Advanced Electrical Design Training: 5-Day Expert-Level Engineering Course

Course Overview

This advanced Electrical Design Training provides expert-level knowledge for experienced engineers designing complex electrical systems. This intensive 5-day program covers advanced load flow analysis, power quality engineering, harmonics mitigation, transient analysis, arc flash studies, advanced protection coordination, renewable energy integration, and sophisticated modeling techniques using industry-leading software platforms.

Who Should Attend This Advanced Electrical Design Course?

• Senior Electrical Design Engineers with 3+ years experience

• Lead Engineers managing complex design projects

• Power System Engineers in consulting and utilities

• Project Engineering Managers overseeing technical teams

• Specialist Design Engineers in critical facilities

• Protection and Control Engineers designing advanced schemes

• Industrial Power Engineers in heavy industries

• Energy Consultants providing advanced technical solutions

• PhD and Master’s Candidates in power systems

• Commissioning Engineers with design responsibilities

Course Objectives

Participants will master:

• Advanced power system analysis for complex facilities

• Harmonic analysis and power quality engineering

• Transient overvoltage analysis and mitigation

• Arc flash hazard assessment and mitigation strategies

• Advanced protection coordination and relay settings

• Renewable energy and energy storage integration

• Dynamic motor starting and voltage analysis

• Sophisticated modeling in ETAP, SKM, PowerFactory, or PSS/E

Day 1: Advanced Load Flow Analysis and System Studies

Morning Session: Complex Load Flow Studies

Topics Covered:

• Advanced load flow analysis techniques and methodologies

• Newton-Raphson and Fast Decoupled methods deep-dive

• Optimal power flow (OPF) and economic dispatch

• Contingency analysis: N-1, N-2, and beyond

• Voltage stability assessment: PV and QV curves

• Static and dynamic voltage collapse analysis

• FACTS devices modeling: SVC, STATCOM, TCSC

• Distributed generation impact on load flow

Advanced Concepts:
Multi-area load flow, DC load flow for market studies, probabilistic load flow for uncertainty analysis.

Afternoon Session: Voltage Regulation and Power Factor Optimization

Topics Covered:

• Advanced reactive power management strategies

• Optimal capacitor placement algorithms

• Voltage-VAR optimization (VVO) techniques

• On-load tap changer (OLTC) coordination

• Step voltage regulator placement and settings

• Power factor correction system design for industrial plants

• Automatic power factor correction (APFC) panels

• Cost-benefit analysis for reactive compensation

Case Study:
Complete voltage profile optimization for industrial facility with multiple voltage levels and generation sources.

Day 2: Harmonic Analysis and Power Quality Engineering

Morning Session: Harmonics and Power Quality

Topics Covered:

• Harmonic theory: characteristic and non-characteristic harmonics

• Harmonic sources: VFDs, rectifiers, arc furnaces, LED lighting

• IEEE 519 and IEC 61000 standards compliance

• Total Harmonic Distortion (THD) calculations: voltage and current

• Resonance conditions and harmonic amplification

• Harmonic load flow analysis using software

• K-factor transformers and derating requirements

• Telephone Influence Factor (TIF) calculations

Power Quality Issues:

• Voltage sags, swells, and interruptions analysis

• Flicker assessment and mitigation

• Notching and commutation effects

• Interharmonics and subharmonics

Afternoon Session: Harmonic Mitigation Design

Topics Covered:

• Passive harmonic filter design: single-tuned, high-pass, damped

• Filter component sizing and quality factor selection

• Active harmonic filter (AHF) specification and application

• Hybrid filter solutions for complex installations

• Phase-shifting transformers for harmonic cancellation

• 12-pulse and 18-pulse rectifier configurations

• Multi-pulse converter design considerations

• Electromagnetic interference (EMI) and mitigation

Design Workshop:
Complete harmonic analysis and filter design for industrial plant with multiple VFD loads.

Day 3: Arc Flash Analysis and Advanced Protection Design

Morning Session: Arc Flash Hazard Assessment

Topics Covered:

• Arc flash fundamentals and incident energy calculations

• IEEE 1584-2018 standard methodology and updates

• NFPA 70E hazard risk categories and PPE selection

• Arc flash boundary calculations

• Short circuit contribution analysis for arc flash

• Incident energy reduction techniques and strategies

• Arc flash relay settings and instantaneous protection

• Arc-resistant equipment specifications

Software Applications:
Arc flash analysis using ETAP, SKM PowerTools, or EasyPower including label generation and reporting.

