Course Introduction
The Power Systems Planning and Operations Training Course is a comprehensive professional development programme designed to strengthen participants’ technical expertise in the planning, analysis, operation, and management of modern electrical power systems. As electricity demand continues to grow and power networks become increasingly complex, utilities and energy institutions must adopt reliable, efficient, and sustainable approaches to electricity generation, transmission, and distribution. This course equips participants with practical knowledge and analytical techniques for maintaining secure electricity supplies, improving network performance, and supporting long-term energy infrastructure development.
Effective power system planning is essential for ensuring that electricity infrastructure can accommodate increasing demand, technological advancement, and changing energy consumption patterns. Participants will explore integrated generation, transmission, and distribution planning methodologies, including electricity demand forecasting, network expansion strategies, capacity adequacy assessment, and infrastructure investment prioritisation. The programme emphasises the application of engineering principles, economic evaluation techniques, and modern planning tools to develop resilient electricity networks capable of meeting present and future energy requirements.
Power system operations require continuous coordination between generation facilities, transmission networks, distribution systems, and electricity consumers to maintain system stability and operational reliability. This course examines essential operational processes, including load dispatch, frequency regulation, voltage control, power flow management, system protection, contingency analysis, and emergency response. Participants will gain insights into how electricity utilities and system operators maintain network security, minimise operational disruptions, manage technical losses, and optimise available generation resources under varying system conditions.
The increasing integration of renewable energy technologies, distributed energy resources, battery energy storage systems, and electric vehicles is transforming conventional power system planning and operations. Participants will investigate the operational implications of variable renewable generation, bidirectional power flows, decentralised electricity production, and evolving electricity market structures. Special attention will be given to smart grids, digital substations, microgrids, artificial intelligence, predictive analytics, and advanced monitoring technologies that are reshaping the design and management of modern electricity infrastructure.
The programme also addresses the economic, regulatory, environmental, and institutional considerations influencing power sector development and electricity system performance. Participants will examine electricity market operations, generation scheduling, transmission access, grid codes, regulatory compliance, power quality standards, asset management, and infrastructure financing. Through practical exercises and case studies, learners will develop the ability to evaluate investment alternatives, identify operational inefficiencies, assess system risks, and recommend cost-effective solutions that balance reliability, affordability, environmental sustainability, and operational flexibility.
Delivered through interactive technical presentations, engineering calculations, practical demonstrations, scenario-based exercises, and real-world power system case studies, the course promotes immediate application of acquired knowledge in professional settings. Participants will gain exposure to industry-relevant analytical approaches and software-supported planning and operational techniques, where available. By the end of the programme, they will be better prepared to contribute to electricity infrastructure development, improve power system reliability, support renewable energy integration, strengthen operational decision-making, and advance the transition towards secure, intelligent, and sustainable power networks.
Who Should Attend
This training course is suitable for professionals involved in electricity infrastructure development, system planning, engineering operations, and energy sector management, including:
- Electrical and Power Systems Engineers
- Power Generation, Transmission, and Distribution Engineers
- Power System Planning and Development Specialists
- Grid Operations and System Control Engineers
- Electricity Utility Managers and Technical Directors
- Load Dispatchers and Power System Control Centre Operators
- Protection, Control, and Automation Engineers
- Renewable Energy Integration Engineers and Specialists
- Energy Infrastructure Project Managers
- Electrical Network Design and Maintenance Engineers
- Smart Grid and Digital Power Systems Specialists
- Energy Regulators and Electricity Market Analysts
- Power Quality and System Reliability Engineers
- Substation Design and Operations Engineers
- Energy Policy, Planning, and Investment Professionals
- Industrial Power Systems and Energy Management Engineers
- Power Sector Consultants and Technical Advisers
- Researchers, Academics, and Professionals in Electrical Energy Systems
Course Objectives
By the end of this training course, participants will be able to:
· Understand modern power system architecture and operational principles by examining the interrelationships between electricity generation, transmission, distribution, system control, and end-user demand to support reliable electricity supply.
· Develop comprehensive electricity demand forecasts and capacity planning strategies using historical consumption data, economic indicators, load characteristics, and scenario-based modelling to anticipate future electricity requirements.
