
Electrical Energy Efficiency Course
Master the full spectrum of electrical energy efficiency — from power quality and motor systems to renewable integration and measurement protocols. This course gives engineers and energy professionals the technical depth and practical tools to deliver real, measurable savings in any facility. Stop guessing where energy is wasted and start proving where it's saved.
What you will learn:
This course covers electrical energy efficiency principles across eight domains: power quality, distribution, motor optimization, lighting, HVAC load management, and renewable integration. You will learn to conduct energy audits, correct power factor, size conductors, and apply variable frequency drives to rotating equipment. You will design lighting systems, manage building electrical loads, and integrate solar PV and battery storage. The course ends with measurement and verification protocols, financial analysis methods, and ISO 50001‑aligned energy management practices. By the end you will be able to create a prioritized energy‑efficiency roadmap for any commercial or industrial facility.
How you study in practice Electrical Energy Efficiency Course
How you practice Electrical Energy Efficiency Course
For companies that want to train their team
With Dedika for Business, the course includes exercises and examples tailored to your own business and the way your company needs.
Course content
8 Chapters • 39 LessonsDuration between 4 and 360 hours (you decide)
Chapter 1HideHide detailsSee detailsFoundations of Electrical Energy Efficiency
Foundations of Electrical Energy Efficiency
Lesson 1 • Efficiency Metrics and Key Performance Indicators
Defines efficiency ratios, energy intensity, and demand metrics used industry-wide. Enables consistent benchmarking across facilities and equipment types.
Lesson 2 • Energy Loss Mechanisms in Circuits
Identifies resistive, magnetic, and dielectric losses in conductors and components. Links loss types to measurable efficiency degradation.
Lesson 3 • Energy Auditing Basics
Introduces systematic audit procedures for identifying electrical waste. Connects measurement techniques to actionable efficiency opportunities.
Lesson 4 • Electrical Power and Energy Fundamentals
Covers voltage, current, power factor, and real vs. reactive power. Provides the quantitative foundation needed for all subsequent efficiency analysis.
Chapter 2HideHide detailsSee detailsPower Quality and Its Efficiency Impact
Power Quality and Its Efficiency Impact
Lesson 1 • Harmonic Mitigation Strategies
Presents passive filters, active filters, and transformer solutions for harmonic reduction. Connects mitigation choices to measurable efficiency and equipment life gains.
Lesson 2 • Harmonic Sources and Propagation
Identifies nonlinear loads as harmonic generators and explains propagation through distribution networks. Prepares students to trace harmonic sources in real systems.
Lesson 3 • Power Factor Correction Techniques
Covers capacitor banks, synchronous condensers, and active correction methods. Directly reduces reactive power demand and associated energy penalties.
Lesson 4 • Power Quality Monitoring and Reporting
Teaches continuous monitoring setup and interpretation of power quality reports. Enables proactive identification of recurring disturbances before they escalate.
Lesson 5 • Understanding Power Quality Parameters
Defines voltage sags, swells, harmonics, and transients as measurable parameters. Establishes the link between poor power quality and elevated energy consumption.
Chapter 3HideHide detailsSee detailsEfficient Electrical Distribution Systems
Efficient Electrical Distribution Systems
Lesson 1 • Transformer Efficiency and Selection
Evaluates no-load and load losses in transformers and applies efficiency standards. Guides selection of high-efficiency units for new and retrofit projects.
Lesson 2 • Switchgear and Protection Efficiency
Addresses energy losses in switchgear, contactors, and protection devices. Introduces low-loss alternatives and maintenance practices that preserve efficiency.
Lesson 3 • Distribution Topology Optimization
Compares radial, loop, and meshed topologies for efficiency and reliability. Identifies topology changes that reduce total distribution losses.
Lesson 4 • Voltage Level Optimization
Demonstrates how raising distribution voltage reduces current and losses for the same load. Covers voltage upgrade feasibility and conservation voltage reduction.
Lesson 5 • Conductor Sizing and Loss Reduction
Applies economic conductor sizing principles to minimize I²R losses over system lifetime. Balances capital cost against long-term energy savings.
Chapter 4HideHide detailsSee detailsMotor Systems Efficiency Optimization
Motor Systems Efficiency Optimization
Lesson 1 • Motor Sizing and Right-Sizing Practices
Addresses oversized motor inefficiency and presents load analysis methods for correct sizing. Reduces unnecessary no-load losses and improves power factor.
Lesson 2 • Motor System-Level Optimization
Extends optimization beyond the motor to driven equipment, couplings, and controls. Captures system-wide savings that motor-only analysis misses.
Lesson 3 • Variable Frequency Drives for Energy Savings
Covers VFD operating principles, affinity laws, and application to pumps, fans, and compressors. Quantifies energy savings achievable through speed control.
Lesson 4 • Electric Motor Efficiency Fundamentals
Explains motor losses, efficiency classes, and nameplate data interpretation. Provides the basis for comparing and selecting motors on a lifecycle cost basis.
