Critical Facility: Power Supply Management Course
Master every layer of critical facility power — from utility service entrance to UPS runtime calculations and risk strategy. This course equips power managers, data center engineers, and facilities professionals with the technical depth and operational frameworks needed to keep mission-critical infrastructure running without interruption.
What you will learn:
Design redundant distribution architectures that eliminate single points of failure across critical facilities.
Size generators and UPS systems accurately using real-world load analysis and derating methods.
Apply harmonic mitigation, surge protection, and voltage regulation to maintain clean, stable power.
Build preventive maintenance programs aligned with equipment criticality and manufacturer requirements.
Integrate DCIM platforms with SCADA and BMS systems for full power visibility and analytics.
Develop capital roadmaps and executive business cases that justify critical power infrastructure investments.
How you study in practice Critical Facility: Power Supply Management Course
How you practice Critical Facility: Power Supply Management 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 Critical Facility Power
Foundations of Critical Facility Power
Lesson 1 • Key Power Quality Concepts
Defines voltage, current, frequency, and power factor as they apply to facility operations. Grounds students in measurable parameters used throughout the course.
Lesson 2 • Regulatory and Standards Framework
Surveys the functional requirements imposed by industry standards and safety codes. Students learn to identify compliance obligations without referencing jurisdiction-specific codes.
Lesson 3 • Electrical Power System Overview
Maps the path of electricity from utility source to end load. Provides the architectural baseline students need before studying individual components.
Lesson 4 • Defining Critical Facility Infrastructure
Introduces what qualifies a facility as critical and why uninterrupted power is non-negotiable. Sets the context for all subsequent technical content.
Chapter 2HideHide detailsSee detailsUtility Power and Distribution Systems
Utility Power and Distribution Systems
Lesson 1 • Redundant Distribution Architectures
Compares radial, looped, and dual-bus topologies for fault tolerance. Students evaluate trade-offs between cost, complexity, and availability.
Lesson 2 • Protective Relaying and Coordination
Introduces overcurrent, ground fault, and differential protection schemes. Students learn how coordination prevents cascading outages.
Lesson 3 • Medium and Low Voltage Distribution
Explains how power is stepped down and routed to facility loads at appropriate voltage levels. Builds on single-line diagram skills from Chapter 1.
Lesson 4 • Utility Service Entrance Components
Covers metering, main switchgear, and service entrance equipment. Connects utility interface knowledge to downstream distribution design.
Lesson 5 • Distribution System Monitoring
Covers metering, power quality analyzers, and SCADA integration for distribution visibility. Prepares students for the monitoring tools used in later chapters.
Chapter 3HideHide detailsSee detailsBackup Generation Systems
Backup Generation Systems
Lesson 1 • Generator Technology Fundamentals
Compares prime mover types, fuel systems, and alternator designs. Establishes the technical vocabulary needed for generator selection and sizing.
Lesson 2 • Generator Sizing and Load Analysis
Teaches load calculation methods and generator sizing procedures. Students apply these skills to ensure adequate capacity under worst-case scenarios.
Lesson 3 • Generator Testing and Commissioning
Details load bank testing, acceptance testing, and commissioning protocols. Ensures students can verify generator performance before relying on it during an outage.
Lesson 4 • Paralleling and Redundant Generator Sets
Covers synchronization, load sharing, and paralleling switchgear for multi-generator plants. Students design N+1 generator configurations for high-availability facilities.
Lesson 5 • Automatic Transfer Switch Systems
Explains ATS types, transfer logic, and sequencing for seamless generator pickup. Connects generator capability to distribution system transfer schemes.
Chapter 4HideHide detailsSee detailsUninterruptible Power Supply Systems
Uninterruptible Power Supply Systems
Lesson 1 • UPS Redundancy and Bypass Design
Covers N+1 parallel UPS, static bypass, and maintenance bypass configurations. Students design systems that allow servicing without exposing loads to risk.
Lesson 2 • UPS Sizing and Runtime Calculation
Teaches kVA and kW sizing, power factor correction, and battery runtime formulas. Builds directly on load analysis skills from the generator chapter.
Lesson 3 • UPS Commissioning and Acceptance Testing
Details factory and site acceptance tests, transfer time verification, and runtime validation. Prepares students to certify UPS readiness before live deployment.
Lesson 4 • UPS Topology Comparison
Analyzes offline, line-interactive, and online double-conversion topologies. Students match topology to load sensitivity and availability requirements.
Lesson 5 • Battery Technologies and Management
Compares VRLA, lithium-ion, and emerging battery chemistries for critical applications. Students evaluate cycle life, thermal management, and replacement strategies.
