Prerequisites:

• Basic Electrical Engineering
• Circuit Analysis
• Power Systems

Prerequisites:

• Basic Electrical Engineering
• Circuit Analysis
• Power Systems

• Electrical Engineers 

• Power Quality Engineers 

• Power Systems Protection Engineers 

• Instrumentation and Control Engineers 

This interactive Training will be highly interactive, with opportunities to advance your opinions and ideas and will include:

• Lectures
• Workshop & Work Presentation
• Case Studies and Practical Exercise
• Videos and General Discussions

Introduction to Power Quality and Fluke 435 

• Introduction to power quality and its impact on electrical systems. 

• Overview of power quality issues: Voltage sags, surges, harmonics, flicker, and transients. 

• Introduction to Fluke 435 Power Quality Analyzer: Features, capabilities, and setup. 

• Overview of power quality standards: IEEE 1159, IEEE 519. 

Fluke 435: Setup and Basic Measurement Techniques 

• Powering on and setting up the Fluke 435. 

• Basic voltage, current, and power measurements. 

• Setting measurement parameters for different types of systems (single-phase, three-phase). 

• Overview of graphical displays and measurements: Voltage, Current, Power, Harmonics, etc. 

Voltage Sags, Swells, and Transients 

• Understanding voltage sags, swells, and transients. 

• Causes and effects of voltage disturbances on electrical equipment. 

• Using Fluke 435 to monitor and capture voltage sags and swells. 

• Identifying transients and their sources using the Fluke 435. 

• Case studies of voltage sags and transients in industrial environments. 

Harmonics: Analysis and Mitigation 

• Harmonic distortion and its effects on power quality. 

• Harmonic sources and impact on electrical equipment. 

• Using the Fluke 435 to measure Total Harmonic Distortion (THD), individual harmonic orders, and current and voltage harmonics. 

• Harmonic analysis: Graphical display and interpretation. 

• Mitigation strategies: Passive and active filters, harmonic traps, and tuning techniques. 

Power Factor and Reactive Power 

• Understanding power factor and its importance in power quality. 

• Using the Fluke 435 to measure and analyze power factor. 

• Reactive power compensation methods. 

• Impact of poor power factor on system performance and solutions (capacitors, synchronous motors). 

Voltage Flicker and Imbalance 

• Voltage flicker: Causes, effects, and measurement techniques. 

• Measuring and analyzing voltage flicker using Fluke 435. 

• Three-phase voltage imbalance: Detection and measurement with Fluke 435. 

• Mitigation techniques for flicker and imbalance. 

Data Logging and Analysis Using Fluke 435 

• Data logging capabilities of Fluke 435. 

• Setting up long-term data logging for power quality monitoring. 

• Analyzing logged data using Fluke’s software tools. 

• Exporting and interpreting data: Excel, PowerLog 430 software. 

• Case studies: Reviewing data logs to diagnose power quality issues. 

Power Quality in Distributed Generation Systems 

• Impact of distributed generation (DG) sources (e.g., solar, wind) on power quality. 

• Monitoring DG systems using Fluke 435. 

• Identifying common power quality issues in microgrids and renewable energy systems. 

• Case study: Power quality analysis in a wind farm or solar installation. 

Power Quality Events: Capture, Identify, and Solve 

• Using Fluke 435 to detect power quality events. 

• Real-time event capture and analysis. 

• Identifying sources of disturbances using the Fluke 435’s capture features. 

• Case study: Power quality event analysis in a commercial building or industrial site. 

Power Quality Solutions and Mitigation Techniques 

• Overview of power quality improvement devices: UPS, Static VAR Compensators (SVC), Dynamic Voltage Restorers (DVRs), and Active Power Filters. 

• Using Fluke 435 to evaluate the performance of power quality improvement solutions. 

• Best practices for installing power quality solutions based on data analysis. 

• Industry practices for mitigating power quality issues. 

Case Studies and Real-World Applications 

• Case Study 1: Power quality analysis in a manufacturing facility using Fluke 435. 

• Case Study 2: Power quality issues in a commercial office building and their mitigation. 

• Case Study 3: Monitoring power quality in a residential complex using Fluke 435. 

• Group projects: Students will analyze real-world data sets from different industries and propose solutions. 

Power Quality in Smart Grids and Advanced Systems 

• Smart grid technologies and their impact on power quality. 

• Role of Fluke 435 in smart grid applications. 

• Power quality forecasting and predictive analysis. 

• Case study: Power quality management in a smart grid environment. 

Power Quality Audits 

• Conducting a power quality audit using the Fluke 435. 

• Auditing procedures: Planning, measurement, and data analysis. 

• Writing a power quality audit report. 

• Developing power quality improvement recommendations.

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