Electrical, Renewable Energy, Power, DCS Training Courses

Mastering Power System Protection & Reliability Training Course - (L 2)

Introduction:</h2>

This course delivers a complete understanding of Digital Power System Relaying and Protection Applications principles, explicitly tailored for power system electrical engineering professionals. The curriculum includes sections that delve into power system projects for electrical engineering, electrical power systems engineering, and reliability-centered maintenance training courses. It equips participants with a robust understanding of the reliability and availability of electrical power systems networks.

It introduces proactive modules essential for power system protection, ensuring safe and efficient operation. It suits professionals aiming to master electrical engineering power systems or those considering a master's degree in electrical engineering power systems. It is a comprehensive power systems certification course focusing on critical electrical engineering power systems components, including a maintenance reliability training course.

<h2 dir="ltr">Power System Projects for Electrical Engineering:</h2>

Within the realm of electrical engineering, power system projects form a cornerstone of the industry's practical applications.

This course facilitates a deep dive into the intricacies of designing, implementing, and managing such projects, providing a solid foundation for professionals to enhance their competence in this domain.

<h2 dir="ltr">Targeted Groups:</h2>

<ul>
	<li dir="ltr">Electrical Power System Engineers</li>
	<li dir="ltr">Electrical Technicians</li>
	<li dir="ltr">Professionals working in substations, power systems, and electrical companies involved in generation, transmission, and distribution</li>
	<li dir="ltr">Managers keen on understanding the impact of power factor correction on operational costs</li>
	<li dir="ltr">Recent graduates or individuals new to the electrical engineering industry</li>
	<li dir="ltr">Professionals seeking further education in protection relay training courses, power systems certification courses, and electrical system training</li>
</ul>

<h2 dir="ltr">Course Objectives:</h2>

Upon completing this course, participants will gain the ability to:

<ul>
	<li dir="ltr">Comprehend power protection devices and their applications.</li>
	<li dir="ltr">Understand the various fault systems and types that may impact electrical power systems.</li>
	<li dir="ltr">Gain insights into control system reliability and Partial Discharge (PD) analysis.</li>
	<li dir="ltr">Acquire knowledge about different load types and their impact on network availability.</li>
	<li dir="ltr">Master the fundamentals of Power System Protection, including in-depth power system protection course content.</li>
</ul>

<h2 dir="ltr">Targeted Competencies:</h2>

<ul>
	<li dir="ltr">Identification of all protection devices required for safeguarding power systems</li>
	<li dir="ltr">Familiarity with all relevant standards regarding protection devices and their settings</li>
	<li dir="ltr">Proficiency in conducting function tests for protection devices and PD analysis</li>
	<li dir="ltr">A comprehensive understanding of fault types and methodologies for fault studies</li>
	<li dir="ltr">Ability to configure protection relays according to the American National Standards Institute (ANSI) codes</li>
</ul>

<h2 dir="ltr">Course Content:</h2>

<h3 dir="ltr">Unit 1- Voltage Sags and Interruptions:</h3>

<ul>
	<li dir="ltr">Defining power quality and its fundamental components</li>
	<li dir="ltr">Quantitative methods for assessing power quality</li>
	<li dir="ltr">The ITI (CBEMA) curve and its relevance</li>
	<li dir="ltr">Identifying causes of voltage sags and interruptions</li>
	<li dir="ltr">Strategies for mitigation</li>
</ul>

<h3 dir="ltr">Unit 2- Transient Voltage Excursions:</h3>

<ul>
	<li dir="ltr">Motor starting, switching, and traveling wave phenomena</li>
	<li dir="ltr">The impact of capacitor switching</li>
	<li dir="ltr">Lightning, shielding, and grounding best practices</li>
	<li dir="ltr">Ferroresonance effects and mitigation</li>
</ul>

<h3 dir="ltr">Unit 3- Reliability Indices, Effects of Fault Clearing on Power Quality:</h3>

<ul>
	<li dir="ltr">IEEE-defined reliability indices</li>
	<li dir="ltr">Interpreting reliability indices</li>
	<li dir="ltr">Strategies for fault clearing and reclosing</li>
	<li dir="ltr">Concepts of fuse saving and blowing philosophy</li>
</ul>

<h3 dir="ltr">Unit 4- Insulation Coordination, Arresters, and Steady-State Voltage Regulation:</h3>

<ul>
	<li dir="ltr">Basics of impulse level, insulation systems, and testing methodologies</li>
	<li dir="ltr">Selection and application of arresters</li>
	<li dir="ltr">Load tap changers and voltage regulators.</li>
	<li dir="ltr">Effects of steady-state voltage on electrical system operation</li>
</ul>

<h3 dir="ltr">Unit 5- Harmonics:</h3>

<ul>
	<li dir="ltr">Fundamentals, causes, and impacts of harmonics</li>
	<li dir="ltr">Understanding AC power and power factor</li>
	<li dir="ltr">Techniques for mitigating harmonic effects</li>
	<li dir="ltr">Use of K-factor transformers and harmonic filters</li>
</ul>

<h3 dir="ltr">Unit 6- Symmetrical Components and Sequence Networks:</h3>

<ul>
	<li dir="ltr">Introduction to power system protection</li>
	<li dir="ltr">Phasor math and per-unit calculations</li>
	<li dir="ltr">Symmetrical components and sequence network theory</li>
	<li dir="ltr">Fault modeling methodologies</li>
</ul>

<h3 dir="ltr">Unit 7- Electromechanical and Digital Relays, Relay Schemes for Radial Systems, Time-Coordinated Overcurrent Protection:</h3>

<ul>
	<li dir="ltr">Principles of electromechanical relay operation</li>
	<li dir="ltr">Implementation of microprocessor-based relays</li>
	<li dir="ltr">Instantaneous and time overcurrent relay mechanisms</li>
	<li dir="ltr">The role of reclosers and sectionalizes</li>
	<li dir="ltr">Time-current curves and device coordination strategies</li>
</ul>

<h3 dir="ltr">Unit 8- Relay Schemes for Networked Systems and Device Protection:</h3>

<ul>
	<li dir="ltr">Understanding distance and differential relays</li>
	<li dir="ltr">Application of differential relays for bus, generator, and transformer protection</li>
</ul>

<h3 dir="ltr">Unit 9- Effect of Protection on Reliability:</h3>

<ul>
	<li dir="ltr">Reliability indices, fault clearing time, and reclosing strategies</li>
	<li dir="ltr">Impacts of nearby faults on system reliability</li>
	<li dir="ltr">Fuse saving and blowing strategy.</li>
	<li dir="ltr">Implementation of intelligent, protective devices</li>
</ul>

<h3 dir="ltr">Unit 10- Arc Flash Hazard and a Look to the Future:</h3>

<ul>
	<li dir="ltr">Differentiating between shock hazards and burn/blast hazards</li>
	<li dir="ltr">Compliance with IEEE 1584 and NFPA 70E standards</li>
	<li dir="ltr">Personal protective equipment and hazard labeling</li>
	<li dir="ltr">Future trends: Communication-based overcurrent protection</li>
	<li dir="ltr">A look to the future: intelligent sectionalizing</li>
</ul>
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Electrical Power System Protection: Devices & Design Course - (L 3)

Introduction:</h2>

This course offers an in-depth look at the fundamental principles and cutting-edge techniques in electrical power protection. It provides valuable insights into protection systems used in electrical systems and covers many protection devices, such as relays.

These protective devices are essential for safeguarding each significant component in the power distribution network against various forms of electrical distress. When a relay operates, it is a protection device in the electrical system that isolates any defective components. Understanding these protection mechanisms is vital for professionals who aim to excel in electrical power system protection training.

This comprehensive electrical power system protection course covers the essential concepts and technologies in electrical power protection. Professionals undertaking this power system training will gain expertise in a wide range of protection devices in electrical systems, understanding the critical role of electrical protection systems in maintaining the integrity of power distribution networks. From protective relay training to electrical power system protection training, this course promises a robust commitment to safeguarding electrical infrastructure. It ensures that participants are well-prepared for a power systems certificate.

<h2 dir="ltr">Targeted Groups:</h2>

<ul>
	<li dir="ltr">Engineers and Technicians from the Electricity Supply Industry</li>
	<li dir="ltr">Technical Management Professionals and Department Leaders</li>
	<li dir="ltr">Engineering Professionals involved in manufacturing and operating power and distribution transformers</li>
	<li dir="ltr">Engineers and Technical Personnel in power utilities, petrochemical plants, and large infrastructure projects</li>
	<li dir="ltr">Maintenance and Operations Technicians are interested in electrical protection training courses and power system protection courses.</li>
</ul>

<h2 dir="ltr">Course Objectives:</h2>

By the end of this electrical system training and power system training course, participants will:

<ul>
	<li dir="ltr">Comprehend the types and causes of electrical faults.</li>
	<li dir="ltr">Understand the practical considerations for specifying the appropriate variety of electrical protection systems.</li>
	<li dir="ltr">Gain a comprehensive understanding of principles and selection of protective relay training and relays.</li>
	<li dir="ltr">Develop and design effective protection schemes.</li>
	<li dir="ltr">Become proficient in the construction and functionalities of instrument transformers.</li>
	<li dir="ltr">Learn about various grounding systems and earthing fault protection techniques.</li>
</ul>

<h2 dir="ltr">Targeted Competencies:</h2>

<ul>
	<li dir="ltr">Operational Principles and Types of Electrical Power System Protection</li>
	<li dir="ltr">Design and Implementation of Different Types of Relays</li>
	<li dir="ltr">Protection Coordination and System Architecture</li>
	<li dir="ltr">Protection Mechanisms for Feeders, Motors, and Transformers</li>
	<li dir="ltr">Short Circuit Current Calculations</li>
	<li dir="ltr">Acquiring Power Systems Certificate knowledge</li>
</ul>

<h2 dir="ltr">Course Content:</h2>

<h3 dir="ltr">Unit 1: Types of Electrical Protection Devices and Faults:</h3>

<ul>
	<li dir="ltr">Importance of Electrical Power Protection and Control Devices</li>
	<li dir="ltr">Types of Electrical Faults</li>
	<li dir="ltr">Characteristics of High Voltage Fuses for Electrical Protection</li>
	<li dir="ltr">Characteristics of Circuit Breakers for Electrical Protection</li>
	<li dir="ltr">Microprocessor Overcurrent Relays</li>
	<li dir="ltr">Time, Current, Curves, and Logic Discrimination</li>
	<li dir="ltr">Hot and Cold Tripping Curves</li>
	<li dir="ltr">Low Voltage Switchboard Protection against Short Circuit</li>
</ul>

<h3 dir="ltr">Unit 2: Protection Functions and Instrument Transformers:</h3>

<ul>
	<li dir="ltr">Overview of Power System Architecture</li>
	<li dir="ltr">Introduction to Protection Functions</li>
	<li dir="ltr">Understanding Selective Coordination</li>
	<li dir="ltr">Features of Lockout and Anti-pumping Relays</li>
	<li dir="ltr">Sensors in Electrical Systems</li>
	<li dir="ltr">Current and Voltage Instrument Transformers</li>
	<li dir="ltr">Various Types of Relays</li>
	<li dir="ltr">Numerical Relays and their Functions</li>
</ul>

<h3 dir="ltr">Unit 3: Busbar, Transformer, and Motor Protection Systems:</h3>

<ul>
	<li dir="ltr">Busbar Protection Mechanisms</li>
	<li dir="ltr">Transformer Protection Techniques</li>
	<li dir="ltr">Motor Protection Systems</li>
	<li dir="ltr">Capacitor Protection Mechanisms</li>
	<li dir="ltr">Overhead Line Protection</li>
	<li dir="ltr">Types of Related Faults</li>
	<li dir="ltr">Relevant Protection Functions</li>
	<li dir="ltr">Protection Device Coordination</li>
	<li dir="ltr">Circuit Breaker Relay Settings</li>
	<li dir="ltr">Current Transformer Sizing Calculations</li>
	<li dir="ltr">Short-Circuit-Current Calculation Methods</li>
	<li dir="ltr">Busbar Rating Selections</li>
	<li dir="ltr">Designing a New 11kV Air-Insulated Switchgear Substation</li>
</ul>

<h3 dir="ltr">Unit 4: Grounding Systems and Earth Fault Protection:</h3>

<ul>
	<li dir="ltr">Overcurrent Protection Mechanisms for Phase and Earth Faults</li>
	<li dir="ltr">Unit Protection Schemes</li>
	<li dir="ltr">Understanding Distance Protection</li>
	<li dir="ltr">Protection of Feeders against Overload and Short Circuit</li>
	<li dir="ltr">Types of Grounding Systems in Electrical Power Systems</li>
	<li dir="ltr">Restricted Earth Fault Protection Techniques</li>
	<li dir="ltr">Sensitive Earth Fault Protection Mechanisms</li>
	<li dir="ltr">Protection against Over-voltages in Electrical Systems</li>
</ul>

<h3 dir="ltr">Unit 5: Methods of Commissioning Relays, Short Circuit Current Calculation, and Harmonics:</h3>

