhanced electricity trading.

• Apply net present value, benefit-cost ratios, economic internal rates of return, and other suitable appraisal measures to compare competing investment proposals.

• Assess economic assumptions, discount rates, benefit valuation methods, project lifetimes, and the risk of double counting benefits in integrated appraisal models.

Module 8: Financial Modelling, Funding Structures, and Bankability

• Develop financial models covering project cash flows, capital expenditure schedules, operating costs, financing requirements, and expected revenue arrangements.

• Examine tariff structures, transmission service charges, power purchase agreements, cross-border trading arrangements, and other relevant revenue mechanisms.

• Assess debt and equity financing, public investment, development finance, public-private partnerships, and their implications for financial sustainability.

• Evaluate debt service capacity, financing risks, cost overruns, delayed commissioning, and revenue uncertainty when determining project bankability.

Module 9: Uncertainty, Sensitivity Analysis, and Robust Decision-Making

• Identify uncertainties in demand growth, generation costs, renewable output, fuel prices, interest rates, technology development, and regulatory requirements.

• Apply sensitivity analysis and scenario modelling to assess how changes in key assumptions affect project costs, benefits, and investment rankings.

• Examine stochastic and robust optimization approaches for selecting transmission portfolios that perform acceptably across multiple plausible future conditions.

• Develop risk-adjusted evaluation criteria and decision thresholds for managing uncertainty, avoiding premature investment, and preserving future expansion options.

Module 10: Environmental and Social Impact Assessment

• Assess land requirements, biodiversity impacts, ecosystem fragmentation, cultural heritage considerations, and community impacts associated with transmission corridors.

• Examine land acquisition, resettlement, livelihood restoration, stakeholder consultation, and grievance management requirements during project development.

• Evaluate environmental and social mitigation measures, monitoring indicators, compliance responsibilities, and the effectiveness of safeguard implementation.

• Integrate environmental and social findings into alternative selection, project costing, implementation scheduling, and overall investment recommendations.

Module 11: Climate Resilience, Extreme Events, and Infrastructure Adaptation

• Evaluate transmission asset exposure to flooding, storms, extreme temperatures, wildfire, landslides, and other relevant climate-related hazards.

• Assess how climate conditions may affect conductor ratings, equipment performance, asset deterioration, network availability, and maintenance requirements.

• Apply climate scenario analysis and risk screening to compare alternative transmission routes, engineering specifications, and resilience investments.

• Develop adaptation measures covering structural reinforcement, route diversification, vegetation management, emergency preparedness, and restoration planning.

Module 12: Regulatory Frameworks, Governance, and Regional Interconnections

• Examine transmission planning regulations, grid codes, licensing requirements, tariff methodologies, and investment approval procedures in the relevant jurisdiction.

• Evaluate institutional coordination among transmission operators, generation companies, regulators, system operators, and electricity market institutions.

• Assess cross-border transmission proposals in terms of transfer capacity, operational coordination, market rules, benefit allocation, and interconnection agreements.

• Review governance arrangements for transparent project selection, independent technical review, stakeholder participation, and accountability for investment decisions.

Module 13: Emerging Grid Technologies, Digitalization, and Cybersecurity

• Evaluate the application of advanced monitoring, digital substations, phasor measurement units, and real-time analytics to transmission performance assessment.

• Examine how artificial intelligence and data-driven forecasting can support demand estimation, equipment condition assessment, and transmission planning.

• Assess cybersecurity and physical security risks associated with digitally enabled grid infrastructure, control systems, communications, and operational technology.

• Compare digital upgrades and advanced control systems with conventional capital expansion while considering interoperability, data quality, lifecycle costs, and operational risks.

Module 14: Project Delivery Risk, Procurement, and Implementation Performance

• Evaluate project schedules, engineering readiness, procurement strategies, contractor capability, construction risks, and commissioning requirements.

• Analyze cost escalation, supply chain constraints, equipment delivery delays, right-of-way disputes, permitting delays, and other implementation risks.

• Develop performance indicators for schedule adherence, budget control, quality assurance, contract management, and achievement of engineering milestones.

• Assess change management, risk allocation, contingency planning, and mitigation responsibilities throughout transmission project implementation.

Module 15: Monitoring, Post-Project Evaluation, and Benefits Realization

• Develop monitoring frameworks that connect project objectives with construction outputs, operational performance, reliability outcomes, and economic benefits.

• Measure actual transmission availability, congestion reduction, network losses, transfer capacity, outage performance, and other relevant operational indicators.

• Compare observed performance against the approved business case, technical forecasts, financial assumptions, and original evaluation baselines.

• Identify benefit realization gaps, operational constraints, maintenance issues, and lessons that should inform future transmission investment programmes.

Module 16: Integrated Evaluation Practicum and Investment Recommendation Development

• Prepare an integrated assessment of a representative transmission expansion project using technical, economic, financial, environmental, and risk evaluation criteria.

• Compare alternative project configurations through a structured evaluation matrix incorporating costs, benefits, reliability, resilience, and implementation feasibility.

• Conduct sensitivity analysis and scenario testing to examine how alternative assumptions influence investment rankings and the robustness of recommendations.

• Present a decision-ready evaluation report that documents evidence, uncertainties, mitigation measures, implementation priorities, and recommendations for investment approval.

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.