Afternoon Session: Advanced Protection Coordination

Topics Covered:

• Complex protection coordination schemes

• Directional overcurrent protection in loop systems

• Distance protection zones and relay settings

• Differential protection: transformers, generators, busbars, motors

• Adaptive protection and wide-area protection

• Microprocessor relay programming and logic design

• IEC 61850 communication-based protection

• Protection coordination with distributed generation

Advanced Topics:

• Loss of field protection for synchronous generators

• Negative sequence protection schemes

• Under-frequency and under-voltage load shedding

• Out-of-step protection and power swing detection

• Synchrophasor-based protection schemes

Day 4: Dynamic Analysis and Motor Starting Studies

Morning Session: Transient Stability and Dynamic Analysis

Topics Covered:

• Power system transient stability analysis fundamentals

• Generator dynamic models: classical, subtransient, transient

• Excitation system and governor modeling

• Critical clearing time calculations

• Multi-machine stability assessment

• Fault ride-through requirements for generation

• Power system stabilizers (PSS) design and tuning

• Remedial action schemes (RAS) and special protection systems

Simulation Workshop:
Time-domain simulation of system disturbances and stability assessment.

Afternoon Session: Motor Starting and Voltage Dip Analysis

Topics Covered:

• Large motor starting analysis and design considerations

• Starting methods comparison: DOL, star-delta, autotransformer, soft-start, VFD

• Voltage dip calculations during motor acceleration

• Starting torque vs. load torque curves

• Acceleration time calculations

• Inrush current and harmonic impacts

• Motor reacceleration after voltage dip

• Sequential motor starting strategies

Dynamic Simulation:
Complete motor starting study including transient torque, voltage, and current analysis using advanced software.

Day 5: Renewable Energy Integration and Advanced Topics

Morning Session: Distributed Energy Resources Integration

Topics Covered:

• Solar PV system electrical design at utility scale

• Inverter selection and grid code compliance

• Maximum power point tracking (MPPT) and performance

• PV plant collection system design

• Wind turbine electrical systems and grid integration

• Energy storage system (ESS) design: BESS sizing and applications

• Microgrid design and islanding considerations

• Grid interconnection studies: steady-state and dynamic

Advanced Modeling:

• Renewable energy modeling in power system software

• Probabilistic analysis for variable generation

• Frequency and voltage ride-through capability

• Active and reactive power control strategies

Afternoon Session: Advanced Design Applications

Mission-Critical Facility Design:

• Data center electrical design: Tier III/IV configurations

• 2N, N+1, and distributed redundant systems

• Automatic and static transfer switches (ATS/STS)

• Power distribution unit (PDU) design

• UPS systems: topology, sizing, and paralleling

• Emergency power off (EPO) systems

Industrial Applications:

• Heavy industrial power systems: mining, steel, cement

• Arc furnace electrical supply design

• Medium voltage motor control and protection

• Plant-wide power factor correction

• Captive power plant integration

Healthcare Facility Design:

• Essential electrical system (EES) per NFPA 99

• Isolated power systems for critical care areas

• Life safety branch and critical branch design

• Equipment system and normal system separation

Advanced Software Mastery Session

ETAP Advanced Features:

• Dynamic simulation modules and setup

• Optimal load flow and contingency analysis

• Reliability assessment and FMEA

• Cable thermal analysis and ampacity derating

• Protective device evaluation

• Custom scripting and automation

DIgSILENT PowerFactory:

• RMS and EMT simulation capabilities

• Controller design and tuning

• Advanced generator and load models

• Quasi-dynamic simulation

• Python scripting for automation

SKM PowerTools Advanced:

• Motor acceleration studies

• Optimal protection and coordination

• Arc flash mitigation strategies

• Transient motor starting analysis

PSS/E for Large Systems:

• Utility-scale system modeling

• Inter-area oscillation analysis

• Contingency screening and ranking

• Renewable energy integration studies

Emerging Technologies and Future Trends

Topics Covered:

• DC distribution systems: HVDC, MVDC, LVDC applications

• Wide bandgap semiconductors: SiC, GaN in power electronics

• Solid-state transformers and breakers

• Virtual power plants and aggregated DER

• Vehicle-to-grid (V2G) technology integration

• Artificial intelligence in electrical design

• Digital twin technology for power systems

• Blockchain applications in energy systems

Design Optimization and Economics

Topics Covered:

• Life-cycle cost analysis (LCCA) for electrical systems

• Energy efficiency optimization techniques

• Demand charge reduction strategies

• Peak shaving and load shifting design

• Energy management system (EMS) integration

• Total cost of ownership (TCO) calculations

• Net present value (NPV) and return on investment (ROI)

• Sustainability metrics and LEED considerations

Code Compliance and Advanced Standards

International Standards:

• IEEE 519: Harmonic control in electrical power systems

• IEEE 1584: Arc flash hazard calculation

• IEEE 242 (Buff Book): Protection and coordination

• IEEE 493 (Gold Book): Reliability design

• IEEE 399 (Brown Book): Power system analysis

• IEC 60909: Short-circuit current calculation

• IEC 61850: Substation automation and communication

• IEC 62305: Lightning protection system design

Final Session: Comprehensive Advanced Project

Capstone Design Project:
Complete advanced electrical design for complex facility including:

• Multi-voltage level load flow study

• Short circuit analysis with motor contribution

• Advanced protection coordination study

• Arc flash assessment and mitigation plan

• Harmonic analysis and filter design

• Motor starting and voltage dip study

• Renewable energy integration analysis

• Transient stability assessment

• Power quality improvement recommendations

• Equipment specifications and single-line diagrams

Professional Assessment:

• Advanced problem-solving examination

• Software-based design project presentation

• Protection coordination practical exercise

• Harmonic analysis case study report

• Peer review and technical critique session

• Interactive discussion with industry experts

• Advanced Professional Certificate

• IEEE or equivalent continuing education units (CEUs)

Course Benefits and Learning Outcomes

Upon completion, participants will be able to:

• Conduct comprehensive power system analysis for complex facilities

• Design harmonic mitigation systems per IEEE 519 compliance

• Perform detailed arc flash studies and implement mitigation strategies

• Develop advanced protection coordination schemes

• Model and integrate renewable energy and storage systems

• Analyze transient stability and dynamic system behavior

• Use advanced features of ETAP, SKM, PowerFactory, or PSS/E

• Design mission-critical and redundant power systems

• Optimize power quality and system efficiency

• Prepare detailed technical reports and engineering documentation

• Lead complex electrical design projects with confidence

Training Methodology

This advanced electrical design course employs:

• Expert instruction from senior consulting engineers

• Complex real-world case studies from actual projects

• Extensive hands-on software modeling exercises

• Interactive problem-solving workshops

• Peer collaboration on advanced design challenges

• Industry best practices and lessons learned

• Guest lectures from subject matter experts

• Design review and critique sessions

Course Materials Provided

Participants receive:

• Advanced electrical design reference manual

• Software modeling templates and libraries

• IEEE standards excerpts and technical papers

• Design calculation spreadsheets and tools

• Case study documentation and solutions

• Technical specification examples

• Professional Certificate of Advanced Training

• Access to online resource library

Prerequisites

Required Background:

• Bachelor’s degree in Electrical Engineering

• Minimum 3 years electrical design experience

• Proficiency in load flow and short circuit analysis

• Working knowledge of ETAP, SKM, or similar software

• Understanding of NEC/IEC codes and standards

• Completion of basic electrical design course or equivalent

Software Proficiency

Participants should have working knowledge of at least one:

• ETAP (Electrical Transient Analyzer Program)

• SKM PowerTools

• DIgSILENT PowerFactory

• EasyPower

• PSS/E (for utility engineers)

Post-Course Benefits

• Access to advanced technical support forum

• Continuing education units (CEUs) for PE license

• Professional networking with senior engineers

• Updates on new standards and technologies

• Advanced training pathway recommendations

• Industry conference and publication recommendations

Keywords: advanced electrical design, power system analysis, arc flash analysis, harmonic analysis, protection coordination, ETAP training, electrical design software, motor starting analysis, transient stability, power quality engineering, renewable energy integration, load flow analysis, IEEE 1584, IEEE 519, advanced protection design, microgrid design, distributed generation, electrical system optimization, mission critical design, data center electrical design