<ul>
	<li dir="ltr">Commissioning Process of Protective Relays</li>
	<li dir="ltr">Calculation Methods for Short Circuit Current</li>
	<li dir="ltr">Understanding Fault Topologies</li>
	<li dir="ltr">Calculation of Short Circuit Current at the Fault Point</li>
	<li dir="ltr">Positive, Negative, and Zero Sequence Systems in Electrical Power Systems</li>
	<li dir="ltr">Impact of Triple Harmonics and Mitigation Techniques</li>
</ul>
">

Kuala Lumpur (Malaysia)

26 - 30 Jan 2025

4900 Euro

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Evolving Power Generation: Gas Turbines, Combined Cycle, Wind, & Solar Technologies - (L 6029)

Introduction</h2>
This power generation in the gas, wind, solar, and combined cycle program provides a detailed understanding of steam power plants, gas turbines, cogeneration, combined-cycle plants, and wind and solar power generating plants. Each of the components, such as compressors, gas and steam turbines, heat recovery steam generators, deaerators, condensers, lubricating systems, instrumentation, control systems, transformers, and generators, are covered.
The design, selection considerations, operation, maintenance, and economics of cogeneration plants and combined cycles, as well as emission limits, reliability, monitoring, and governing systems, will also be covered.
The power generation in the gas, wind, solar, and combined cycle course is significant improvements that were made to cogeneration, combined-cycle plants, and wind- and solar-power-generating plants during the last two decades will also be explained.
<h2>Enhancing the Understanding of Power Systems</h2>
The evolution of power plants and the integration of modern technologies such as cogeneration, combined-cycle systems, and renewable energy sources have significantly improved the creation of electricity.
This power generation in the gas, wind, solar, and combined cycle course aims to provide comprehensive power system training and power generation training, specifically targeting those involved in power plant operation and electricity course methodologies. Particular emphasis is placed on power plant maintenance training and power plant fundamentals training to equip participants with the necessary skills to handle modern industrial power generation challenges.
Participants of this power generation training course will have the opportunity to enroll in a power plant training program that delves into the power plant certificate course material, ensuring that they emerge with a firm grasp of power generation equipment and power generation systems. Learning outcomes are focused on practical applications such as power plant training, enabling participants to contribute effectively to the optimization of power generation system operations.
<h2>Targeted Groups</h2>
<ul>
<li>Power Station Operators, Technicians, Engineers, and Managers.</li>
<li>Electrical and Mechanical Engineers of Different Competency Levels.</li>
<li>Project Engineers and Project Managers.</li>
<li>Power Station Maintenance Crew.</li>
</ul>
<h2>Course Objectives</h2>
At the end of this power generation in the gas, wind, solar, and combined cycle course, the participants will be able to:
<ul>
<li>Learn about the components and subsystems of the various types of gas turbines, steam power plants, cogeneration, combined-cycle plants, wind turbines and generators, wind turbine farms, and solar power generation.</li>
<li>Examine the advantages, applications, performance, and economics of cogeneration, combined-cycle plants, wind turbines and generators, wind turbine farms, and solar power generation.</li>
<li>Learn about various equipment, including compressors, turbines, governing systems, combustors, deaerators, feedwater heaters, transformers, generators and auxiliaries, wind turbines and generators, wind turbine farms, and solar power generating plants.</li>
<li>Discover the maintenance required for gas turbines, steam power plants, combined cycles, generators, wind turbines, and wind turbine farms to minimize their operating cost and maximize their efficiency, reliability, and longevity.</li>
<li>Learn about the monitoring and control of environmental emissions.</li>
<li>Discover instrumentation and control systems of gas turbines and combined cycles.</li>
<li>Increase your knowledge of predictive and preventive maintenance, reliability, and testing.</li>
<li>Gain a thorough understanding of the selection considerations and applications of cogeneration, combined-cycle plants, wind turbines and generators, wind turbine farms, and solar power generation.</li>
</ul>
<h2>Targeted Competencies</h2>
At the end of this power generation in the gas, wind, solar, and combined cycle course, the target competencies will be able to:
<ul>
<li>Power generation theory.</li>
<li>Understand power plant types and their features.</li>
<li>Learn about industrial plants, processes, and control measures.</li>
<li>Understand thermal, gas, and diesel generator power plant operations and selection criteria.</li>
<li>Learn about the fundamentals of electric machines, drives, and control devices.</li>
</ul>
<h2>Course Content</h2>
<h3>Unit 1: Steam Power Plants</h3>
<ul>
<li>Review of thermodynamics principles.</li>
<li>Steam power plants.</li>
<li>The fire-tube boiler.</li>
<li>The water-tube boiler.</li>
<li>The steam drum.</li>
<li>Superheaters and reheaters.</li>
<li>Steam turbines.</li>
<li>Reheaters.</li>
<li>Condensers.</li>
<li>Feedwater heaters.</li>
<li>Learn about efficiency and heat rate.</li>
<li>Supercritical plants.</li>
<li>Cogeneration plants.</li>
<li>Arrangement of cogeneration plants.</li>
<li>Economics of cogeneration plants.</li>
</ul>
<h3>Unit 2: Steam Turbines and Auxiliaries</h3>
<ul>
<li>Turbine types.</li>
<li>Compound turbines.</li>
<li>Turbine control systems.</li>
<li>Steam turbine maintenance.</li>
<li>Understand steam generators, heat exchangers, and condensers.</li>
<li>Power station performance monitoring.</li>
<li>The turbine governing systems.</li>
<li>Steam chests and valves.</li>
<li>Turbine protective devices.</li>
<li>Turbine instrumentation.</li>
<li>Lubrication systems.</li>
<li>Gland sealing system.</li>
<li>Learn about frequently asked questions about turbine-generator balancing, vibration analysis, and maintenance.</li>
<li>Features Enhancing The Reliability and Maintainability of Steam Turbines.</li>
</ul>
<h3>Unit 3: Gas Turbines and Compressors</h3>
<ul>
<li>Gas turbine fundamentals.</li>
<li>Overview of gas turbines.</li>
<li>Gas turbine design.</li>
<li>Gas turbine calculations.</li>
<li>Gas turbine compressors.</li>
<li>Combined cycles.</li>
<li>Single-shaft combined cycle power generating plants.</li>
<li>What are the economic and technical considerations for combined cycle performance enhancement options?</li>
<li>Dynamic compressors technology.</li>
<li>Understand compressors auxiliaries, off-design performance, stall, and surge.</li>
<li>Learn about centrifugal compressors - components, performance characteristics, balancing, surge prevention systems, and testing.</li>
<li>Dynamic compressors performance.</li>
<li>Compressor seal systems.</li>
<li>Learn about dry seals, advanced sealing mechanisms, and magnetic bearings.</li>
</ul>
<h3>Unit 4: Cogeneration Plants, Wind, and Solar Power Generation</h3>
<ul>
<li>Learn about applications of cogeneration and combined cycle plants.</li>
<li>Understand selection considerations of combined cycles and cogeneration plants.</li>
<li>Cogeneration application considerations.</li>
<li>Learn about the University of Toronto's central steam, cogeneration, and district heating plant.</li>
<li>What is the Economics of combined cycles cogeneration plants?</li>
<li>Wind power generation.</li>
<li>Economics of wind power.</li>
<li>Wind power turbine generators - brushless double-feed generators.</li>
<li>Solar power.</li>
<li>Solar photovoltaic technologies.</li>
<li>Economics of solar power systems.</li>
</ul>
<h3>Unit 5: Transformers and Generators</h3>
<ul>
<li>Fundamentals of electric systems.</li>
<li>Introduction to machinery principles.</li>
<li>Transformers.</li>
<li>Transformers components and maintenance.</li>
<li>AC machine fundamentals.</li>
<li>Synchronous generators.</li>
<li>Understand generator components, auxiliaries, and excitation.</li>
<li>Understand generator testing, inspection, and maintenance.</li>
</ul>
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Safe Operation & Maintenance of Circuit Breakers & Switchgear Training Course - (L 6055)

Introduction</h2>
Circuit breakers, fused switches, and switchgear, which can be found in Motor Control Centres (MCC), are integral components for the electrical management of any electrical plant. Their safe operation hinges on not just the proper initial selection but also ongoing operation and maintenance.
A comprehensive understanding of the safe operation and maintenance of circuit breakers and switchgear course is crucial for the installation of these devices, as is awareness of local substation and system ratings and knowledge of the operating mechanisms of various breakers, which is essential for effective troubleshooting and repair.
The course titled Safe Operation and Maintenance of Circuit Breakers and Switchgear Training Course is designed to endow participants with either new or enriched skills that will ensure that circuit breakers and switchgear are safely installed, operated, and preserved in a manner that guarantees safe and reliable service.
Participants in the safe operation and maintenance of circuit breakers and switchgear course will learn to diagnose faults accurately and determine their root causes to mitigate the risk of recurring failures, incorporating core aspects of operation and maintenance management and adhering to guidelines for safe process operations and maintenance.
<h2>Targeted Groups</h2>
<ul>
<li>Electricians.</li>
<li>Electrical supervisors.</li>
<li>Plant electricians.</li>
<li>Operations and maintenance engineers, supervisors, and technicians.</li>
<li>Maintenance technicians.</li>
</ul>
<h2>Course Objectives</h2>
By the conclusion of this safe operation and maintenance of circuit breakers and switchgear course, participants will:
<ul>
<li>Grasp the operational dynamics of circuit breakers and switchgear.</li>
<li>Employ robust troubleshooting protocols specific to circuit breakers and related switchgear.</li>
<li>Enhance proficiency in utilizing various test equipment.</li>
<li>Comprehend failure modes and conduct accurate failure analyses for fuses, circuit breakers, and switchgear, specifically addressing air brake, vacuum, and SF6 devices.</li>
<li>Renew awareness of electrical safety issues pertinent to substations and control centers.</li>
<li>Calculate fault levels within substations.</li>
</ul>
<h2>Targeted Competencies</h2>
At the end of this safe operation and maintenance of circuit breakers and switchgear course, the target competencies will be able to:
<ul>
<li>Identify types of switchgear and disconnectors.</li>
<li>Understand electrical systems along with their load and fault requirements.</li>
<li>Understand familiarity with substation layouts and equipment ranging from 0.4 to 36kV.</li>
<li>Learn about awareness of health and safety and equipment fault voltages under earth fault conditions.</li>
<li>Understand proficiency in maintaining, inspecting, testing, and certifying switching plants.</li>
<li>Recognize electrical hazards, safe working distances, and permit-to-work systems.</li>
<li>Identification of hazardous situations.</li>
<li>Ensure safe earthing of equipment during maintenance and adoption of lockouts and labeling procedures.</li>
</ul>
<h2>Course Content</h2>
<h3>Unit 1: The Technology of Circuit Breakers and Switchgear</h3>
<ul>
<li>What are the typical substation arrangements and MCCs?</li>
<li>Definitions and terminology relevant to the industry.</li>
<li>Learn about fault level calculations and their significance.</li>
<li>Contribute to faults by motors and generators.</li>
<li>Understand the spectrum of equipment: low voltage, medium voltage, and high voltage.</li>
<li>Interpret nameplate ratings.</li>
<li>What are the roles of CTs and VTs in electrical systems?</li>
<li>Understand basic protection requirements for safe electrical operation and maintenance.</li>
<li>Engage case studies for practical insight.</li>
</ul>
<h3>Unit 2: Operation of Various Types of Interrupting Equipment</h3>
<ul>
<li>Various fuse types and their applications, including motor starting fuses.</li>
<li>Operate fused switches and molded case-type breakers.</li>
<li>How do you handle air break switches and vacuum contactors?</li>
<li>Delve into vacuum circuit breakers, SF6 puffer, and rotating arc devices.</li>
<li>Special insulating requirements are necessary at 36kV.</li>
<li>Address problems associated with solid and gaseous insulation.</li>
</ul>
<h3>Unit 3: The Operation and Maintenance of Circuit Breakers and Switchgear</h3>
<ul>
<li>Utilize Digital Voltmeters (DVM) effectively.</li>
<li>Apply oscilloscopes in maintenance procedures.</li>
<li>Define the Megger as a diagnostic tool.</li>
<li>Understand frequency meters and their operation.</li>
<li>Use temperature probes/IR pyrometers for monitoring.</li>
<li>Measure with Ammeters and Power meters.</li>
<li>Learn about the employment of load banks in testing.</li>
<li>Techniques using cable fault locators.</li>
</ul>
<h3>Unit 4: Special Techniques</h3>
<ul>
<li>Utilize NEC checklists for correct installation.</li>
<li>Advanced troubleshooting of Electrical Equipment.</li>
<li>Clarify methods, terminology, and principles.</li>
<li>Develop special techniques for unique problems.</li>
<li>Interpret single-line drawings in electrical systems.</li>
</ul>
<h3>Unit 5: The Interpretation and Use of Drawings</h3>
<ul>
<li>Understand single-line electrical drawings for system overview.</li>
<li>Decipher control schematics for operations and maintenance.</li>
<li>Understand essential generic wiring lists and their applications.</li>
<li>Decode nameplate information effectively.</li>
<li>Apply logic and standard symbols.</li>
<li>Consider step and touch potentials in safety measures.</li>
</ul>
<h3>Unit 6: The Development of a Job Plan</h3>
<ul>
<li>What is Step-by-step sequence identification for pinpoint troubleshooting?</li>
<li>Prepare procedures for comprehensive operation.</li>
<li>Learn about documentation of best practices for operation and maintenance systems.</li>
<li>Ensure follow-up and continuity of practices.</li>
<li>Prioritizing safety considerations and training within the operation-safe framework.</li>
<li>Case studies for practical applications and learning.</li>
</ul>
<h3>Unit 7: The Identification and Repair of Problems/Failures</h3>
<ul>
<li>Investigate common mode failures and their implications.</li>
<li>How do you address phase imbalance issues and phase sequence checks?</li>
<li>Understand contact pitting/arcing and its causes.</li>
<li>Evaluate load and fault ratings for equipment.</li>
<li>Analyze electronic component failures and their solutions.</li>
<li>Ensure correct operations of switches and control circuits.</li>
<li>Diagnosing ground faults affecting cables and busbars.</li>
<li>Review safety requirements, area classifications, and NEC electrical codes.</li>
<li>Keep safety information up to date for energy operations and maintenance solutions.</li>
</ul>">