· Apply advanced power system analysis techniques to evaluate load flow, voltage profiles, power losses, short-circuit conditions, and network constraints, enabling effective planning and operational decision-making.
· Design integrated generation, transmission, and distribution expansion plans that consider demand growth, infrastructure capacity, technical feasibility, investment requirements, environmental impacts, and long-term system reliability.
· Optimise electricity generation scheduling and system dispatch operations through the application of economic dispatch, unit commitment, reserve management, and operational coordination techniques that improve efficiency and reduce system costs.
· Evaluate power system stability, reliability, and security performance by analysing frequency disturbances, voltage instability, contingency conditions, equipment failures, and appropriate preventive and corrective control measures.
· Integrate renewable energy and distributed energy resources into electricity networks while addressing intermittency, forecasting uncertainty, grid flexibility, energy storage coordination, and the technical requirements for secure grid integration.
· Implement effective power system protection and operational risk management strategies through the assessment of fault conditions, relay coordination, equipment protection, system restoration procedures, and emergency response planning.
· Utilise digital technologies and analytical tools for improved power system management by exploring SCADA, energy management systems, digital substations, artificial intelligence, predictive maintenance, and data-driven operational monitoring.
· Assess electricity market operations and regulatory compliance requirements by examining electricity pricing, market structures, grid codes, transmission access arrangements, regulatory standards, and the economic implications of system operations.
· Develop sustainable and resilient power infrastructure strategies that address climate-related hazards, cybersecurity risks, ageing assets, energy transition requirements, operational flexibility, and continuity of electricity supply.
· Formulate practical power system improvement and investment recommendations by combining technical analysis, financial evaluation, operational performance indicators, risk assessments, and institutional priorities into actionable implementation plans.
Comprehensive Course Outline
Module 1: Fundamentals of Electrical Power Systems Planning and Operations
- Overview of modern electricity generation, transmission, distribution, and consumption systems, including their technical characteristics, interdependencies, and operational requirements.
- Examination of power system components, network configurations, voltage levels, substations, transformers, transmission corridors, and distribution infrastructure.
- Principles of electricity system planning, including reliability requirements, operational flexibility, capacity adequacy, economic efficiency, and sustainable infrastructure development.
- Emerging trends in power system transformation, including decentralisation, electrification, digitalisation, smart grids, and the transition towards low-carbon electricity networks.
Module 2: Electricity Demand Forecasting and Load Analysis
- Methods for forecasting short-term, medium-term, and long-term electricity demand using historical load data, economic growth indicators, and consumption patterns.
- Analysis of daily and seasonal load curves, peak demand characteristics, load factors, demand diversity, and electricity consumption behaviour across customer categories.
- Application of statistical forecasting, regression analysis, time-series techniques, machine learning, and scenario modelling for improved demand prediction.
- Assessment of emerging electricity demand drivers, including electric mobility, industrial electrification, data centres, distributed generation, and demand-side management programmes.
Module 3: Power System Modelling, Load Flow, and Network Analysis
- Development of electrical network models using bus systems, transmission line parameters, transformer characteristics, generator representations, and system operating constraints.
- Application of power flow analysis techniques, including Newton-Raphson, Gauss-Seidel, and fast-decoupled methods for assessing steady-state network performance.
- Evaluation of voltage profiles, reactive power requirements, transmission losses, network congestion, and equipment loading under different operating scenarios.
- Practical introduction to software-supported power system modelling using relevant engineering platforms such as ETAP, DIgSILENT PowerFactory, PSS/E, or suitable open-source alternatives.
Module 4: Generation Capacity Planning and Resource Adequacy
- Assessment of electricity generation technologies, including thermal power plants, hydropower, solar photovoltaic systems, wind energy, geothermal resources, and energy storage.
- Development of generation expansion strategies based on demand forecasts, reserve margins, plant availability, technology costs, and long-term electricity supply requirements.
- Evaluation of generation adequacy using reliability indicators, capacity credit, loss-of-load probability, and expected unserved energy under alternative planning scenarios.
- Application of integrated resource planning, least-cost generation modelling, investment optimisation, and sensitivity analysis to support sustainable electricity development.
Module 5: Transmission and Distribution Network Planning
- Principles of transmission system expansion planning, including network reinforcement, transmission corridor selection, voltage level optimisation, and infrastructure investment prioritisation.
