Pideya Learning Academy

Quality and Reliability in Power Systems

Upcoming Schedules

  • Live Online Training
  • Classroom Training

Date Venue Duration Fee (USD)
10 Feb - 14 Feb 2025 Live Online 5 Day 2750
31 Mar - 04 Apr 2025 Live Online 5 Day 2750
12 May - 16 May 2025 Live Online 5 Day 2750
16 Jun - 20 Jun 2025 Live Online 5 Day 2750
21 Jul - 25 Jul 2025 Live Online 5 Day 2750
15 Sep - 19 Sep 2025 Live Online 5 Day 2750
27 Oct - 31 Oct 2025 Live Online 5 Day 2750
24 Nov - 28 Nov 2025 Live Online 5 Day 2750

Course Overview

The accelerating integration of power electronics in maritime and offshore applications has revolutionized electrical systems while introducing new technical challenges related to quality and reliability. In an era where vessels and offshore installations are increasingly dependent on variable speed drives, UPS systems, and complex automation platforms, the stability and resilience of power networks have become paramount. The course “Quality and Reliability in Power Systems”, offered by Pideya Learning Academy, is strategically designed to equip professionals with the knowledge and tools necessary to address emerging power quality issues that can compromise operational efficiency, safety, and asset longevity.
A significant factor contributing to these challenges is the presence of harmonics and voltage distortions, often generated by non-linear electronic loads. These disturbances not only degrade the performance of auxiliary systems but can also cause serious communication failures and tripping of sensitive equipment. According to a 2023 report by MarketsandMarkets, the global power quality equipment market is expected to rise from USD 28.5 billion in 2023 to USD 38.3 billion by 2028, growing at a CAGR of 6.1%. This growth underscores the increasing need for reliable and disturbance-free power in critical infrastructure, particularly within the marine and offshore sectors.
Pideya Learning Academy recognizes the growing demand for trained professionals who can assess, mitigate, and manage power quality issues in high-dependency environments. The Quality and Reliability in Power Systems training addresses this need through a robust curriculum that covers harmonic source identification, grounding practices, power factor correction, and the impact of electrical noise. Participants will delve into the engineering principles that govern power system stability and gain exposure to advanced mitigation strategies in line with global standards.
Embedded throughout the course are several key highlights that enhance the learning experience and practical applicability:
Comprehensive analysis of harmonic distortions and their impact on offshore and shipboard systems
Evaluation of waveform anomalies, voltage sags, and surges with reference to international standards
Exploration of power factor correction techniques and K-factor rated equipment considerations
In-depth review of grounding systems and their influence on voltage regulation and personnel safety
Application of protective design principles for gas-insulated switchgear and high-voltage substations
Investigation of transient disturbances and real-world case examples from marine environments
Review of current compliance frameworks and mitigation strategies aligned with IEEE and IEC norms
This course by Pideya Learning Academy is structured to develop technical depth and systemic understanding. Participants will not only identify potential sources of disturbances but also evaluate their impact on the overall electrical system, devise mitigation strategies, and contribute to safer, more reliable operations.
By engaging in this course, learners will be empowered to support critical infrastructure, proactively manage electrical disturbances, and improve both the lifespan and dependability of essential equipment. The training ultimately helps organizations achieve uninterrupted power delivery and improved safety outcomes in challenging offshore and maritime environments.

Key Takeaways:

  • Comprehensive analysis of harmonic distortions and their impact on offshore and shipboard systems
  • Evaluation of waveform anomalies, voltage sags, and surges with reference to international standards
  • Exploration of power factor correction techniques and K-factor rated equipment considerations
  • In-depth review of grounding systems and their influence on voltage regulation and personnel safety
  • Application of protective design principles for gas-insulated switchgear and high-voltage substations
  • Investigation of transient disturbances and real-world case examples from marine environments
  • Review of current compliance frameworks and mitigation strategies aligned with IEEE and IEC norms
  • Comprehensive analysis of harmonic distortions and their impact on offshore and shipboard systems
  • Evaluation of waveform anomalies, voltage sags, and surges with reference to international standards
  • Exploration of power factor correction techniques and K-factor rated equipment considerations
  • In-depth review of grounding systems and their influence on voltage regulation and personnel safety
  • Application of protective design principles for gas-insulated switchgear and high-voltage substations
  • Investigation of transient disturbances and real-world case examples from marine environments
  • Review of current compliance frameworks and mitigation strategies aligned with IEEE and IEC norms

Course Objectives

After completing this Pideya Learning Academy training, the participants will learn to:
Identify different types of power quality disturbances in marine and offshore electrical systems
Analyze harmonic distortions and their effects on auxiliary equipment
Determine the causes of waveform anomalies and power factor deviations
Apply methods for harmonic mitigation using filters and K-factor assessment
Evaluate grounding techniques and their influence on voltage stability and safety
Classify voltage disturbances and implement corrective actions
Understand the design and protective considerations of gas-insulated switchgear substations
Interpret complex waveform patterns and electrical signatures
Implement system-wide strategies to improve electrical reliability and reduce nuisance tripping
Align power quality management practices with global regulatory requirements