Kuala Lumpur (Malaysia)

09 - 13 Feb 2025

4900 Euro

Sharm El-Sheikh (Egypt)

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Electrical Faults: Causes, Analysis, Detection & Remedies Course - (L 6056)

Introduction</h2>
The electrical fault analysis, remedies, and power system course delves into the methodology for calculating fault currents in practical electrical power systems. The electrical fault analysis, remedies, and power system course is imperative in the context of electrical safety to analyze subjects to short-circuit currents as they carry significant destructive energy.
The equipment must have adequate short-circuit ratings to handle such high currents. Precise computation of these currents is critical for calibrating system protection devices accordingly. Industry-standard analysis techniques are elucidated in this electrical fault analysis, remedies, and power system course.
In this electrical fault analysis, remedies, and power system course, a comprehensive engineering software package is employed throughout the seminar to ensure detailed attention and minimize simplifications. The curriculum emphasizes applying these techniques to actual systems, ranging from system analysis preparation and manual and computer-aided calculation processes to the final application of results.
Practical examples aligned with industrial standards are provided to help engineers become adept at following and applying the necessary procedures. Additionally, the electrical fault analysis, remedies, and power system course introduces industry software that simplifies the modeling and analysis of complex electrical systems, facilitating more accessible fault analysis. However, understanding and interpreting the software-generated results remains essential, as inaccuracies in input data can lead to unreliable outcomes.
<h2>Electric Power Steering Faults: Detection and Analysis</h2>
In this electrical fault analysis, remedies, and power system course, we will focus on diagnosing and analyzing electric power steering electrical faults within the context of our comprehensive electrical fault-finding course. We will explore common causes of electrical faults within power steering systems, essential troubleshooting techniques, and offer remedies for such electric motor faults.
The electrical fault analysis, remedies, and power system course aims to enhance participants' electrical fault detection and electrical fault analysis skills, specifically in the area of power steering systems, which are critical for vehicle safety and operation.
<h2>Targeted Groups</h2>
<ul>
<li>Electricians.</li>
<li>Design electrical engineers.</li>
<li>Electrical supervisors.</li>
<li>Plant electricians.</li>
<li>Operations and maintenance engineers, supervisors, and technicians.</li>
<li>Maintenance technicians.</li>
</ul>
<h2>Course Objectives</h2>
At the end of this electrical fault analysis, remedies, and power system course, participants will be able to:
<ul>
<li>Grasp the basic theory of balanced and unbalanced three-phase power systems.</li>
<li>Understand per-unit systems and analytical techniques for calculating industrial power systems' faults.</li>
<li>Employ advanced engineering math software for simplifying complex calculations.</li>
<li>Analyze three-phase balanced and unbalanced faults using symmetrical components.</li>
<li>Apply impedance reduction techniques and understand positive, negative, and zero sequence circuits for fault analysis.</li>
<li>Utilize CAD-driven PC-based software for validating study results and analyzing more complex systems.</li>
<li>Systematically gather data and information required for power system fault analysis.</li>
</ul>
<h2>Targeted Competencies</h2>
By the end of this electrical fault analysis, remedies, and power system course, the target competencies will be able to:
<ul>
<li>Identification of causes of electrical faults.</li>
<li>Comprehension of three-phase short circuit currents.</li>
<li>Recognition of unsymmetrical faults in transformers.</li>
<li>Understanding the partial discharge phenomena and its analysis.</li>
<li>Graphical representation of unsymmetrical faults in a power system.</li>
<li>Manual and software-assisted calculation of fault currents.</li>
<li>Simulation for protection relay configuration.</li>
</ul>
<h2>Course Content</h2>
<h3>Unit 1: Introduction to Fault Analysis</h3>
<ul>
<li>Source of fault current.</li>
<li>Fault statistics.</li>
<li>Fundamental assumptions.</li>
<li>Equipment short-circuit rating.</li>
<li>Proper switchgear rating for fault duties.</li>
<li>Per-unit system overview.</li>
<li>One-line diagrams.</li>
<li>Source impedance data for plant components.</li>
<li>Tutorial showcasing system preparation for analysis.</li>
<li>Introduction to engineering software for precise calculations.</li>
</ul>
<h3>Unit 2: Three-Phase Short-Circuit Currents</h3>
<ul>
<li>Manual calculation of three-phase short-circuit current.</li>
<li>Circuit reduction methods.</li>
<li>Industrial systems.</li>
<li>Electricity supply systems.</li>
<li>Tutorial using attendees' plant data.</li>
<li>Cables are subject to short-circuit currents.</li>
<li>Regulatory compliance.</li>
</ul>
<h3>Unit 3: Unsymmetrical Fault Conditions</h3>
<ul>
<li>Symmetrical components overview.</li>
<li>Analysis of various fault types.</li>
<li>Sequence networks.</li>
<li>Phase shift in transformers.</li>
<li>Earth impedance considerations.</li>
<li>Analysis involving three-winding transformers.</li>
</ul>
<h3>Unit 4: Representation of Unsymmetrical Faults in Power Systems</h3>
<ul>
<li>Fault diagrams.</li>
<li>Interconnected sequence networks.</li>
<li>Limitation of earth fault current.</li>
<li>Practical examples based on industrial power systems.</li>
</ul>
<h3>Unit 5: Computer-Based Calculation of Faults</h3>
<ul>
<li>Scaled-down industrial program for complex power system modeling under fault conditions.</li>
<li>Software utilization for practical study validation.</li>
<li>Reference to industrial standards.</li>
</ul>">

Kuala Lumpur (Malaysia)

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Power Plant Operations & Control Training Course - (L 6064)

Introduction</h2>
This power plant operations and control training course provides an intermediate to advanced level of knowledge about the operation and control of power plant operations, ensuring a comprehensive understanding of power plant fundamentals, operation, and maintenance.
The power plant operations and control course extensively covers the construction, assemblies, and configuration of the most common types of fossil-fueled power plants, such as thermal, gas, and diesel power stations. The power plant operations and control course delves into electrical and mechanical engineering concepts, including electrical machines and drives, thermodynamics, and much more, to thoroughly prepare the participants for success in the field of power plant operations.
Participants in the power plant operations and control course will gain insight into control variables, instrumentation techniques, monitoring and controlling processes, and operation of control devices, valves, sensors, actuators, heat exchangers, compressors, and other critical components in ensuring efficient power plant operation.
For those interested in professional certification, this power plant operations and control course can be an essential step toward obtaining a power plant operator certification. The power plant operations and control course prepares attendees with the necessary knowledge and skills required to meet power plant operator requirements. The power plant operations and control course aims to place them firmly on the path toward career advancement in the field of power plant operation and maintenance.
<h2>Targeted Groups</h2>
<ul>
<li>Power Station Operators, Technicians, Engineers, and Managers are seeking power plant operator training and certification programs.</li>
<li>Electrical and Mechanical Engineers are seeking to expand their competencies in power plant training programs.</li>
<li>Project Engineers, Project Managers, and Power Station Maintenance crew aiming for professional development in plant operations.</li>
<li>University Graduates, Site Engineers, and Technical Crew are interested in a power plant technology certificate or a power plant operator degree.</li>
</ul>
<h2>Course Objectives</h2>
By the end of this power plant course, the participants will be able to:
<ul>
<li>Comprehend the intricate operation and maintenance of power plants.</li>
<li>Analyze process and control diagrams within the power plant context.</li>
<li>Gain familiarity with preventive and corrective maintenance, troubleshooting, and control strategies in power plants.</li>
<li>Understand power plant parameters, disturbances, and control techniques for sustained operation.</li>
<li>Appreciate distinctive power plant features, selection criteria, and optimization for maximum efficiency.</li>
</ul>
<h2>Targeted Competencies</h2>
At the end of this power plant operations and control course, the target competencies will be able to:
<ul>
<li>Overview of in-depth knowledge of power generation theory.</li>
<li>Understand the different power plant types and their features.</li>
<li>Learn about proficiency in recognizing and applying industrial plant processes and control measures.</li>
<li>Master in operating thermal, gas, and diesel generator power plants and understanding their selection criteria.</li>
<li>Overview: a strong foundation in the fundamentals of electric machines, drives, and control devices.</li>
</ul>
<h2>Course Content</h2>
<h3>Unit 1: Fundamentals of Mechanical and Electrical Engineering</h3>
<ul>
<li>Exploration of sensors and actuators.</li>
<li>Understand the examination of pumps, compressors, turbines, fans, and blowers.</li>
<li>Understand pneumatics and hydraulics essentials.</li>
<li>Discuss control valves and cylinders and electrical actuation.</li>
<li>Theory of heat transfer analysis.</li>
<li>Delve into electric generators, motors, and drives.</li>
</ul>
<h3>Unit 2: Gas Power Station</h3>
<ul>
<li>Overview of gas power stations and plant operation courses.</li>
<li>Explore fundamentals and thermodynamics in power plant operation.</li>
<li>Learn about the breakdown of gas turbine components and their functionalities.</li>
<li>Study of construction, lubrication system, fuel system, and auxiliary systems.</li>
<li>Understand protection, control, and instrumentation.</li>
<li>Learn about installation, optimal plant operations, and maintenance.</li>
</ul>
<h3>Unit 3: Thermal Power Station</h3>
<ul>
<li>Learn about a detailed overview of thermal power stations.</li>
<li>Investigate fuel combustion and steam generation process.</li>
<li>Overview of boiler auxiliary plant operations and controls.</li>
<li>Understand insight into boilers and power generation.</li>
<li>Waste heat recovery.</li>
<li>Understand techniques for boiler emission control, maintenance, and troubleshooting.</li>
</ul>
<h3>Unit 4: Diesel Generator (DG) Power Station</h3>
<ul>
<li>Learn about the Identification of power plant types, components, and engine types.</li>
<li>Learn about the analysis of engine technology and classifications.</li>
<li>Understand the characteristics of DG types, protection, insulation, earthing, and construction.</li>
<li>DG set assemblies and components essentials.</li>
<li>DG plant layout optimization.</li>
<li>Learn about best practices for DG operation and maintenance.</li>
</ul>
<h3>Unit 5: Process Instrumentation and Control</h3>
<ul>
<li>Build the foundation of process control fundamentals.</li>
<li>Understand techniques for the measurement and control of pressure, level, flow, and heat.</li>
<li>Explore electronic controllers for power plant operation and maintenance.</li>
<li>Learn to interpret Process Flow Diagram (PFD), Piping and Instrumentation Diagram (P&ID), and transfer function.</li>
<li>Learn about the management of open and closed-loop controllers.</li>
<li>Understand introduction to operational amplifiers, analog, and digital controllers.</li>
</ul>">

Sharm El-Sheikh (Egypt)

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Electrical Power Systems for Non-Engineers Training Course - (L 6066)

Kuala Lumpur (Malaysia)

02 - 06 Mar 2025

4900 Euro

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Electrical Drawings and Control Circuits Training Course - (L 6085)

