Pideya Learning Academy

Comprehensive Overhauling and Troubleshooting of Pumps and Compressors

Upcoming Schedules

  • Live Online Training
  • Classroom Training

Date Venue Duration Fee (USD)
20 Jan - 24 Jan 2025 Live Online 5 Day 2750
17 Feb - 21 Feb 2025 Live Online 5 Day 2750
05 May - 09 May 2025 Live Online 5 Day 2750
02 Jun - 06 Jun 2025 Live Online 5 Day 2750
18 Aug - 22 Aug 2025 Live Online 5 Day 2750
01 Sep - 05 Sep 2025 Live Online 5 Day 2750
13 Oct - 17 Oct 2025 Live Online 5 Day 2750
08 Dec - 12 Dec 2025 Live Online 5 Day 2750

Course Overview

In modern industrial operations, pumps and compressors are indispensable for maintaining continuous flow and pressure in fluid and gas systems across sectors like oil and gas, power generation, chemical processing, water treatment, and pharmaceuticals. These machines are central to ensuring efficient production and operational stability. However, when not properly maintained or correctly operated, they can become significant sources of energy waste, downtime, and costly repairs. To address these challenges and build long-term asset reliability, Pideya Learning Academy presents the Comprehensive Overhauling and Troubleshooting of Pumps and Compressors training program.
This intensive course is tailored to equip mechanical and maintenance professionals with the technical knowledge required to enhance the performance, reliability, and longevity of pumps and compressors. The curriculum covers an extensive range of topics—from pump and compressor classifications to fluid dynamics, mechanical design elements, energy optimization, and predictive maintenance techniques. Participants will understand how to evaluate system design, identify operational inefficiencies, and apply structured methodologies for troubleshooting and overhaul.
According to the U.S. Department of Energy, pumping systems account for 25%–30% of total energy consumption in industrial facilities, while compressors can consume up to 50% of electricity usage in sectors like refining and petrochemicals. Studies also indicate that more than 50% of pumps operate at less than 40% efficiency, leading to significant energy losses and reduced system reliability. Implementing structured maintenance protocols and diagnostic strategies can reduce downtime and cut energy costs by up to 20%, highlighting the critical importance of trained personnel in equipment management.
Throughout the training, participants will benefit from a mix of technical insights and performance-driven strategies, including:
Extensive study of centrifugal, reciprocating, and positive displacement pump mechanisms to understand operating principles and application suitability
In-depth classification and functional analysis of rotary, screw, and reciprocating compressors, including operational limits and energy implications
Advanced sealing systems overview, including mechanical seals, dry gas seals, and sealing failure diagnosis to support system safety and emission control
Introduction to predictive maintenance tools, such as vibration analysis, thermography, acoustic monitoring, and oil analysis to support early fault detection
Design and operational insights into electric motors and variable speed drives, focusing on energy control, performance tuning, and system integration
Pump and compressor efficiency monitoring strategies, enabling participants to diagnose underperformance and recommend corrective action
Real-world fault resolution techniques, supporting participants in developing troubleshooting plans based on root-cause analysis and case histories
The course also explores crucial aspects of system alignment, balancing, and load matching, ensuring that delegates understand how to manage operational variables that affect performance and maintenance costs. They will gain insights into shaft alignment techniques, bearing diagnostics, and coupling systems that influence equipment lifecycle. In addition, special emphasis is placed on identifying early warning signs of failure and employing condition-based maintenance rather than reactive repair strategies.
By the end of the Comprehensive Overhauling and Troubleshooting of Pumps and Compressors training, participants will possess the competence to lead maintenance overhauls, optimize fluid machinery operations, and contribute to strategic performance improvement within their organizations. The course encourages critical thinking, enhances troubleshooting capabilities, and prepares professionals to make data-driven decisions that reduce energy use, prevent unscheduled outages, and improve asset availability.
With its deep technical focus and industry-relevant approach, this Pideya Learning Academy program ensures that engineers, maintenance technicians, and plant supervisors leave with a practical understanding of pump and compressor systems and how to manage them for long-term operational excellence.

Course Objectives

After completing this Pideya Learning Academy training, the participants will learn:
The functional differences between various types of pumps and compressors
How to assess performance and operate systems near design efficiency
Methods for evaluating reliability, availability, and overall system integrity
Criteria for selecting fluid movers based on process and environmental conditions
Techniques to identify, diagnose, and resolve operational problems
Strategies for integrating motors and variable speed drives into pump and compressor systems
Best practices in preventive and predictive maintenance for rotating equipment

Personal Benefits

Strong understanding of pump and compressor technologies and maintenance
Improved diagnostic skills to identify and prevent system failures
Ability to evaluate and recommend system improvements and upgrades
Greater confidence in managing rotating equipment assets
Enhanced career growth opportunities in engineering and plant maintenance roles