- Assessment of distribution network design, feeder configuration, transformer sizing, load balancing, technical loss reduction, and reliability improvement strategies.
- Application of contingency analysis, network security criteria, congestion assessment, and system reinforcement studies to support reliable electricity delivery.
- Emerging distribution planning challenges associated with rooftop solar, electric vehicle charging, distributed energy resources, bidirectional power flows, and active distribution networks.
Module 6: Power System Operations, Dispatch, and Energy Management
- Principles of real-time power system operations, including generation-load balancing, system frequency regulation, voltage management, and coordination between network control centres.
- Application of economic dispatch, unit commitment, optimal power flow, spinning reserves, and generation scheduling to improve operational efficiency and resource utilisation.
- Examination of SCADA, energy management systems, automatic generation control, state estimation, and real-time network monitoring technologies.
- Operational coordination of renewable generation, battery storage, demand response, and flexible generation resources under changing system conditions and electricity demand.
Module 7: Power System Stability, Reliability, and Security Assessment
- Analysis of rotor angle stability, frequency stability, voltage stability, and the dynamic behaviour of interconnected electricity networks during disturbances.
- Evaluation of transient stability, small-signal stability, system oscillations, fault clearing requirements, and appropriate preventive and corrective control actions.
- Application of power system reliability indices, contingency analysis, security assessment, and probabilistic risk evaluation to identify network vulnerabilities.
- Development of emergency operating procedures, load shedding strategies, black-start capabilities, system restoration plans, and resilience measures for major disturbances.
Module 8: Power System Protection, Control, and Power Quality
- Fundamentals of electrical fault analysis, including symmetrical and unsymmetrical short circuits, fault current calculations, and protection system design requirements.
- Examination of protective relays, circuit breakers, differential protection, distance protection, overcurrent protection, and relay coordination methodologies.
- Assessment of power quality disturbances, including harmonics, voltage sags, flicker, unbalanced loads, power factor problems, and mitigation technologies.
- Emerging protection and control challenges associated with inverter-based resources, digital substations, adaptive protection, IEC 61850 communication, and intelligent electronic devices.
Module 9: Renewable Energy Integration, Smart Grids, and Energy Storage
- Technical requirements for integrating solar, wind, hydropower, and other renewable generation resources into transmission and distribution networks.
- Evaluation of renewable generation variability, forecasting uncertainty, frequency response, voltage regulation, inverter controls, and grid code compliance.
- Planning and operational applications of battery energy storage systems, pumped hydro storage, microgrids, virtual power plants, and distributed energy resource management systems.
- Emerging smart grid technologies, including advanced metering infrastructure, demand response, grid-forming inverters, vehicle-to-grid integration, and flexible electricity networks.
Module 10: Electricity Markets, Digitalisation, and Emerging Power Sector Technologies
- Examination of electricity market structures, wholesale electricity trading, bilateral contracts, ancillary services, tariff mechanisms, and transmission access arrangements.
- Application of electricity pricing principles, marginal cost analysis, congestion management, market settlement, and financial evaluation of power system investments.
- Emerging applications of artificial intelligence, machine learning, digital twins, predictive maintenance, and advanced analytics in electricity system planning and operations.
- Assessment of cybersecurity threats, operational technology security, grid data governance, communication interoperability, and digital transformation risks affecting electricity infrastructure.
Module 11: Sustainable Power Systems Planning, Risk Management, and Practical Applications
- Development of integrated power system master plans that combine demand forecasting, generation expansion, transmission reinforcement, distribution investment, and operational requirements.
- Assessment of climate resilience, infrastructure ageing, natural disaster exposure, equipment failure risks, and adaptation strategies for maintaining electricity supply continuity.
- Application of technical-economic evaluation, life-cycle costing, environmental impact assessment, investment prioritisation, and performance monitoring in power infrastructure projects.
- Practical case studies and group exercises involving network expansion planning, renewable energy integration, operational contingency assessment, and preparation of institutional power system improvement plans.
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 requested location all over the world. The course fee covers the course tuition, training materials, two break refreshments, and buffet lunch.
Visa application, travel expenses, airport transfers, 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