Introduction</h2>
This electrical control circuits and drawings course begins with developing relevant drawings and symbols representing devices critical to all electrical installations to ensure continuity and efficient operations. Understanding and interpreting electrical drawings and ladder diagrams are the primary and fundamental tools for troubleshooting and maintaining an electrical installation.
Electrical symbols, schematics, and wiring diagrams support the operations of electrical installation equipment. This electrical control circuits and drawings program covers all electrical blueprint reading and circuit tracing aspects.
Participants in the electrical control circuits and drawings course will be familiarised with various standards and practices, learn to understand power flow, and identify equipment installed. As-fitted and ladder diagrams will be presented to correlate with the installed electrical equipment. Tracing electrical circuits with the corresponding wiring diagrams will be demonstrated to ensure proper troubleshooting methods.
<h2>Understanding Electrical Control Circuits</h2>
Electrical control circuits are integral to operational efficiency. This electrical control circuits and drawings course module delves deep into the essence of electrical control circuits, elucidating the basics of control circuit arrays through schematic training, wiring design, and controller applications. Understanding the intricacies of electrical energy control ensures that engineers and technicians can oversee the smooth functioning and management of sophisticated electrical systems.
Participants will be trained in interpreting and constructing basic electrical control circuits using best practices in drawing and designing electric field simulations. The electrical schematic training will enhance the ability to draw and read complex electrical engineering drawings that form the backbone of modern electrical systems. By grasping the nuances of electrical schematic drawings, professionals can significantly improve their capacity for meticulous electrical drawing and troubleshooting.
<h3>Drawing and Interpreting Electrical Schematics and Control Circuits</h3>
Focused training on electrical schematic drawing ensures that all aspects of schematics, including reading electrical drawings and creating electrical schematics, and the electrical control circuits and drawings course are covered comprehensively, preparing participants to tackle real-world challenges in electrical diagram analysis and system troubleshooting. This vital competency not only aids in understanding electrical drawings but also is a powerful tool for effective communication and documentation of electrical systems design.
<h2>Targeted Groups</h2>
<ul>
<li>Electrical Engineers.</li>
<li>Electrical Supervisors.</li>
<li>Maintenance Technicians.</li>
<li>Managers in charge of electrical installations.</li>
<li>Project Engineers.</li>
</ul>
<h2>Course Objectives</h2>
Participants in the electrical control circuits and drawings course will be able to:
<ul>
<li>Describe the various types of electrical drawings.</li>
<li>Appreciate the importance of single-line diagrams.</li>
<li>Analyze various electrical ladder drawings.</li>
<li>Explain the operation of electrical equipment using wiring and schematic diagrams.</li>
<li>Recognize the symbols in electrical drawings.</li>
</ul>
<h2>Targeted Competencies</h2>
At the end of this electrical control circuits and drawings course, the target competencies will be able to:
<ul>
<li>Interpretation and understanding of standard electrical symbols.</li>
<li>Characteristics of single-line diagrams.</li>
<li>Importance of ladder diagrams.</li>
<li>Using diagrams for circuit tracing.</li>
<li>Troubleshooting electrical systems using diagrams.</li>
</ul>
<h2>Course Content</h2>
<h3>Unit 1: Types of Drawings and Symbols</h3>
<ul>
<li>Importance and relevance of drawings.</li>
<li>Categories of electrical drawing and their characteristics.</li>
<li>Different types of electrical drawings serve the purpose.</li>
<li>International electrical symbols and drawings.</li>
<li>Applications and functions of numerical relays.</li>
<li>Importance of CTs and VTs information in electrical drawings.</li>
</ul>
<h3>Unit 2: Interpretation and Significance of Single-Line Diagrams</h3>
<ul>
<li>Onset of a single-line diagram.</li>
<li>Importance of single-line diagrams.</li>
<li>Standardized drawing symbols.</li>
<li>Protective device coordination in single-line diagrams.</li>
<li>Fault current calculations with information from the single-line diagram.</li>
<li>Troubleshooting and electrical installations with the relevant diagrams.</li>
</ul>
<h3>Unit 3: Ladder Diagrams Interpretation</h3>
<ul>
<li>Types of ladder diagrams.</li>
<li>Generic electrical equipment ladder diagrams.</li>
<li>Designing control circuits.</li>
<li>Interlock control circuits.</li>
<li>Protective relays and timers ladder diagrams.</li>
<li>Fail-safe designs.</li>
</ul>
<h3>Unit 4: Schematic and Control Circuits and its Merits</h3>
<ul>
<li>VFD schematics and its operation related to controlling circuits.</li>
<li>UPS power supply schematic diagram components functionalities.</li>
<li>Reading and tracing AC input diagrams and their significance.</li>
<li>Identify components in the receiver, inverter, and AC outputs. schematic diagrams.</li>
<li>Types of protection relays schematics, wiring, operation, and functional diagrams.</li>
<li>Motor installation and control circuits.</li>
</ul>
<h3>Unit 5: Logic Circuits Applications and Troubleshooting Strategies</h3>
<ul>
<li>Logic gates and characteristics.</li>
<li>Digital logic functions.</li>
<li>Programmable logic controllers.</li>
<li>Process and instrument diagrams.</li>
<li>Troubleshooting strategies.</li>
</ul>">

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Energy Management System (BS EN 16001/ISO 50001 Development and Implementation) - (L 7009)

Introduction</h2>
Energy and carbon management are now essential components of successful organizational management. The utilization of energy resources is a critical factor in achieving our outcomes.
However, often more attention is needed to its management and control. Pressure to reduce organizational costs, minimize resource use, and environmental impact are ever-present challenges.
Managing energy is simple and easy once the essential practices and methodologies suitable for the organization have been learned and applied.
<h2>ISO 50001 Energy Management System: Understanding the Standard</h2>
In this BS EN 16001 and ISO 50001 energy management system course, participants will delve into the benefits of ISO 50001 certification and understand what an energy management system aligned with ISO 50001 entails. ISO 50001 training will equip attendees with the knowledge to pursue ISO 50001 certification for their organizations, emphasizing the development and implementation process.
This ISO 50001 certification course will explore why the BS EN 16001 energy management systems standard has evolved into ISO 50001, shedding light on the benefits of ISO 50001, including cost reductions and enhanced sustainability practices.
<h2>Targeted Groups</h2>
<ul>
<li>Electrical Engineers.</li>
<li>Electrical Supervisors.</li>
<li>Power Engineers.</li>
<li>Managers in charge of electrical installations.</li>
<li>Project Engineers.</li>
<li>Quality Professionals.</li>
</ul>
<h2>Course Objectives</h2>
At the end of this BS EN 16001 and ISO 50001 energy management system course, participants will be able to:
<ul>
<li>Understand where energy resources come from.</li>
<li>Identify areas where energy can be conserved or used more efficiently.</li>
<li>Gain expertise in effectively managing the energy once it is brought on-site.</li>
<li>Encourage organizational colleagues to engage in daily energy resource management.</li>
<li>Demonstrate to all stakeholders the best practices in energy management.</li>
<li>Understand the process of developing and implementing an energy management system.</li>
<li>Learn about the International Energy Management Standard (ISO 50001).</li>
<li>Reduce operational costs, carbon footprint, and environmental impact.</li>
</ul>
<h2>Targeted Competencies</h2>
Upon the end of this BS EN 16001 and ISO 50001 energy management system course, target competencies will be able to:
<ul>
<li>Developing policies and strategies specific to energy management.</li>
<li>Understanding objectives and targets related to resource usage.</li>
<li>Recording and responding to variations in energy management targets and budgets.</li>
<li>Establishing effective energy usage monitoring and metering approaches.</li>
</ul>
<h2>Course Content</h2>
<h3>Unit 1: Energy Overview</h3>
<ul>
<li>Energy and the environment.</li>
<li>Energy laws, regulations, and procedures.</li>
<li>Understanding energy terminology.</li>
<li>Carbon emissions and their implications.</li>
<li>Overview of energy standards such as ISO 50001 and BS EN 16001.</li>
<li>Energy applications in various sectors.</li>
</ul>
<h3>Unit 2: Energy Data and Management</h3>
<ul>
<li>Interpreting invoices for energy usage.</li>
<li>Effective metering strategies.</li>
<li>Data manipulation and interpretation.</li>
<li>Management output.</li>
<li>Utilizing data for energy optimization.</li>
<li>Evaluation of management competency in energy usage.</li>
</ul>
<h3>Unit 3: Energy Auditing / Review</h3>
<ul>
<li>The auditing process and its importance in energy management.</li>
<li>Simple to complex auditing techniques.</li>
<li>Management auditing for ongoing energy usage.</li>
<li>Detailed auditing for specific energy management challenges.</li>
<li>Process assessment for optimal energy utilization.</li>
<li>Equipment and activity assessment to identify areas for improvement.</li>
</ul>
<h3>Unit 4: Monitoring and Targeting</h3>
<ul>
<li>Analyzing raw data to understand energy usage patterns.</li>
<li>Establishing connections with organizational activity levels.</li>
<li>Creating benchmarks/KPIs for energy performance.</li>
<li>Regression analysis and CuSum techniques for detailed analysis.</li>
<li>Establishing consumption budgets and targets.</li>
<li>Automated monitoring and targeting/reporting for continuous improvement.</li>
</ul>
<h3>Unit 5: People Power</h3>
<ul>
<li>Finding sources of help and guidance in energy management.</li>
<li>Engaging staff members in energy management initiatives.</li>
<li>Implementing policies and strategies to align with energy goals.</li>
<li>Establishing partnerships for collaborative energy management.</li>
<li>Effective information/communication strategies for organizational energy management.</li>
</ul>">

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Electrical Power System Analysis & Design Training Course - (L 7047)

Introduction</h2>
This highly informative electrical power system analysis and design training course covers the essential elements of power system analysis, both from a theoretical perspective and, more importantly, from a practical viewpoint. Methods often covered as abstract mathematical procedures, such as phasors, per-unit, and symmetrical components, are presented straightforwardly and understandably. Modeling and analysis are viewed realistically, not as simply a step-by-step procedure.
After completing this electrical power system analysis and design training course, you will intuitively understand how the power system behaves and how it must be analyzed under normal and contingency conditions. The curriculum is structured to reinforce concepts related to electrical power systems engineering and power systems analysis and design.
<h2>Professional Power Systems Integration</h2>
Understanding the integration and leveraging of the capabilities of power system analysis tools is essential for modern power engineers. This electrical power system analysis and design course provides insight into how professional power systems work and are trained to secure and enhance the power grid's reliability.
Participants in the electrical power system analysis and design course can merge theoretical knowledge with applied techniques, utilizing the latest in power engineering systems and power systems training to ensure competence in this evolving field.
<h2>Targeted Groups</h2>
<ul>
<li>Engineers and technicians new to the power industry.</li>
<li>Intermediate-level engineers and technicians are working in planning, designing, and operating power systems.</li>
<li>Professionals involved with generating, transmitting, distributing, or utilizing electric power.</li>
<li>Individuals are working on integrating renewable energy resources into the existing power grid.</li>
<li>Practitioners interested in modernizing and optimizing the performance of the power system.</li>
</ul>
<h2>Course Objectives</h2>
At the end of this electric power systems course, participants will be able to:
<ul>
<li>Perform three-phase power system calculations using phasor analysis and the per-unit system</li>
<li>Model key power system components, such as transmission lines, transformers, generators, and loads</li>
<li>Understand power flow analysis and know the basics of operating a power system</li>
<li>Use symmetrical component theory and sequence networks to analyze and short-circuit faults.</li>
<li>Understand the equal-area criterion for transient stability.</li>
</ul>
<h2>Targeted Competencies</h2>
In this electrical power system analysis and design course, the target competencies will be able to:
<ul>
<li>Phasors, per-unit, and three-phase power concepts.</li>
<li>Modeling information for transmission lines, transformers, generators, and loads.</li>
<li>Power flow analysis and system operation.</li>
<li>Short circuit analysis, including symmetrical components.</li>
<li>Transient stability analysis.</li>
</ul>
<h2>Course Content</h2>
<h3>Unit 1: Math Review and System Modeling</h3>
<ul>
<li>Time domain and phasor domain.</li>
<li>Phasor math.</li>
<li>Per-unit calculations.</li>
<li>Basic three-phase power calculations.</li>
<li>Transmission line parameter computation.</li>
<li>Modeling transformers, generators, and loads.</li>
</ul>
<h3>Unit 2: Power Flow Analysis</h3>
<ul>
<li>Components of AC power.</li>
<li>Building the Ybus and Zbus matrices.</li>
<li>Power flow equations.</li>
<li>Solution methods.</li>
<li>Software simulations.</li>
<li>Interpreting power flow results.</li>
</ul>
<h3>Unit 3: Generation Control, Economic Dispatch, and Unbalanced System Analysis</h3>
<ul>
<li>Load, generation, and Area Control Error (ACE).</li>
<li>Frequency bias.</li>
<li>Economic dispatch of generation.</li>
<li>Network behavior and contingencies.</li>
<li>Analyzing unbalanced power systems.</li>
<li>Symmetrical component theory.</li>
</ul>
<h3>Unit 4: Symmetrical Components and Sequence Networks</h3>
<ul>
<li>Development of symmetrical components.</li>
<li>Sequence current behavior.</li>
<li>Detailed delta-wye transformer analysis.</li>
<li>Modeling sequence impedances.</li>
<li>Construction of sequence networks.</li>
<li>Analyzing harmonics as sequence currents.</li>
</ul>
<h3>Unit 5: Short Circuit Calculations and Transient Stability</h3>
<ul>
<li>Modeling faults with sequence networks.</li>
<li>Short circuit current calculations.</li>
<li>Open circuit current calculations.</li>
<li>Fault current versus incident energy - arc flash hazard.</li>
<li>Power system dynamics.</li>
<li>The equal-area criterion for transient stability.</li>
</ul>">

Kuala Lumpur (Malaysia)

09 - 13 Feb 2025

4900 Euro

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Renewable Energy Integration Challenges and Solutions Training Course - (L 7048)