Organisational Benefits

Increased operational uptime through enhanced equipment management
Reduced maintenance costs via early fault detection and corrective strategies
Improved energy efficiency and reduced operational costs
Enhanced technical competency within engineering and maintenance teams
Strategic alignment of equipment reliability with production goals

Who Should Attend

This program is ideal for:
Maintenance engineers, reliability engineers, and plant operators
Mechanical and rotating equipment professionals
Supervisors and team leaders in production and facilities management
Project personnel responsible for fluid handling systems
Individuals seeking to broaden their technical knowledge of pump and compressor operations for better decision-making and performance management

Course Outline

Module 1: Fundamentals of Compressor Technology
Classification of compressors: positive displacement and dynamic types Reciprocating compressors: structure and working principles Rotary compressors: screw, lobe, vane, and liquid ring variants Diaphragm compressors: design and industrial applications Centrifugal compressors: principles, components, and stages Axial flow compressors: flow path, blade design, and efficiency Thermodynamic fundamentals: gas laws and compression cycles Key operating parameters and performance indicators
Module 2: Compressor System Components and Optimization
Air intake systems: filters, screens, and ducting Intercoolers and aftercoolers: heat exchange methods Air receivers: volume calculations and pressure stabilization Compressor control systems: load/unload mechanisms Bleed valves and surge control systems Variable stator vanes and inlet guide vanes for flow regulation Preventing surging and choking in centrifugal compressors
Module 3: Compressor Performance Analysis and Calculations
Affinity Laws application in centrifugal compressors Performance mapping and system optimization Inlet condition correction and environmental factors Power requirement estimation for compressor systems Compressed air system audit and air leakage quantification Annual energy cost analysis for air leaks Air distribution system design and layout Calculations for receiver sizing and pump-up time Selection criteria for compressors based on duty and efficiency
Module 4: Introduction to Pumping Systems
Classification: dynamic and positive displacement pumps Centrifugal pumps: principles, casing types, and diffusers Reciprocating pumps: piston and plunger designs Rotary pumps: screw, gear, lobe, vane, and cam types Metering pumps: precision flow control Impeller types and hydraulic balancing mechanisms Multistage pump design and axial thrust management NPSH and cavitation prevention strategies
Module 5: Pump System Design and Specification
System head curve development and analysis Fluid characteristics influencing pump selection Pump material compatibility and corrosion resistance Motor and driver compatibility assessment Pump datasheet and specification documentation Compliance with codes, standards, and certification requirements Procurement documentation: bidding, commercial terms, QA/QC Lifecycle cost estimation and economic evaluation Spare parts planning and vendor guarantees
Module 6: Bearings and Lubrication in Rotating Equipment
Bearing classifications: ball, roller, thrust, and journal Load distribution and rolling contact stress Bearing life estimation and material specification Lubrication techniques: grease and oil applications Oil analysis parameters: viscosity, TAN, TBN, water content Infrared analysis, spectrographic analysis, particle count Condition-based monitoring using lubricant data
Module 7: Sealing Systems and Leakage Prevention
Mechanical seal components and seal face design Seal cooling and lubrication mechanisms Seal material selection for aggressive fluids Double seals, cartridge seals, and API seal plans Gland packing versus mechanical seals Leakage detection systems and environmental impact control
Module 8: Predictive Maintenance and Condition Monitoring
Vibration analysis: time domain and frequency domain Instrumentation: velocity, acceleration, and displacement sensors Unbalance, misalignment, and mechanical looseness diagnosis Detection of bearing and gear defects Blade pass frequency analysis for rotating machinery Oil whirl, shaft resonance, and looseness indicators Predictive maintenance planning and fault trend analysis
Module 9: Industrial Motors and Drive Fundamentals
Construction and working principles of AC induction motors Torque-speed characteristics and equivalent circuits Motor starting methods and protective systems Speed control techniques for variable applications Insulation classes and temperature ratings Motor cooling systems and enclosure types Stator failure analysis and insulation degradation Diagnostic testing and motor condition evaluation
Module 10: Variable Speed Drive Systems (VSD)
Working principles of VSDs and operating regions Power electronics: SCR, IGBT, MOSFET, GTO technologies PWM inverters: voltage source and current source variants Harmonic distortion, EMI, and RFI effects Regeneration methods and braking systems Capacitor sizing and DC link energy storage VSD control strategies: Volts/Hz, sensorless, feedback control
Module 11: Advanced Drive Integration and Troubleshooting
Motor cable selection, grounding, and EMI mitigation Shaft grounding techniques and bearing current control Evaluation of drive failure modes and failure identification Protection systems: fault current limiters and surge protection Insulation stress analysis due to high-frequency switching Comparison of open-loop vs closed-loop drive systems Troubleshooting inverter faults and diode/thyristor failures
Module 12: Industrial Standards, Applications, and Case Studies
Industry standards governing compressors, pumps, and drives Best practices in rotating equipment maintenance Case studies: energy savings and failure prevention Application-specific drive and compressor selection Integration of system diagnostics and smart controls Evaluation of economic return from maintenance interventions

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