
Electrical Power Generation: An Industrial Outlook Course
Master the full spectrum of industrial power generation — from synchronous machine fundamentals to grid integration and asset management. This course delivers the technical depth and practical frameworks that engineers and plant professionals need to design, operate, and protect generation systems with confidence.
What you will learn:
Interpret single-line diagrams and apply three-phase power concepts to industrial generation systems.
Analyse synchronous generator performance under varying load and excitation conditions using equivalent circuit models.
Configure speed governors, synchronisation procedures, and droop settings for safe parallel generator operation.
Evaluate prime mover types and match them to site load profiles, fuel availability, and cost constraints.
Apply relay-based protection schemes to safeguard generators, transformers, and busbars from electrical faults.
Assess power quality parameters and implement grid interconnection requirements for industrial and utility-scale generation.
How you study practically Electrical Power Generation: An Industrial Outlook Course
How you practise Electrical Power Generation: An Industrial Outlook Course
For companies looking to train their teams
With Dedika for businesses, the course includes exercises and examples tailored to your own business and the way your company needs.
Course content
8 Chapters • 40 LessonsDuration between 4 and 360 hours (you decide)
Chapter 1HideHide detailsSee detailsFundamentals of Electrical Power Systems
Fundamentals of Electrical Power Systems
Lesson 1 • AC vs. DC Power Concepts
Distinguishes alternating and direct current characteristics relevant to generation equipment. Connects waveform behaviour to generator output analysis.
Lesson 2 • Basic Electrical Quantities and Units
Covers voltage, current, resistance, and power with SI units. Provides the measurement foundation required for all subsequent generation topics.
Lesson 3 • Reading Electrical Single-Line Diagrams
Teaches interpretation of single-line diagrams used in industrial facilities. Enables accurate system tracing essential for operational and design tasks.
Lesson 4 • Power System Components Overview
Identifies generators, transformers, switchgear, and protection devices within a power system. Frames component roles before detailed generation study begins.
Lesson 5 • Three-Phase Power Systems
Explains balanced three-phase configurations used in industrial generators. Builds competency in calculating line and phase quantities.
Chapter 2HideHide detailsSee detailsEnergy Sources and Prime Movers
Energy Sources and Prime Movers
Lesson 1 • Prime Mover Selection Criteria
Provides a structured framework for matching prime movers to site load profiles and fuel availability. Prepares students for generator specification decisions.
Lesson 2 • Fossil Fuel Energy Conversion
Covers combustion thermodynamics converting fuel energy to mechanical shaft work. Links heat release rates to generator output capacity.
Lesson 3 • Gas Turbines and Combustion Engines
Analyses Brayton cycle gas turbines and reciprocating engines used in industrial power plants. Highlights startup speed and fuel flexibility advantages.
Lesson 4 • Renewable Prime Movers
Introduces hydro turbines, wind turbines, and steam from geothermal sources as mechanical drivers. Establishes variable-input characteristics affecting generator control.
Lesson 5 • Steam Turbines as Prime Movers
Explains steam generation, expansion stages, and shaft power delivery. Connects boiler output to turbine mechanical input for generator drive.
Chapter 3HideHide detailsSee detailsSynchronous Generator Design and Operation
Synchronous Generator Design and Operation
Lesson 1 • Generator Ratings and Nameplate Data
Interprets nameplate parameters including kVA, power factor, voltage, and speed ratings. Ensures correct application and prevents overloading in industrial settings.
Lesson 2 • Synchronous Machine Construction
Describes stator windings, rotor types, and core materials used in industrial generators. Provides the physical basis for understanding electromagnetic behaviour.
Lesson 3 • Generator Equivalent Circuit Analysis
Uses the synchronous generator equivalent circuit to calculate voltage, current, and power. Enables quantitative performance prediction under load.
Lesson 4 • Electromagnetic Principles of Generation
Applies Faraday's law and magnetic flux concepts to EMF production in generators. Connects rotor speed and field strength to output voltage magnitude.
Lesson 5 • Excitation Systems and Voltage Regulation
Covers static and brushless excitation systems controlling field current and terminal voltage. Links excitation level to reactive power output and voltage stability.
Chapter 4HideHide detailsSee detailsGenerator Control and Parallel Operation
Generator Control and Parallel Operation
Lesson 1 • Synchronisation Procedures
Details the conditions and steps required to connect a generator to a live bus safely. Prevents equipment damage and system disturbances during paralleling.
Lesson 2 • Islanded and Grid-Connected Operation
Compares generator behaviour when operating in isolation versus connected to a utility grid. Prepares students for control strategy selection in both scenarios.
Lesson 3 • Reactive Power and Voltage Sharing
Addresses reactive power distribution among paralleled generators through excitation control. Maintains voltage stability and prevents reactive power circulation.
Lesson 4 • Active Power Sharing Between Generators
Analyses how droop settings and governor response distribute real power among parallel units. Enables balanced loading and prevents overload of individual machines.