Introduction</h2>
This renewable energy integration challenges and solutions course focuses on incorporating renewable energy power systems, such as distributed generation, energy storage, thermally activated technologies, and demand response, into the electric distribution and transmission system.
Through solar power and wind turbines, this renewable energy integration course conducts integration development and demonstrations to address technical, economic, regulatory, and institutional barriers to utilizing renewable energy in power systems.
The renewable energy integration course addresses operational issues. It establishes viable business models for including these technologies in capacity planning, grid operations, and demand-side management. Electric utilities, challenged with meeting Renewable Portfolio Standards, seek methods to effectively integrate power from wind, solar, geothermal, and biomass sources into the grid - an endeavor that presents various challenges.
<h2>Electrical Engineering - Power and Renewable Energy</h2>
This renewable energy integration course will explore the specific challenges and solutions related to electrical engineering power and renewable energy. Participants will learn about the intricacies of designing, operating, and managing renewable energy power systems, ensuring they align with established electrical engineering principles. Emphasis will be placed on understanding the complex interplay between renewable energy sources, such as solar and wind, and the traditional power grid, moving towards sustainable and resilient energy infrastructures.
<h2>Targeted Groups</h2>
<ul>
<li>Electrical engineers</li>
<li>Electrical supervisors</li>
<li>Power engineers</li>
<li>Managers in charge of electrical installations</li>
<li>Project engineers</li>
</ul>
<h2>Course Objectives</h2>
At the end of this renewable energy integration course, participants will be able to:
<ul>
<li>Understand the grid flexibility to renewable energy integration.</li>
<li>Determine the various types of renewable energy.</li>
<li>Explain the different types of solar panels.</li>
<li>Analyze the common types of wind farms.</li>
<li>Understand the various types of energy storage systems.</li>
<li>Reduce carbon emissions and emissions of other air pollutants through increased use of renewable energy power stations and other clean distributed generation.</li>
<li>Increase asset use by integrating distributed systems and customer loads to reduce peak load and thus lower electricity costs.</li>
</ul>
<h2>Targeted Competencies</h2>
In this renewable energy integration course, the target competencies will be able to:
<ul>
<li>Support the achievement of renewable portfolio standards for renewable energy and energy efficiency.</li>
<li>Enhance the reliability, security, and resiliency of microgrid applications in critical infrastructure protection and highly constrained areas of the electric grid.</li>
<li>Learn about oil reduction by enabling plug-in electric vehicle (PHEV) operations with the grid.</li>
<li>Understand the emphasis on wind power, solar power, and energy storage systems.</li>
</ul>
<h2>Course Content</h2>
<h3>Unit 1: Renewable Energy Generation - The Present, The Future, and The Integration Challenges</h3>
<ul>
<li>Drivers of renewable energy development.</li>
<li>State-of-the-art integrating capacities renewable energy power stations.</li>
<li>Learn about transmission and operation technologies and practices.</li>
<li>Wind power generation.</li>
<li>Photovoltaic power generation.</li>
<li>Understand concentrated solar power generation.</li>
</ul>
<h3>Unit 2: Technical Solutions for Integrating Large-Capacity Renewable Energy</h3>
<ul>
<li>Wind turbines.</li>
<li>Grid-friendly renewable energy power systems.</li>
<li>Improved flexibility in conventional generation.</li>
<li>Transmission expansion developments.</li>
<li>Promise large-capacity electrical energy storage technologies.</li>
<li>What are the Roles of electrical energy storage in renewable energy integration?</li>
<li>Understand the standards for large-capacity electrical energy storage in renewable energy systems.</li>
</ul>
<h3>Unit 3: Grid Flexibility - The Key to Renewable Energy Integration</h3>
<ul>
<li>Learn about the effects of wind and solar power on energy demand.</li>
<li>Power plant flexibility.</li>
<li>Forecasting and demand response.</li>
<li>Wind and solar power variabilities.</li>
<li>Variable renewable energy poses challenges to the grid.</li>
<li>Impact of fossil-fueled generators.</li>
</ul>
<h3>Unit 4: Integrating Renewable Energy into the Transmission and Distribution Systems</h3>
<ul>
<li>Approach to the analysis of integrating renewable energy into power systems.</li>
<li>Learn about the integration of distributed and renewable energy power generation.</li>
<li>Power quality impacts.</li>
<li>Electrical transmission and distribution systems.</li>
<li>Understand photovoltaic optimization and sensitivity analysis.</li>
<li>Understand wind optimization and sensitivity analysis.</li>
</ul>
<h3>Unit 5: Renewable Energy Integration in Smart Grids and Micro Grids</h3>
<ul>
<li>Smart grid attributes.</li>
<li>Understand the merits of smart grids for renewable energy and power.</li>
<li>Operation of microgrids.</li>
<li>Merits of microgrids.</li>
<li>Future of intelligent microgrids as it relates to powering up renewable energy.</li>
</ul>">

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Impact of Renewable Energy Sources Course - (L 9069)

Introduction:</h2>
The increase in the development of renewable energy sources is pivotal to our modern power generation systems. It brings economic benefits and is aligned with stringent environmental constraints. The global investment surge in renewable energy indicates an expectation for higher renewable energy penetration.
Nevertheless, this shift may challenge the secure operations of power systems and the reliability of electric energy delivery to consumers due to the inherent weather-related variability of renewable energy power sources.
This renewable energy sources course aims to elucidate the computational methodologies vital for assessing the reliability and operational performance of power generation systems heavily reliant on renewable energy.
<h2>Targeted Groups:</h2>
<ul>
<li>Professionals from electric power utilities, including system operators (ISOs, RTOs, TSOs).</li>
<li>Regulation authority professionals.</li>
<li>Company professionals are involved in projects related to renewable energy sources.</li>
<li>Power system consultants.</li>
</ul>
<h2>Course Objectives:</h2>
By the end of this renewable energy sources course, participants will:
<ul>
<li>Identify critical aspects of renewable energy plants requiring probabilistic modeling and evaluation.</li>
<li>Comprehend computational methods for reliability and performance modeling of power systems with renewable energy.</li>
<li>Understand essential indices for quantifying power system operational performance.</li>
<li>Conduct practical assessment studies.</li>
<li>Evaluate and propose schemes for enhancing power generation systems with renewable energy.</li>
</ul>
<h2>Targeted Competencies:</h2>
By the end of this renewable energy sources course, the target competencies will:
<ul>
<li>Advanced knowledge of computational analysis methods.</li>
<li>Application of efficient computational methods for reliability issues.</li>
<li>Identification of sets of reliability and operational indices for calculations.</li>
<li>Presentation of practical power systems through application examples and case studies.</li>
<li>Significant insights into planning and operation procedures of power generation systems with heightened renewable energy source penetration.</li>
</ul>
<h2>Renewable Energy and Sustainable Development:</h2>
The importance of renewable energy sources in the quest for sustainable development cannot be overstated. At this juncture, the course on renewable energy sources will address the broader implications of renewable energy sources and their definition not only in the context of energy security and environmental sustainability but also in fostering economic growth.
Participants in this renewable energy sources course will explore how the advantages of renewable energy sources, such as reduced emissions and energy diversification, contribute to a more resilient and sustainable energy future.
<h2>Course Content:</h2>
<h3>Unit 1: General Aspects:</h3>
<ul>
<li>Fundamentals of probabilistic modeling and reliability evaluation techniques.</li>
<li>Planning challenges for low-emission power systems and renewable energy power sources.</li>
<li>Characteristics of traditional power plants.</li>
<li>Main features of renewable energy installations.</li>
<li>Ancillary services and the role of storage in enhancing the benefits of renewable energy sources.</li>
<li>Simulation methods for modeling operational performance of renewable energy integrations.</li>
</ul>
<h3>Unit 2: Conventional Power Plants:</h3>
<ul>
<li>Modeling the generation characteristics of thermal power plants.</li>
<li>Modeling the generation characteristics of cogeneration plants (large, small).</li>
<li>Modeling the generation characteristics of hydroelectric power plants (large, small) with and without pumping facilities.</li>
<li>Reserve requirements.</li>
<li>The integration of demand response programs.</li>
<li>Operational reliability criteria for conventional power generation.</li>
</ul>
<h3>Unit 3: Integration of Wind Generation Installations:</h3>
<ul>
<li>The main modeling aspects concern stochastic generation variability.</li>
<li>Equivalent daily curves predict wind generation.</li>
<li>Correlation of wind generation with system load demand requirements.</li>
<li>Reduction events of wind generation.</li>
<li>Indices for wind capacity credit.</li>
<li>Operational integration costs for wind generation.</li>
<li>High penetration levels and wind parks in future power systems.</li>
</ul>
<h3>Unit 4: Integration of Other Renewable Energy Installations:</h3>
<ul>
<li>Similar stochastic modeling for various types of renewable energy sources such as solar.</li>
<li>Equivalent daily curves predict solar generation.</li>
<li>Correlation of generation with system load demand requirements</li>
<li>Operational integration costs for solar generation.</li>
<li>Reliability assessment of photovoltaic plants and their interconnection links.</li>
<li>Biomass installations.</li>
<li>Benefits of renewable energy sources like battery storage facilities.</li>
</ul>
<h3>Unit 5: Operational Assessment of Power Generation Systems:</h3>
<ul>
<li>Simulation of power system operation.</li>
<li>Reliability criteria and characteristics of system generation.</li>
<li>Calculation of performance indices.</li>
<li>Spinning reserve criteria and demand response programs.</li>
<li>Interconnected power systems.</li>
<li>Isolated power systems.</li>
</ul>
<h2>Conclusion:</h2>
In this training on the impact of renewable energy sources and benefits, participants will understand solar power and its prominent potential and scalability.
This renewable energy sources course will explore solar power's role in the current energy landscape, highlighting how it is a clean and increasingly cost-competitive option.">

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Fundamentals of Renewable Energy Course - (L 9070)

Introduction:</h2>
Renewable energy technologies are clean sources of energy with a much lower environmental impact than conventional energy technologies. Electricity generation is the leading cause of industrial air pollution worldwide. Most of our electricity comes from coal, nuclear, and other non-renewable power plants. Producing energy from these resources severely pollutes our environment, polluting our air, land, and water.
This renewable energy course will help you align with the world's concerns about climate change and reduce your carbon footprint. The fundamentals of renewable energy training will explore the various new technologies, construction, merits, and demerits of each type of renewable energy generation.
This renewable energy solutions training course will also consider methods of integrating renewable energy with the present grid system. State-of-the-art distributed energy and storage systems will be emphasized to meet the ever-growing demand for electricity.
<h2>Targeted Groups:</h2>
<ul>
<li>Electrical Engineers.</li>
<li>Maintenance Technicians.</li>
<li>Management Professionals.</li>
<li>Project Engineers.</li>
<li>Transmission Engineers.</li>
<li>Power Generation Engineers.</li>
</ul>
<h2>Course Objectives:</h2>
At the end of this certificate course in renewable energy, the participants will be able to:
<ul>
<li>Understand the fundamentals of conventional power generation, transmission, and distribution systems.</li>
<li>Understand the importance and roles of renewable energy in this modern age.</li>
<li>Understand how to maximize natural resources and convert them into renewable energy solutions.</li>
<li>Understand the components architecture between the solar and wind power generations.</li>
<li>Create awareness of the types of renewed energy.</li>
<li>Appreciate the benefits of harvesting renewable energy.</li>
<li>Understand the characteristics and operations of each type of renewable energy.</li>
<li>Explore the suitability of introducing renewable energy generation to your premises.</li>
</ul>
<h2>Targeted Competencies:</h2>
At the end of this, the fundamentals of renewable energy course, the target competencies will be able to:
<ul>
<li>Understanding the difference between renewable and non-renewable energies.</li>
<li>Understanding the types of renewable energy.</li>
<li>The benefits of harvesting renewable energy.</li>
<li>The characteristics and operations of each type of renewable energy.</li>
<li>Understanding the importance of renewable energy generation.</li>
</ul>
<h2>Course Content:</h2>
<h3>Unit 1: Renewable Energy and the World Today:</h3>
<ul>
<li>Fundamentals of Electricity Generation and Transmission.</li>
<li>Conventional Methods of Power Generation.</li>
<li>Overhead and Underground Power Transmission.</li>
<li>The AC power Distribution System.</li>
<li>The Smart Grid.</li>
<li>The Micro Grid.</li>
</ul>
<h3>Unit 2: Types and Characteristics of Renewable Energy and Generation of the Solar Energy:</h3>
<ul>
<li>Overview of renewable energy available.</li>
<li>Merits of Solar Power Generation.</li>
<li>Characteristics of a Solar Panel Installation.</li>
<li>Types of Photovoltaic Cells.</li>
<li>The Inverter and Smart Meter.</li>
<li>Operation of the Solar Parks.</li>
</ul>
<h3>Unit 3: The Wind Power, Construction, and Operation of Wind Turbines:</h3>
<ul>
<li>Overview of Wind Power Generation of Electricity.</li>
<li>Construction of the Wind Turbines.</li>
<li>Operations and characteristics of the main components of the Wind Turbine.</li>
<li>Merits of Wind Power.</li>
<li>Rotor Blade Designs.</li>
<li>Onshore and Offshore Wind Farms.</li>
</ul>
<h3>Unit 4: Bioenergy, Tidal, and Hybrid Renewable Energy Systems:</h3>
<ul>
<li>Characteristics of Biomass Power Generation.</li>
<li>Operations and Components of a Biomass Renewable Energy.</li>
<li>Characteristics of a Tidal Wave Energy Generation.</li>
<li>Operations of the Tidal Wave Renewable Energy.</li>
<li>Operations of Hybrid Renewable Energy Systems.</li>
<li>Merits of Hybrid Renewable Energy Systems.</li>
</ul>
<h3>Unit 5: The Distributed Energy Resources (DER) and Storage System:</h3>
<ul>
<li>Importance of Distributed Energy Resources.</li>
<li>Integration of renewable energy to the grid.</li>
<li>Energy Storage Systems.</li>
<li>Larger Capacity Batteries.</li>
<li>Case Studies, Selection, and Design.</li>
</ul>
<h2>Conclusion:</h2>
In pursuit of a renewable energy certificate, participants will engage in renewable energy skills training, blending theoretical knowledge with practical experience. This fundamentals of renewable energy course aims to enhance participants' capabilities to implement renewable energy solutions effectively within their respective fields.
Upon completion of the fundamentals of renewable energy training, attendees will have the opportunity to obtain a renewable energy certificate, which will evidence their proficiency and dedication to fostering sustainable energy practices.">