Chapter 5HideHide detailsSee detailsPower Conditioning and Quality Management
Power Conditioning and Quality Management
Lesson 1 • Voltage Regulation and Stabilization
Covers ferroresonant transformers, automatic voltage regulators, and dynamic voltage restorers. Students apply regulation devices where UPS protection is insufficient.
Lesson 2 • Harmonic Mitigation Techniques
Covers passive filters, active filters, and transformer solutions for harmonic reduction. Students select mitigation strategies based on load type and distortion level.
Lesson 3 • Power Quality Monitoring and Reporting
Teaches continuous monitoring strategies, event logging, and reporting for power quality compliance. Reinforces monitoring concepts introduced in the distribution chapter.
Lesson 4 • Power Quality Disturbance Classification
Categorizes sags, swells, interruptions, transients, and harmonics using standard definitions. Provides the diagnostic vocabulary needed for the rest of the chapter.
Lesson 5 • Surge Protection and Transient Suppression
Explains surge protective device ratings, placement, and coordination across protection zones. Connects transient suppression to equipment longevity and insurance compliance.
Chapter 6HideHide detailsSee detailsOperations and Preventive Maintenance
Operations and Preventive Maintenance
Lesson 1 • Generator Preventive Maintenance
Covers engine servicing, cooling system checks, fuel quality management, and load testing. Extends generator knowledge from Chapter 3 into ongoing operational practice.
Lesson 2 • UPS and Battery Maintenance
Addresses capacitor replacement, battery impedance testing, and firmware updates for UPS systems. Extends UPS knowledge from Chapter 4 into lifecycle management.
Lesson 3 • Maintenance Program Development
Establishes the framework for a risk-based preventive maintenance program. Students align maintenance frequency with equipment criticality and manufacturer requirements.
Lesson 4 • Maintenance Records and CMMS Integration
Teaches work order management, asset history tracking, and CMMS configuration for power assets. Ensures maintenance data supports reliability analysis and audits.
Lesson 5 • Switchgear and Transformer Maintenance
Details inspection, cleaning, testing, and torque verification for switchgear and transformers. Builds on distribution system knowledge from Chapter 2.
Chapter 7HideHide detailsSee detailsPower System Monitoring and DCIM
Power System Monitoring and DCIM
Lesson 1 • DCIM Platform Architecture
Explains DCIM data models, communication protocols, and integration with BMS and SCADA. Builds on monitoring concepts introduced in earlier chapters.
Lesson 2 • Real-Time Power Monitoring Configuration
Covers meter placement strategy, polling rates, and data normalization for accurate real-time views. Students configure monitoring to capture all critical power parameters.
Lesson 3 • Capacity Planning with Monitoring Data
Uses historical monitoring data to forecast load growth and plan infrastructure upgrades. Prepares students for the strategic planning content in Chapter 8.
Lesson 4 • Power Usage Effectiveness and Analytics
Introduces PUE calculation, energy benchmarking, and trend analytics for efficiency improvement. Students use data to identify waste and justify capital investments.
Lesson 5 • Alerting and Alarm Management
Teaches threshold-based and predictive alerting, alarm prioritization, and escalation workflows. Connects monitoring data to operational response procedures.
Chapter 8HideHide detailsSee detailsRisk Management and Strategic Power Planning
Risk Management and Strategic Power Planning
Lesson 1 • Business Continuity and Incident Response
Develops power-specific incident response plans, escalation trees, and recovery procedures. Students align power continuity plans with broader business continuity frameworks.
Lesson 2 • Capital Planning and Budget Justification
Teaches lifecycle cost analysis, total cost of ownership, and ROI frameworks for power investments. Students build business cases for infrastructure upgrades.
Lesson 3 • Long-Term Power Infrastructure Roadmap
Guides students in creating a multi-year power infrastructure roadmap aligned with facility growth. Integrates capacity planning data from Chapter 7 into strategic decisions.
Lesson 4 • Resilience and Redundancy Strategy
Evaluates redundancy investments against availability targets and business impact. Integrates topology, generator, and UPS knowledge into a unified resilience strategy.
Lesson 5 • Power System Risk Assessment
Applies failure mode analysis, probability scoring, and consequence mapping to power infrastructure. Students build a structured risk register for their facility.
Your valid completion certificate
This course is for you:
Data center operations engineer: responsible for uptime but lacking formal power training.
Facilities manager: overseeing critical infrastructure without deep electrical system knowledge.
Electrical contractor: expanding into mission-critical project work and compliance requirements.
IT infrastructure professional: moving into hybrid roles that include physical power oversight.
Recent engineering graduate: entering the critical facilities industry and building foundational expertise.
Career changer: transitioning from general facilities maintenance into specialized power management.
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