Lesson 5 • Motor Management and Replacement Strategy
Develops repair-vs.-replace decision frameworks and motor inventory management. Ensures continuous improvement of the motor fleet's average efficiency.
Chapter 5HideHide detailsSee detailsLighting Systems Energy Efficiency
Lighting Systems Energy Efficiency
Lesson 1 • Lighting Control Strategies
Covers occupancy sensors, daylight harvesting, dimming, and scheduling controls. Demonstrates how controls multiply the savings from efficient light sources.
Lesson 2 • Lighting Technology Comparison
Compares efficacy, lifespan, and spectral quality of LED, fluorescent, and HID sources. Establishes the performance basis for technology selection decisions.
Lesson 3 • Daylighting Integration
Integrates natural light with electric lighting through photosensors and architectural design. Reduces operating hours of electric lighting without sacrificing illuminance.
Lesson 4 • Lighting Power Density Targets
Applies lighting power density (LPD) benchmarks to evaluate and redesign lighting layouts. Connects LPD compliance to energy code requirements and savings verification.
Lesson 5 • Lighting Retrofit Project Planning
Guides the full lifecycle of a lighting retrofit from audit to commissioning. Ensures savings projections are validated through post-installation measurement.
Chapter 6HideHide detailsSee detailsHVAC and Building Electrical Load Management
HVAC and Building Electrical Load Management
Lesson 1 • Plug Load and Process Load Management
Quantifies plug load energy waste and applies smart power strips, scheduling, and policies. Extends efficiency efforts to often-overlooked miscellaneous electrical loads.
Lesson 2 • HVAC Electrical Load Characteristics
Profiles electrical demand patterns of chillers, air handlers, and pumps in HVAC systems. Identifies the largest controllable loads for demand management strategies.
Lesson 3 • Demand Response and Load Shifting
Explains demand response programs, load curtailment, and thermal storage for peak shifting. Reduces demand charges while maintaining occupant comfort.
Lesson 4 • Compressed Air System Efficiency
Addresses compressor selection, leak reduction, and pressure optimization in compressed air systems. Compressed air is among the most energy-intensive industrial utilities.
Lesson 5 • Building Automation System Integration
Connects BAS capabilities to energy optimization through scheduling, setpoint control, and fault detection. Enables automated, continuous efficiency management.
Chapter 7HideHide detailsSee detailsRenewable Integration and On-Site Generation
Renewable Integration and On-Site Generation
Lesson 1 • Microgrid Design and Control
Integrates generation, storage, and loads into a controllable microgrid architecture. Maximizes on-site renewable use and resilience while minimizing grid purchases.
Lesson 2 • Combined Heat and Power Systems
Evaluates CHP prime movers, thermal recovery, and electrical efficiency gains. Demonstrates how simultaneous heat and power generation reduces total energy input.
Lesson 3 • Solar PV System Design for Efficiency
Covers PV array sizing, orientation, shading analysis, and inverter selection for maximum yield. Connects generation capacity to facility load profiles for optimal offset.
Lesson 4 • Battery Energy Storage Systems
Explains battery chemistry, sizing for peak shaving, and charge/discharge strategies. Enables demand charge reduction and backup power capability.
Lesson 5 • Grid Interconnection and Net Metering
Addresses interconnection standards, anti-islanding protection, and net metering economics. Ensures safe and financially optimized grid-tied operation.
Chapter 8HideHide detailsSee detailsMeasurement, Verification, and Strategic Planning
Measurement, Verification, and Strategic Planning
Lesson 1 • Energy Monitoring and Sub-Metering
Designs sub-metering architectures to isolate energy use by system, zone, or process. Provides granular data needed for ongoing performance tracking and anomaly detection.
Lesson 2 • Energy Management System Standards
Introduces ISO 50001-aligned energy management systems for systematic continuous improvement. Connects technical measures to organizational processes that sustain savings.
Lesson 3 • Strategic Energy Efficiency Roadmap
Synthesizes audit findings, M&V data, and financial analysis into a prioritized multi-year plan. Delivers an actionable roadmap aligned with organizational energy and carbon goals.
Lesson 4 • Measurement and Verification Protocols
Applies IPMVP options to verify savings from implemented efficiency measures. Ensures savings claims are defensible and bankable for financing purposes.
Lesson 5 • Financial Analysis of Efficiency Projects
Applies NPV, IRR, and simple payback to rank and prioritize efficiency investments. Enables engineers to present business cases that secure management approval.
Your valid completion certificate
This course is for you:
Electrical engineers ready to specialize in facility energy performance.
Mechanical engineers who manage electrical systems alongside HVAC work.
Energy managers seeking deeper technical grounding behind their decisions.
Sustainability coordinators who need to evaluate electrical efficiency projects.
Facilities directors responsible for reducing utility costs across buildings.
Recent engineering graduates entering the energy efficiency job market.
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