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5-Day Mini Master in Power, Electricity, and Industry Infrastructure Course - (L 9071)

Introduction:</h2>
This electrical power and industrial infrastructure training course encompasses the three major aspects of all electrical installation networks worldwide.
The electrical power and industrial infrastructure course provides participants with a clear and comprehensive understanding of the principles, characteristics, construction, and selection of power transmission, electricity distribution, and cutting-edge digital industry infrastructure.
As the thermal energy mode of electric power generation is increasingly being supplanted by green and clean energy, predominantly from solar and wind sources, the industry is witnessing a dynamic shift in power transmission methods.
The smart grid and microgrid technologies represent the latest trends in electricity distribution networks. These grids increasingly utilize intelligent sensors imbued with artificial intelligence capabilities to manage electricity distribution efficiently.
Substantial progress has been made in industry infrastructure, as electrical equipment is designed to minimize carbon footprints and significantly reduce global warming potential. With the proliferation of digital substations as core infrastructure components, there is a heavy reliance on Internet of Things (IoT) technologies.
This electrical power and industrial infrastructure course participants will also understand the rapid emergence of smart digital transformers and the adoption of environmentally friendly ester oil as a substitute for mineral oil in transformers to enhance safety.
<h2>Targeted Groups:</h2>
<ul>
<li>Electrical Power Engineers.</li>
<li>Maintenance Technicians.</li>
<li>Electrical Supervisors.</li>
<li>Engineering Professionals.</li>
<li>Managers of the electrical engineering department.</li>
</ul>
<h2>Course Objectives:</h2>
By the end of this electrical power and industrial infrastructure course, participants will be able to:
<ul>
<li>Differentiate between the various types of power generation, including renewable sources.</li>
<li>Understand the significance of power components: active, reactive, and apparent power.</li>
<li>Appreciate the advantages of renewable energy.</li>
<li>Describe the components of smart grids and microgrids.</li>
<li>Acknowledge the value of digital industry infrastructure.</li>
</ul>
<h2>Targeted Competencies:</h2>
By the end of this electrical power and industrial infrastructure course, participants will be able to:
<ul>
<li>Comparison of Thermal Power Generation vs. Clean and Green Power Generation.</li>
<li>Design and characteristics of solar and wind power generation.</li>
<li>Features and benefits of smart grids and microgrids.</li>
<li>Energy storage options and integrating renewable energy sources.</li>
<li>Understanding digital substations and their components.</li>
<li>Knowledge of digital industry equipment used in infrastructure.</li>
</ul>
<h2>Course Content:</h2>
<h3>Unit 1: Overview of Conventional Power Generation and Renewables:</h3>
<ul>
<li>Fundamentals of Thermal Power Generation.</li>
<li>Characteristics of Nuclear Power Generation.</li>
<li>Transition to Renewable Energy Generation.</li>
<li>Solar Power Characteristics and Photovoltaic Cells.</li>
<li>Components and Operations of Wind Turbine Power Generation.</li>
<li>Geothermal and Hydroelectric Power Generation.</li>
</ul>
<h3>Unit 2: Flexible AC Transmission Systems and the Significance of Power Components:</h3>
<ul>
<li>Understanding the Generator Capability Curve.</li>
<li>The Impact of Power Factor and the Importance of Reactive Power.</li>
<li>Advantages of Flexible AC Transmission Systems (FACTS).</li>
<li>Instrument Transformers for Accurate Power Measurement.</li>
<li>Common Power Quality Problems and Solutions.</li>
<li>The Issue of Triple Harmonics and Mitigation Techniques.</li>
</ul>
<h3>Unit 3: Smart Grid Transitions and Distributed Energy Resources:</h3>
<ul>
<li>Characteristics and Design of Smart Grids.</li>
<li>Optimization Strategies for Smart Grids.</li>
<li>The Convergence of Smart Grids and Artificial Intelligence (AI).</li>
<li>Function and Advantages of Microgrids.</li>
<li>Renewable Energy Integration Techniques.</li>
<li>Solutions for Energy Storage in Renewable Systems.</li>
</ul>
<h3>Unit 4: Advancements in Smart Transformer Construction and Characteristics, Digital Substation:</h3>
<ul>
<li>Key Features of Smart Transformers.</li>
<li>Implementation of Smart Transformers in Distribution Systems.</li>
<li>Benefits and Features of Digital Transformers.</li>
<li>The Integral Role of Digital Transformers in Power Grids.</li>
<li>Modern Digital Substation Architectures.</li>
<li>Integrating Digital Substations with Renewable Energy Systems.</li>
</ul>
<h3>Unit 5: Mitigating Global Warming Potential Through Carbon Footprint Reduction in Infrastructure Equipment:</h3>
<ul>
<li>Specifications, Characteristics, and Performance of Natural Esters.</li>
<li>Utilizing Natural Ester-based Oils in Power Transformers.</li>
<li>Alternatives to SF6 in Gas-Insulated Transformers.</li>
<li>Developing Eco-friendly Gas Insulated Substations.</li>
<li>Innovations in New Vacuum Clear Air Switchgears.</li>
</ul>
<h2>Conclusion:</h2>
This intensive 5-day Mini Master in Power, Electricity, and Industry Infrastructure has comprehensively explored electrical power systems and industrial infrastructure development.
Throughout this electrical power and industrial infrastructure course, we've delved into the critical aspects of industrial infrastructure, understanding its meaning and significance within the broader context of the energy infrastructure industry.
This electrical power and industrial infrastructure training has equipped participants with essential knowledge of the electrical power industry, covering topics ranging from the fundamentals of electrical power systems to the complexities of industrial electric power production.
By obtaining an electrical power certificate through this course, attendees are well-prepared to navigate the dynamic landscape of the infrastructure industry and gain insights into the nuances of power and energy in electrical systems.
Furthermore, this electrical power and industrial infrastructure program has facilitated a deeper understanding of the electric power and energy industry, fostering insights crucial for effective industry analysis and strategic decision-making.
As participants conclude this electrical power and industrial infrastructure course, they emerge with enhanced expertise and a robust foundation for meaningfully contributing to the evolving energy, electricity, and power sectors.">

Amsterdam (Netherlands)

Kuala Lumpur (Malaysia)

09 - 13 Feb 2025

4900 Euro

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Energy Audit & Management Training Course - (L 9073)

Introduction:</h2>
This energy audit and management training course explores power quality and its effects on electrical system reliability. First, power quality is precisely defined, which is crucial because establishing baseline conditions and gauging improvements would be easier with a detailed definition.
The energy audit and management course then delves into methods of evaluating reliability. Upon completion, participants will have a comprehensive understanding of how power quality and reliability can be measured, alongside the implications of modifications to the electrical system.
<h2>Energy Management and Energy Audit:</h2>
When discussing energy efficiency, it is essential to understand what an energy audit is and the role of energy management. Energy audits systematically review operations and equipment that consume energy to identify cost-effective savings.
This energy audit and management course addresses the fundamental concepts, procedures, and benefits of energy auditing and management, aiming to provide a robust energy management certificate to those who complete the training successfully.
<h2>Targeted Groups:</h2>
<ul>
<li>Engineers and technicians new to the power industry.</li>
<li>Intermediate-level engineers and technicians aiming to enhance system reliability.</li>
<li>Professionals involved with the assessment of power quality.</li>
<li>Facility engineers and consultants tasked with addressing power quality issues.</li>
<li>Engineers responsible for monitoring system performance and reliability.</li>
</ul>
<h2>Course Objectives:</h2>
After engaging in this energy audit and management training program, participants will be able to:
<ul>
<li>Grasp expected power quality and reliability terminology.</li>
<li>Evaluate the impact of voltage sags on sensitive equipment.</li>
<li>Understand how fault clearing affects voltage stability.</li>
<li>Utilize standardized reliability indices in their assessments.</li>
<li>Identify sources of transient overvoltages and specify arresters appropriately.</li>
<li>Recognize harmonic production causes and apply mitigation strategies.</li>
<li>Analyze AC power components and their correlation with voltage regulation.</li>
</ul>
<h2>Targeted Competencies:</h2>
At the end of this energy audit and management training course, the target competencies will be able to:
<ul>
<li>Power quality and reliability assessments.</li>
<li>Voltage sags and outage management.</li>
<li>Power system fault-clearing effects.</li>
<li>Calculation of reliability indices.</li>
<li>Transient overvoltage strategies, including arresters.</li>
<li>Harmonic understanding and mitigation techniques.</li>
<li>Analysis of AC power and voltage regulation in steady-state conditions.</li>
</ul>
<h2>Course Content:</h2>
<h3>Unit 1: Introduction to Energy Management, Voltage Sags and Interruptions:</h3>
<ul>
<li>Power quality definition and basics.</li>
<li>Quantifying power quality.</li>
<li>ITI curve and its relevance to energy management.</li>
<li>Causes and mitigation methods of voltage sags.</li>
<li>Understanding interruptions and their impact on power systems.</li>
<li>Practical strategies to improve power quality and energy management.</li>
</ul>
<h3>Unit 2: Energy Audit and Transient Voltage Excursions:</h3>
<ul>
<li>Motor starting dynamics</li>
<li>Switching, traveling waves, and their effects on energy auditing</li>
<li>Capacitor switching considerations in energy management</li>
<li>Assessing the impact of lightning on power systems</li>
<li>Best practices in lightning shielding and grounding</li>
<li>Understanding Ferroresonance in the context of energy audits</li>
</ul>
<h3>Unit 3: Reliability Indices, Effects of Fault Clearing on Power Quality:</h3>
<ul>
<li>Exploring IEEE-defined reliability indices.</li>
<li>Interpreting these indices within the context of an energy management audit.</li>
<li>The role of fault clearing in power quality.</li>
<li>Reclosing strategies and their effects on energy management.</li>
<li>Fuse saving philosophy in energy management audits.</li>
<li>Fuse-blowing philosophy.</li>
</ul>
<h3>Unit 4: Energy Management, Insulation Coordination, Arresters, and Steady-State Voltage Regulation:</h3>
<ul>
<li>Basic impulse level and its relevance to energy auditors.</li>
<li>Insulation systems.</li>
<li>Insulation testing methods.</li>
<li>Selecting and applying arresters in energy management.</li>
<li>Understanding load tap changers and voltage regulators.</li>
<li>Analyzing steady-state voltage effects on power system operation.</li>
</ul>
<h3>Unit 5: Harmonics in Energy Auditing:</h3>
<ul>
<li>Understanding the fundamentals of harmonics.</li>
<li>Identifying causes and effects of harmonics within energy audit parameters.</li>
<li>The relationship between AC power and power factor.</li>
<li>Methods to mitigate the effects of harmonics.</li>
<li>K-factor transformers and their application in energy management.</li>
<li>Harmonic filters and their role in energy audits.</li>
</ul>
<h2>Conclusion:</h2>
Participants in this energy audit and management course will be equipped with an extensive understanding of energy management training, energy audit training, certification, and practical applications of these skills.">

Amsterdam (Netherlands)

03 - 07 Feb 2025

5900 Euro

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Reliability & Operational Performance of Electric Power Systems - (L 9074)