Personal Benefits

Participants of this training program will gain:
A deep understanding of power quality and harmonics management in offshore environments
Advanced technical skills to identify and rectify waveform and voltage issues
Competence in handling the latest challenges in marine electrical systems
Career advancement through specialized knowledge in a high-demand area
Enhanced confidence in contributing to safety and system resilience

Organisational Benefits

Organizations that enroll their teams in this course will benefit from:
Enhanced safety and reliability of offshore and marine electrical systems
Reduction in downtime due to electrical malfunctions or equipment failures
Improved compliance with marine electrical standards and classifications
Increased lifespan and performance of electronic systems and auxiliary equipment
Better-informed teams capable of troubleshooting and mitigating electrical issues

Who Should Attend

This course is ideal for a wide range of professionals involved in electrical power systems, particularly in the marine and offshore sectors. Target attendees include:
Electrical Engineers and Supervisors
Marine Engineers and Offshore Electrical Specialists
Power System Designers and Superintendents
Industrial Engineers working with power distribution systems
Maintenance and Safety Engineers responsible for electrical reliability
Any professional seeking expertise in power quality management and harmonic mitigation

Course Outline

Module 1: Fundamentals of Electrical Power Quality
Definition and importance of power quality Impact of power disturbances on sensitive equipment Classification of electrical disturbances Voltage sags, swells, and interruptions Sources and symptoms of power quality degradation Overview of power quality standards (e.g., IEEE 519) Fundamentals of waveform distortion
Module 2: Harmonic Phenomena in Electrical Systems
Origin and behavior of harmonic currents Fundamental vs non-fundamental frequency components Characteristic and non-characteristic harmonics Impact of harmonic currents on system impedance Third harmonics and neutral conductor loading Line notching effects Subharmonics and interharmonics behavior Sequence components of harmonics
Module 3: Harmonic Impact on Electrical Equipment
Influence of harmonics on synchronous generators Harmonic-related issues in power transformers Induction motor performance degradation Interference with Variable Frequency Drives (VFDs) Harmonic sensitivity in UPS systems Effects on IT equipment and data centers Cable overheating due to harmonic currents Circuit breaker derating and relay malfunctions Harmonic resonance in capacitor banks
Module 4: Nonlinear Load Analysis
Single-phase nonlinear load characteristics Common residential and commercial sources of harmonics Three-phase nonlinear load behavior Industrial equipment contributing to harmonics Office equipment and harmonic profiles Harmonic propagation from distributed sources
Module 5: System Power Factor and Harmonics
Power factor in sinusoidal systems Power factor degradation due to harmonics Apparent vs real power in distorted waveforms Impact of harmonics on kVA demand Reactive power compensation with harmonic mitigation True power factor improvement techniques
Module 6: Total Harmonic Distortion (THD) Metrics
Definition and calculation of Voltage THD (V-THD) Current THD (I-THD) and its measurement Importance of THD limits in utility systems Relationship between THD and equipment failure rates THD mitigation technologies THD monitoring for compliance and reliability
Module 7: System Imbalance and Voltage Distortion
Difference between balanced and unbalanced systems Voltage imbalance effects on three-phase machines Current imbalance and its consequences Relationship between unbalanced loading and harmonics Voltage imbalance impact on multi-pulse drives Detection and correction of background distortion
Module 8: Voltage Distortion and Equipment Stress
Effects of voltage unbalance on power converters Resonance phenomena due to voltage distortion Distorted supply voltage impact on motor efficiency Voltage unbalance and insulation degradation Thermal stress on rotating machinery Interaction of voltage distortion with harmonics
Module 9: Harmonic Reduction Strategies
Role of load diversity in harmonic minimization Effects of linear loads on harmonic currents Configuration of 3-wire and 4-wire systems Use of line reactors in SCR-based drives Isolation transformers for harmonic control Application of tuned and detuned passive filters Phase-shifting transformers for multi-pulse arrangements Quasi-multi-pulse and staggered transformer designs
Module 10: Conducting Harmonic Assessments
Safety protocols for harmonic measurements Pre-survey planning and system review Required data for harmonic profiling Operation of digital harmonic analyzers Selection of measurement points and intervals Frequency spectrum analysis for diagnostics Documentation and interpretation of survey results
Module 11: Harmonics in Renewable Energy and Smart Grids
Power quality issues in solar PV and wind systems Inverter-generated harmonics in distributed generation Harmonic filtering in grid-tied inverters Smart grid technologies and harmonic control Impact of energy storage systems on harmonics Power electronic converters and switching harmonics
Module 12: Advanced Filtering and Compensation Technologies
Hybrid filter configurations (active + passive) Dynamic voltage restorers (DVR) for power quality Static synchronous compensators (STATCOM) Active harmonic filters for dynamic loads Comparison of compensation topologies Load adaptive harmonic mitigation

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