Lesson 5 • Speed Governing and Frequency Control
Explains governor types and droop characteristics controlling generator speed and system frequency. Establishes the link between mechanical input and electrical frequency.
Chapter 5HideHide detailsSee detailsPower Plant Electrical Systems
Power Plant Electrical Systems
Lesson 1 • Grounding and Earthing Systems
Explains plant grounding philosophy, ground grid design, and touch and step potential safety limits. Protects personnel and equipment from fault-induced hazards.
Lesson 2 • Main Generator Transformer and Connections
Covers step-up transformer selection, winding configurations, and tap changer operation. Links generator voltage to transmission-level requirements.
Lesson 3 • Switchgear and Bus Arrangements
Analyses high-voltage switchgear types and bus configurations used in power plant substations. Supports reliability and maintenance flexibility through proper arrangement selection.
Lesson 4 • Plant Auxiliary Power Supply
Describes unit auxiliary transformers, station service boards, and emergency supply systems. Ensures continuous power to critical plant equipment during all operating states.
Lesson 5 • Metering, Instrumentation, and SCADA
Covers revenue metering, transducers, and supervisory control systems monitoring plant electrical output. Enables accurate performance tracking and remote operational control.
Chapter 6HideHide detailsSee detailsProtection Systems for Power Generation
Protection Systems for Power Generation
Lesson 1 • Transformer and Bus Protection
Covers restricted earth fault, differential, and overcurrent protection for transformers and busbars. Completes the protection coverage of the main power circuit.
Lesson 2 • Generator Protection Schemes
Details differential, loss-of-field, reverse power, and stator earth fault protection functions. Ensures comprehensive fault coverage for synchronous generators.
Lesson 3 • Fault Analysis and Relay Coordination
Applies symmetrical component theory to calculate fault currents for relay setting determination. Enables time-current coordination to achieve selective fault isolation.
Lesson 4 • Protection Testing and Commissioning
Describes relay injection testing, functional checks, and commissioning documentation requirements. Validates protection system performance before energisation.
Lesson 5 • Principles of Power System Protection
Establishes selectivity, sensitivity, speed, and reliability as core protection design criteria. Frames all subsequent relay application topics within these principles.
Chapter 7HideHide detailsSee detailsPower Quality and Grid Integration
Power Quality and Grid Integration
Lesson 1 • Voltage Stability and Reactive Support
Analyses voltage stability margins and the role of reactive power compensation in maintaining acceptable voltage profiles. Connects generator excitation to system voltage support.
Lesson 2 • Grid Interconnection Requirements
Covers technical interconnection studies, protection interface requirements, and metering obligations for grid-connected generators. Prepares students for interconnection approval processes.
Lesson 3 • Harmonic Generation and Mitigation
Identifies harmonic sources in power plants and evaluates passive and active filter solutions. Reduces distortion to within acceptable limits at the point of common coupling.
Lesson 4 • Power Quality Parameters and Standards
Defines voltage sag, swell, flicker, harmonics, and frequency deviation as measurable quality indices. Establishes the benchmarks generators must meet for grid acceptance.
Lesson 5 • Renewable Integration Challenges
Examines variability, ramp rate limits, and inertia reduction caused by large-scale renewable generation. Introduces grid-stabilising technologies compensating for these effects.
Chapter 8HideHide detailsSee detailsOperations, Maintenance, and Asset Management
Operations, Maintenance, and Asset Management
Lesson 1 • Reliability, Availability, and Maintainability Metrics
Defines MTBF, MTTR, forced outage rate, and equivalent availability factor for generation assets. Enables data-driven maintenance prioritisation and performance benchmarking.
Lesson 2 • Preventive Maintenance Programmes
Establishes time-based maintenance tasks for windings, bearings, cooling systems, and excitation equipment. Reduces unplanned outages through scheduled intervention.
Lesson 3 • Generator Startup and Shutdown Procedures
Details pre-start checks, loading sequences, and controlled shutdown steps for synchronous generators. Prevents equipment damage and ensures safe state transitions.
Lesson 4 • Asset Lifecycle and Refurbishment Planning
Covers end-of-life assessment, rewind and refurbishment options, and capital replacement decision frameworks. Maximises asset value over the full generator lifecycle.
Lesson 5 • Predictive and Condition-Based Maintenance
Applies vibration analysis, partial discharge monitoring, and thermal imaging to detect developing faults. Enables maintenance timing based on actual equipment condition.
Your valid completion certificate
This course is for you:
Electrical operators: seeking the engineering theory behind daily plant tasks.
Junior power engineers: building a foundation before taking on generation project responsibilities.
Instrumentation and control technicians: expanding into generator protection and monitoring systems.
Facilities engineers: managing on-site generation assets without a power-specific background.
Career changers: transitioning from adjacent fields like mechanical or process engineering.
Energy consultants: needing deeper generation knowledge to strengthen client recommendations.
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