Introduction to Electric Power Systems:</h2>
The general trend in modern electric power systems fosters competition for superior performance and efficiency in electricity production, transmission, and distribution. The reliability performance of electric power systems, together with the reliability indices of service supplied to system customers, are critical considerations in the planning and operation of power systems.
There is an increasing need for planning and operating methodologies that must be adhered to by power system operators, energy suppliers, and customers to ensure they can operate with reliability and safety. Probabilistic modeling and evaluation assessments become essential tools as traditional deterministic criteria.
Standards may only effectively capture some electric power systems' complex features and customer interactions. This comprehensive electrical power systems engineering course is designed to deepen understanding and enhance skills among professionals in the intricacies and challenges of electric power systems operation and reliability.
Moreover, the electric power system reliability and performance course will describe the appropriate sets of reliability indices to be calculated and present application examples using practical power systems and case studies, offering critical conclusions on the procedures and practices necessary to plan and operate Power Systems in a competitive market environment.
<h2>Targeted Groups:</h2>
<ul>
<li>Professionals of Electric Power Utilities, System Operators (Independent System Operators – ISOs, Regional Transmission Operators – RTOs, Transmission System Operators - TSOs).</li>
<li>Professionals of Regulation Authorities.</li>
<li>Professionals of Large Industrial and Commercial Companies.</li>
<li>Power System Consultants.</li>
<li>Researchers and Post-Graduate Students of Universities.</li>
</ul>
<h2>Course Objectives:</h2>
By the end of this electrical power system training, participants will be able to:
<ul>
<li>Determine critical areas of power systems that require probabilistic modeling and evaluation assessment.</li>
<li>Understand the main features of computational methods available for reliability modeling.</li>
<li>Recognize essential reliability indices for load point and system performance quantification.</li>
<li>Conduct practical reliability assessment studies.</li>
<li>Compare and justify alternative schemes for power system reinforcement.</li>
</ul>
<h2>Targeted Competencies:</h2>
At the end of this electric power system reliability and performance course, the participant's competencies will:
<ul>
<li>State-of-the-art knowledge of the available computational methods.</li>
<li>Efficient computational methods can be applied to analyze reliability problems (analytical techniques, simulation approaches).</li>
<li>Description of the appropriate sets of reliability indices that need to be calculated.</li>
<li>Presentation of application examples by using practical power systems and case studies.</li>
<li>Important conclusions concerning the necessary procedures and practices for the planning and operation of Power Systems in the competitive market environment.</li>
</ul>
<h2>Course Content:</h2>
<h3>Unit 1: General Aspects of Electric Power Systems:</h3>
<ul>
<li>Introduction to Electrical Power Systems.</li>
<li>Basic principles of probabilistic modeling and reliability evaluation methods.</li>
<li>Challenges and main planning issues for electric power systems.</li>
<li>Analytical computational techniques.</li>
<li>Simulation computational approaches.</li>
<li>Reliability criteria and indices.</li>
<li>Reliability parameters for various power system components.</li>
</ul>
<h3>Unit 2: Transmission System Assessment in Electric Power Systems:</h3>
<ul>
<li>Reliability modeling of power transmission systems.</li>
<li>Analytical computational technique applications.</li>
<li>Criteria for total and partial continuity loss.</li>
<li>Reliability indices of load points and system performance.</li>
<li>Reliability cost assessment methodologies.</li>
<li>Simulation computational approaches in practice.</li>
</ul>
<h3>Unit 3: Generation System Assessment in Electrical Power Systems:</h3>
<ul>
<li>Reliability modeling of power generation systems.</li>
<li>Modeling of different types of generating units and load demand requirements.</li>
<li>Frequency and duration method analysis.</li>
<li>Analytical Computational techniques for generation systems.</li>
<li>Key system reliability indices.</li>
<li>Simulation approach applications for generation systems.</li>
</ul>
<h3>Unit 4: Assessment of Composite Generation and Transmission Systems:</h3>
<ul>
<li>Modeling for composite generation and transmission system reliability.</li>
<li>Analytic computational techniques for composite systems.</li>
<li>Reliability indices of load points and composite system performance.</li>
<li>Assessing reliability costs.</li>
<li>Utilizing simulation computational approaches in composite systems.</li>
</ul>
<h3>Unit 5: Distribution System Assessment in Electric Power Systems:</h3>
<ul>
<li>Modeling for distribution system reliability.</li>
<li>Analytical computational techniques for distribution systems.</li>
<li>Reliability indices for load points and customers.</li>
<li>Distribution system performance indices.</li>
<li>Cost of reliability assessment strategies.</li>
<li>Application of simulation computational approaches in distribution systems.</li>
</ul>
<h2>Conclusion:</h2>
This electric power systems reliability and performance course encompasses vital knowledge and skills to tackle the complexities of modern power system operation and enhance system reliability.
Participants in this electric power system reliability and performance training will leave with the qualifications necessary to guide industry practice and influence the future of electric power systems.">

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Cooling Towers: Operation, Maintenance, and Troubleshooting Course - (L 9079)

Introduction:</h2>
Cooling Towers play a pivotal role in maintaining the efficiency of water-cooling systems in various industries, including power generation, processing, and petrochemical sectors. Understanding the operational dynamics of cooling towers is critical for optimizing water and energy consumption and extending the lifespans of associated equipment such as fans and pumps.
This cooling tower maintenance and troubleshooting course delves into cooling tower operation, water management, and control. Participants will gain insights into methods for enhancing cooling tower performance, encompassing the correct application of preventive and corrective maintenance strategies.
Through a blend of theoretical knowledge and practical case studies, the Cooling tower maintenance and troubleshooting course offers a comprehensive understanding of troubleshooting and maintenance techniques, ensuring the reliability and safety of cooling tower operations.
<h2>Importance of Troubleshooting and Maintenance in Cooling Towers:</h2>
Cooling tower maintenance and troubleshooting are crucial components of industrial cooling tower maintenance. Understanding and applying these processes can prevent unscheduled downtimes, extend equipment lifespan, and ensure system reliability.
This cooling tower maintenance and troubleshooting course provides essential knowledge and skills for identifying and resolving common issues, which is imperative for anyone involved in the operational aspects of industrial cooling towers. Emphasis is placed on proactive measures and effective troubleshooting techniques to secure uninterrupted operation and optimal performance.
<h2>Targeted Groups:</h2>
<ul>
<li>Engineers and Technicians in Process Plants.</li>
<li>Cooling Tower Operators and Supervisors.</li>
<li>Technical Personnel in Charge of Maintenance and Repair.</li>
<li>Technicians and Operators dealing with HVAC Installations.</li>
</ul>
<h2>Course Objectives:</h2>
At the end of this cooling tower maintenance and troubleshooting course, the participants will be able to:
<ul>
<li>Analyze the role of cooling towers in a plant's water-cooling system.</li>
<li>Understand the operation and efficiency of various cooling tower configurations.</li>
<li>Explore safety elements of chemical and physical water treatment.</li>
<li>Learn about cooling tower performance monitoring and record-keeping.</li>
<li>Identify essential inspection procedures for cooling towers.</li>
<li>Master best practices for preventive maintenance of cooling towers.</li>
</ul>
<h2>Targeted Competencies:</h2>
At the end of this cooling tower maintenance and troubleshooting training, the participant's competencies will be able to:
<ul>
<li>Comprehensive understanding of cooling tower technologies.</li>
<li>Effective methods for water treatment.</li>
<li>Awareness of chemical reactions within cooling towers.</li>
<li>Proficiency in cooling tower operation and maintenance.</li>
<li>Complete understanding of water treatment impact on performance.</li>
<li>Ability to conduct adequate inspections and preventive maintenance.</li>
<li>Skills in applying RBI and FMEA for state-of-the-art cooling tower management.</li>
</ul>
<h2>Course Content:</h2>
<h3>Unit 1: Overview of Cooling Towers and Applications:</h3>
<ul>
<li>Cooling Towers Types and System Configurations.</li>
<li>Main Construction Elements of Cooling Towers.</li>
<li>Importance of Cooling Tower Water Treatment.</li>
<li>Why treat the water?</li>
<li>Cyclic Process in Cooling Towers Explained.</li>
<li>Associated Equipment: Air Fans and Circulating Water Pumps.</li>
<li>Installation Considerations: Addressing Recirculation and Environmental Issues.</li>
<li>Cooling Tower Accessories and Enhancements: Filters and Vortex Breakers.</li>
</ul>
<h3>Unit 2: Operation and Efficiency of Cooling Towers:</h3>
<ul>
<li>Cooling Load Profile: Understanding Temperature Range, Approach, and Drift Loss.</li>
<li>Defining Efficiency in Cooling Tower Operations.</li>
<li>Regular vs. Intermittent Operation: Strategic Year-Round Planning.</li>
<li>Modern Controls and Techniques in Cooling Towers Explained.</li>
<li>PLC and DCS: Advanced Control Systems for Cooling Towers.</li>
<li>Water Quality Requirements and Measurement Techniques.</li>
<li>Cooling Tower Start-Up & Shut Down Procedures for Maintaining Efficiency.</li>
<li>Strategies to Improve Cooling Tower Performance and Efficiency.</li>
</ul>
<h3>Unit 3: Cooling Towers Operation and Water Management:</h3>
<ul>
<li>Cooling Water Quality Management: Treatment and Constant Monitoring.</li>
<li>Water Treatment System Controls: Optimizing Chemical Dosing.</li>
<li>Maintaining Water Quality through Effective Bleed-Off Control.</li>
<li>Secondary Efficiency Measures for Cooling Towers.</li>
<li>Concentration Ratio Measurement and Its Importance.</li>
<li>Enhancing the Lifespan through Cathodic Protection Techniques.</li>
<li>Modern Coating Techniques for Cooling Towers.</li>
</ul>
<h3>Unit 4: Water Treatment and Control in Cooling Towers:</h3>
<ul>
<li>Understanding Corrosion: Causes, Problems, and Prevention.</li>
<li>Chemical Water Treatment: Employing Inhibitors and DCC Control.</li>
<li>Identifying Basic Motor Types in Cooling Towers and Their Operation.</li>
<li>Ensuring Proper Connection for Electrical and Instrumentation Accessories.</li>
<li>The Role of Grounding in Cooling Towers and Its Implementation.</li>
<li>Filtration Systems: Physical Water Treatment Methods and Their Efficiency.</li>
</ul>
<h3>Unit 5: Cooling Towers Maintenance, Repairs, and Troubleshooting:</h3>
<ul>
<li>Maintenance and Repair: Implementing Routine and Preventive Best Practices.</li>
<li>Inspection Checklist for Mechanical Equipment: Ensuring Reliability of Fans and Pumps.</li>
<li>Utilizing Modern Techniques such as FMEA, DFMEA, and PFMEA to Prolong Equipment Life.</li>
<li>Adherence to Safe Operation as Prescribed by Manufacturers.</li>
<li>Conducting Essential Tests for Al Auxiliary Systems within Cooling Towers.</li>
<li>Risk Management in Cooling Tower Systems: A Proactive Approach.</li>
<li>Occupational Health and Safety: Ensuring Compliance and Best Practices.</li>
</ul>">

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Centrifugal Compressor & Steam Turbine Course - (L 9083)

Introduction:</h2>
A complete understanding of the design, functioning, and maintenance of centrifugal compressors and steam turbines is a prerequisite for the successful operation of process plants. This is especially important nowadays when the demand for minimum and continuous production is vital for organizations' competitiveness.
This centrifugal compressor and steam turbine course will feature the importance of proper design, operation, and maintenance of various designs and applications of centrifugal compressors and steam turbines, which are encountered throughout chemical and process industries, including oil refineries, gas production facilities, power generation, and other engineering fields.
This centrifugal compressor and steam turbine course will familiarize engineers, technicians, and operators with the guidelines and best practices for utilizing this equipment, including design, operation, maintenance, and repair. The emphasis of the training seminar will be on a physical understanding of the problems in operation and the best way of troubleshooting them.
<h2>Targeted Groups:</h2>
<ul>
<li>Chemical, Process, and Mechanical Engineers.</li>
<li>Product Engineers and Technologists.</li>
<li>The operation, Technical Service, and Maintenance Professionals.</li>
<li>Engineers, Consultants, and Sales Professionals.</li>
<li>Technical Professionals are responsible for interdisciplinary energy projects.</li>
</ul>
<h2>Course Objectives:</h2>
At the end of this centrifugal compressor and steam turbine course, the participants will be able to:
<ul>
<li>Understand the technical features of centrifugal compressors and steam turbines.</li>
<li>Select the optimal type and size of equipment for a given industrial application.</li>
<li>Use methods of estimating the degree of deterioration and inefficiency of equipment.</li>
<li>Apply best practices and techniques for pinpointing the root cause of problems.</li>
<li>Choose the most efficient remedies and troubleshooting techniques in operation.</li>
</ul>
<h2>Targeted Competencies:</h2>
At the end of this centrifugal compressor and steam turbine course, the target competencies will be able to:
<ul>
<li>Principles of selecting suitable centrifugal compressors and steam turbines for the given application.</li>
<li>Practical issues related to the trouble-free functioning of centrifugal compressors and steam turbines.</li>
<li>Explanation of aerodynamic instabilities of centrifugal compressors and thermal instabilities of steam turbines.</li>
<li>Guidelines for the design, operation, maintenance, and troubleshooting.</li>
<li>Maintenance and repair economic issues: cost and benefit analysis.</li>
</ul>
<h2>Advanced Training in Gas & Steam Turbines and Centrifugal Compressors:</h2>
This centrifugal compressor and steam turbine course offers advanced training for professionals eager to expand their expertise in gas and steam turbines and centrifugal compressor turbines.
The centrifugal compressor and steam turbine program includes modules that define the centrifugal compressor and its critical role in conjunction with steam turbines, particularly within the power generation sector.
This centrifugal compressor and steam turbine training honed skills in centrifugal compressor operation, maintenance, and troubleshooting, ensuring that participants are well-versed in the optimal approach to extending the life cycle of these vital industrial components.
<h2>Course Content:</h2>
<h3>Unit 1: Gas Thermodynamics:</h3>
<ul>
<li>Gas Properties and Laws.</li>
<li>Centrifugal Compressor Aerodynamics - Thermodynamics.</li>
<li>Changes in Gas Velocity and Pressure in a Centrifugal Compressor.</li>
<li>Mass and Volume Flow Rate as a Pressure, Temperature, and Gas Composition Function.</li>
<li>Molecular Weight of Gas and its Effect on Performance.</li>
<li>Discharge Temperature, Power Absorbed as a Function of the Gas Composition, and the Operating Conditions.</li>
<li>Investigating and Controlling Surge and Choke.</li>
</ul>
<h3>Unit 2: Centrifugal Compressors - Design and Operation:</h3>
<ul>
<li>Overview of the Main Features of Various Types of Compressors.</li>
<li>Classification of Compressors based on Design and Application.</li>
<li>World Standards and Codes Related to Compressor Design.</li>
<li>Main Elements of Centrifugal Compressor Construction.</li>
<li>Analysis of Centrifugal Compressor Efficiency.</li>
<li>Guidelines for Trouble-free Centrifugal Compressor Operation.</li>
</ul>
<h3>Unit 3: Steam Thermodynamics:</h3>
<ul>
<li>Steam Properties and the Mollier Charts.</li>
<li>The Rankine Cycle.</li>
<li>Steam Requirement per KWH Production.</li>
<li>Ultra-supercritical Conditions.</li>
</ul>
<h3>Unit 4: Steam Turbines - Design and Operation:</h3>
<ul>
<li>Main Elements and Technical Characteristics of Steam Turbine Design.</li>
<li>The Rotating and Stationary Blades.</li>
<li>The Internal and External Seals.</li>
<li>Radial and Thrust Journal Bearings.</li>
<li>Stop–Control – Non-Return Turbine Valves.</li>
<li>Turbine Controls and Interlocks.</li>
</ul>
<h3>Unit 5: Maintenance of Rotating Machines:</h3>
<ul>
<li>Machines Piping and Ground Regulations.</li>
<li>Alignment of Thermal Machines.</li>
<li>Balancing of Rotating Machines.</li>
<li>Surface Treatments of Sealing Interfaces.</li>
<li>Online Washing.</li>
<li>Troubleshooting through Vibration Analysis, Oil Analysis, and Thermography.</li>
</ul>
<h2>Conclusion:</h2>
Participants can earn a certification in the operation and maintenance of centrifugal compressors and steam turbines. This steam turbine training course delves deeper into the intricacies of these machines, covering advanced aspects such as centrifugal compressor performance, analysis, and calculations.
Through hands-on experience and theoretical knowledge, technicians and engineers will learn to define centrifugal compressor parameters and understand the benefits of electric centrifugal compressors in practical applications.">

