Course Objectives:

Upon completion of this training, participants will be able to:

1. Understand the Basic Principles of Dynamic Pumps
• Gain a solid understanding of the fundamental principles behind dynamic pumps, including how they transfer energy to fluids to increase their velocity and pressure.
• Explore the differences between dynamic and positive displacement pumps.
2. Identify and Describe Different Types of Dynamic Pumps
• Learn about the various types of dynamic pumps, including centrifugal pumps, axial flow pumps, and mixed flow pumps.
• Understand the operational principles, applications, and advantages/disadvantages of each type of dynamic pump.
3. Understand Pump Selection Criteria
• Learn how to select the appropriate dynamic pump based on flow rates, pressure requirements, fluid properties, and system design.
• Understand the factors that affect pump performance, such as system resistance, pump curves, and NPSH (Net Positive Suction Head).
4. Learn the Working Mechanism of Centrifugal Pumps
• Dive deep into the operation of centrifugal pumps, including the function of impellers, volutes, and casing.
• Understand how energy is imparted to the fluid and converted to pressure in centrifugal pumps.
5. Explore Performance Characteristics of Dynamic Pumps
• Analyze the key performance indicators of dynamic pumps, including flow rate, head (pressure), power consumption, and efficiency.
• Learn how to interpret pump performance curves and determine the operational efficiency in real-world applications.
6. Design Considerations for Dynamic Pumps
• Understand the key design factors that influence dynamic pump performance, such as impeller size, casing design, and material selection.
• Learn the principles of multi-stage centrifugal pumps for applications requiring higher pressures.
7. Troubleshoot Common Issues in Dynamic Pump Operations
• Identify and address common operational problems in dynamic pumps, such as cavitation, loss of prime, seal failures, and vibration issues.
• Learn preventive maintenance practices to improve pump reliability and longevity.
8. Study Energy Efficiency and Optimization in Pump Systems
• Learn techniques to improve energy efficiency in dynamic pump systems, including pump sizing, variable speed drives (VSD), and system optimization.
• Understand how to reduce energy consumption and operational costs through efficient pump operation.
9. Understand Pump Control and Automation Systems
• Familiarize with modern control systems used in dynamic pump operation, such as SCADA, DCS, and PLC systems.
• Learn how automation and control strategies improve pump performance and reduce human error.
10. Safety and Maintenance Best Practices
• Study safety protocols in dynamic pump operations, focusing on handling hazardous fluids, managing pressure surges, and ensuring the safety of operators.
• Understand the maintenance routines required to keep dynamic pumps operating efficiently, such as monitoring for wear, corrosion, and balancing.

Target Audience:

• Mechanical Engineers: Engineers involved in the design, selection, and optimization of pumping systems.
• Pump Operators: Personnel responsible for the day-to-day operation and monitoring of dynamic pumps.
• Maintenance Technicians: Technicians maintaining and troubleshooting dynamic pump systems.
• Process Engineers: Engineers designing and improving fluid transfer systems in industrial applications.
• Energy Managers: Professionals looking to optimize energy use and reduce operational costs in pump systems.
• HVAC Engineers: Engineers working with pumps in heating, ventilation, and air conditioning systems.
• Students (Mechanical, Chemical, Process Engineering): Students seeking foundational knowledge in pump systems for academic or professional development.