API 610 Pumps: Design, Selection & Reliability Excellence

This intensive, industry-focused course provides a practical understanding of centrifugal pumps designed in accordance with API 610 (Centrifugal Pumps for Petroleum, Petrochemical and Natural Gas Industries).

  • Online – Microsoft Teams
  • 12 – 13 May 2026
  • b
    2 CPD  Points
  • Price : R 8 499.00
API 610 Pumps: Design, Selection & Reliability Excellence

LEARNING OUTCOMES

After successfully completing this course, you will be able to:

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Understand the scope and key requirements of API 610.

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Identify different API 610 pump types and configurations

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Interpret pump datasheets and technical specifications.

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Select pumps based on hydraulic and mechanical requirements.

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Analyze pump performance curves and system curves.

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Understand sealing systems (API 682 overview).

Introduction to API 610

  • History and purpose of API standards
  • Scope of API 610
  • Differences between API 610 and ISO pumps
  • Latest edition requirements
  • When API 610 compliance is mandatory

Pump Types & Configurations

  • OH (Overhung) pumps
  • BB (Between Bearings) pumps
  • VS (Vertical Suspended) pumps
  • Impeller types
  • Casing designs
  • Materials of construction

Hydraulic Fundamentals

  • Flow, head, power relationships
  • Pump curves interpretation
  • Best Efficiency Point (BEP)
  • Minimum continuous stable flow
  • System curve interaction

NPSH & Cavitation Control

  • NPSHa vs NPSHr
  • Suction design best practices
  • Effects of cavitation
  • Vapor pressure considerations
  • API margin requirements

Mechanical Design Requirements

  • Shaft design and critical speed
  • Bearing arrangements
  • Shaft deflection limits
  • Nozzle load limits
  • Baseplate and alignment considerations

Sealing Systems (API 682 Overview)

  • Mechanical seal types
  • Seal support systems
  • Seal flush plans
  • Common seal failures
  • Reliability improvements

Materials & Corrosion Considerations

  • Material classes under API 610
  • Metallurgical selection
  • Corrosion, erosion, and wear
  • Material upgrade decision-making

Installation & Commissioning Best Practices

  • Foundation and grouting
  • Alignment (cold vs hot alignment)
  • Piping stress control
  • Pre-startup checks
  • Commissioning procedures

Pump Troubleshooting & Failure Analysis

  • Vibration issues
  • Seal failures
  • Bearing failures
  • Overheating
  • Performance degradation

Lifecycle Cost & Reliability Optimization

  • MTBF improvement strategies
  • Condition monitoring
  • Spare parts strategy
  • Total cost of ownership
  • Reliability-centered maintenance (RCM) principles