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Modern Electrical Power Systems Training Course - (L 9087)

Introduction:</h2>
Modern electrical power systems increase the efficiency of power generation, transmission, and distribution and help to lower the carbon footprint for a greener world. This modern electrical power systems engineering course includes the green generation of electricity using renewable energy sources.
This seminar also discusses the introduction and merits of Smart and Micro Grids. The modern electrical power systems engineering course emphasizes determining and controlling fault levels, active and reactive power, voltage, and frequency, which are essential in a modern electrical power system. Additionally, modern mitigation techniques address power quality issues.
Participants in this modern electrical power systems engineering course will learn how power system stability is ensured, incorporating the Flexible AC Transmission System (FACTS). This technology has evolved and matured with high power ratings.
These systems supply the network as quickly as possible with inductive or capacitive reactive power tailored to its particular requirements. This modern electrical power systems engineering training, in turn, improves the transmission quality and efficiency of the power transmission system.
<h2>Targeted Groups:</h2>
<ul>
<li>Designers.</li>
<li>Engineers.</li>
<li>Technicians.</li>
<li>Professionals are involved with the planning, operating, and maintaining power systems and electrical engineering for small to large-scale power networks, from around 11kV upwards.</li>
<li>Professionals from the Distribution Companies.</li>
<li>Power Utilities and Engineering Professionals in the Electricity Supply Industry and Petrochemical Companies who deal with aspects of generation, transmission, and distribution.</li>
</ul>
<h2>Course Objectives:</h2>
By the end of this electrical power systems training course, participants will be able to:
<ul>
<li>Understand alternative forms of generation and embedded generation.</li>
<li>Optimize power flow for absolute power and use FACTS devices to improve system operation, including the DSM approach.</li>
<li>Learn about new CT and VT optical transducers and protection systems using microprocessor relays.</li>
<li>Address nonlinear loads and inject Harmonics at the PCC (point of standard coupling).</li>
<li>Engage in diagnostic monitoring of the plant, particularly GIS substations.</li>
<li>Explore high-speed fault limiters and thermal monitoring systems for cables.</li>
</ul>
<h2>Targeted Competencies:</h2>
Participants in this electrical power systems training course will gain competencies in:
<ul>
<li>Understand the various types of renewable energy generation, transmission, and distribution.</li>
<li>Know the significance and merits of intelligent grids.</li>
<li>The importance of reactive power.</li>
<li>Learn about power quality issues and mitigation methods.</li>
<li>The flexible AC transmission system merits.</li>
</ul>
<h2>Electrical Power System Protection Training:</h2>
This modern electrical power systems engineering course, dedicated to electrical power system protection training, will significantly benefit participants who require a deeper understanding of protection systems.
This modern electrical power systems engineering course provides insights into the design and operation of protective devices and systems, helping the participants earn an electrical power system protection certificate upon completing this module.
Furthermore, this modern electrical power systems engineering training will delve into the latest methodologies and technologies in fault detection, isolation, and system restoration, essential components of a robust and reliable modern electric power system.
<h2>Course Content:</h2>
<h3>Unit 1: Introduction to Modern Electric Power Systems:</h3>
<ul>
<li>Overview of Typical and Modern Systems covering Generation, Transmission and Distribution, and the SMART Grid.</li>
<li>Determination of Flow of Real (P) and Reactive Power (Q).</li>
<li>Characteristics and Impact of System and Transformer Fault Levels.</li>
<li>Control of Reactive Power and Voltage.</li>
<li>Control of Active Power and System Frequency.</li>
<li>Effects of Reactive Power Compensation on Voltage Profile.</li>
<li>Overview of Power System Disturbances.</li>
</ul>
<h3>Unit 2: Current Operational Problems and System Operations:</h3>
<ul>
<li>Coping with Rising Demand for Power, Carbon Footprint Reduction, and Global Warming.</li>
<li>Symmetrical, Asymmetrical Faults and Effects on Positive, Negative, and Zero Sequence Components.</li>
<li>Monitoring of Plant Condition – for instance, temperature.</li>
<li>Power System and Substation Automation.</li>
<li>Increasing Problems of Heavily Loaded Systems - Stability, Voltage Dip.</li>
<li>Transmission Voltage Levels - Line and Cable Design, Power Loading, and De-rating for Temperature Effects.</li>
<li>Learn significant causes of power system failures.</li>
</ul>
<h3>Unit 3: Emerging Technologies in Electrical Power System Analysis and Green Renewable Energy:</h3>
<ul>
<li>Renewable Energy and the Environment - Solar Power, Geothermal Power, Wind Power, Environmental Friendly Storage Batteries.</li>
<li>Green Generation? Is it possible on a large scale, or are there stability problems?</li>
<li>Demand Side Management - Remote Load Control - Minimizing Demand - Optimizing Transmission – Coping with Dips and Swells.</li>
<li>Optical Current Transducers for Protection - Optical Current Sensors Eliminate CT Saturation.</li>
<li>High Voltage Applications - Surge Protection, Fault Current Limiters, Network Switching.</li>
<li>Nonlinear Loads - Harmonics at PCC - Filtering - G5/4 Requirements.</li>
<li>Triple Harmonics and Mitigation Techniques.</li>
</ul>
<h3>Unit 4: Digital Substations, FACTS, and HVDC Link:</h3>
<ul>
<li>Digital Substation Architecture.</li>
<li>Flexibility in AC Systems (FACTS) - Static VAr Compensation - Series Controlled Capacitors.</li>
<li>Changing Maintenance Schedules, Remote Surveillance of Plant, and the Introduction of Unmanned Substations.</li>
<li>Data Logging.</li>
<li>HV-DC Links for Stability Improvement.</li>
<li>Optical Cable Temperature Monitoring.</li>
<li>SCADA and Artificial Intelligence Systems for Fault Diagnostics.</li>
</ul>
<h3>Unit 5: Numerical Protection Relays and State-of-the-Art Fault Current Limiter:</h3>
<ul>
<li>Advanced Protection and Control Techniques.</li>
<li>Numerical Relay and Protection Functions.</li>
<li>Electrical Insulation - Air and SF6 - The Problems.</li>
<li>Condition Monitoring of Plant.</li>
<li>Is - Fault Current Limiter, How to Apply.</li>
<li>GIS Diagnostics – Partial Discharge Techniques.</li>
</ul>">

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Smart Grids for Non-Engineers Course - (L 9308)

Introduction:</h2>
Consumers demand a safe, secure, and reliable grid system. With the introduction of system digitalization, the demand for a smart grid is no exception. A smart grid is an intelligent automated system for monitoring the flow of electricity and making the distribution of electricity more efficient.
In a world where protecting the environment is a significant concern, it is important to find cost-effective ways of reducing power usage and increasing energy independence. A smart grid includes the utilization and production of renewable energy. Consumers now have a choice to generate their electricity for personal consumption, and an excess of electrical energy can be sold to the local utility supply companies.
This course on smart grids for non-engineers can be achieved by installing smart meters on the premises. Smart grids possess demand response capacity to help balance electrical consumption with supply and the potential to integrate new technologies to enable energy storage devices and the large-scale use of electric vehicles.
<h2>Targeted Groups:</h2>
<ul>
<li>Non-engineers</li>
<li>Administrative personnel</li>
<li>Safety officers</li>
<li>Maintenance technicians</li>
<li>The general professional public</li>
</ul>
<h2>Course Objectives:</h2>
At the end of this smart grids for non-engineers course, the participants will be able to:
<ul>
<li>Understand the role and benefits of a smart grid.</li>
<li>Determine the various types of renewable energy.</li>
<li>Explain the different types of solar panels.</li>
<li>Analyze the common types of wind farms.</li>
<li>Design and components of a smart home.</li>
</ul>
<h2>Targeted Competencies:</h2>
At the end of this smart grid for non-engineers training, the participant's competencies will:
<ul>
<li>The conventional power grid system.</li>
<li>Smart grid blueprint and characteristics.</li>
<li>Types of renewable energy.</li>
<li>Wind turbines.</li>
<li>Photovoltaic cells.</li>
</ul>
<h2>Understanding the Concept of Smart Grids:</h2>
Are you interested in understanding the concept of Smart Grids rather than from an engineering perspective? Our "Engineering for Non-Engineers: Smart Grids in the Power System" course is tailored just for you.
This smart grid for non-engineers program delves into the intricacies of smart grid technology, exploring its meaning and importance in modern energy systems. Discover smart grid solutions and how they optimize energy distribution, paving the way for a more efficient and sustainable future.
Are you interested in a smart grid certification program? Join us in unlocking insights into the smart grid system and energy smart grid technology. Learn what a smart grid is and how it revolutionizes power management. Enroll today to demystify the world of smart grids without needing an engineering background.
<h2>Course Content:</h2>
<h3>Unit 1: Conventional Electrical Generation, Transmission, and Distribution Process:</h3>
<ul>
<li>Differences between alternating current and direct current.</li>
<li>Standard electrical units' power, voltage, current, power factor, and frequency.</li>
<li>Types of generation of electrical power systems.</li>
<li>Transmission and distribution of electric power.</li>
<li>Domestic electrical system.</li>
<li>Industrial electrical system.</li>
</ul>
<h3>Unit 2: Types of Renewable Energy:</h3>
<ul>
<li>Wind turbines.</li>
<li>Construction and operation of wind farms.</li>
<li>Solar panels.</li>
<li>Construction and operations of photovoltaic cells.</li>
<li>Biomass energy.</li>
<li>Geothermal energy.</li>
</ul>
<h3>Unit 3: Introduction to Smart Grid:</h3>
<ul>
<li>What is the smart grid?</li>
<li>Smart grid attributes.</li>
<li>Characteristics of a smart grid.</li>
<li>Smart grid blueprint.</li>
<li>Smart grid best practices.</li>
<li>Smart grid and microgrid.</li>
</ul>
<h3>Unit 4: Smart Homes and Consumer Engagement:</h3>
<ul>
<li>Concepts of a smart home.</li>
<li>Merits of a smart home.</li>
<li>Characteristics of a smart home.</li>
<li>Introduction of smart meters.</li>
<li>Consumer engagement in a smart grid system.</li>
<li>Smart grid integration with the power grid.</li>
</ul>
<h3>Unit 5: Energy Storage Systems and Smart Sensors:</h3>
<ul>
<li>Types of energy storage systems.</li>
<li>Importance and merits of battery systems.</li>
<li>Smart grid sensors and appliances.</li>
<li>Safety features.</li>
<li>Smart electric vehicles.</li>
</ul>
<h2>Conclusion:</h2>
In the "Engineering for Non-Engineers: Smart Grids in the Power System" course, non-engineers comprehensively understand smart grid technology and its impact. This program covers the fundamentals, from defining a smart grid to exploring energy smart grid solutions and technology.
Participants emerge with knowledge about the smart grid system's role in optimizing power distribution and sustainability. This course offers the essential training needed to navigate the complexities of power smart grid management and get a smart grid certification program.
Participants in this smart grids for non-engineers training will unlock the potential of smart grid energy, even without prior engineering experience. Explore the future of energy management through our accessible and enlightening smart grid course designed specifically for non-engineers.">