TDI

Process Engineer: Reactor Ops, Troubleshooting & Startup/Shutdown

Duration

5 Days

Start Date

2-Nov-2026

End Date

6-Nov-2026

Venue

CAIRO – EGYPT

price

1475 KD

20% discount for group above 5 attendees

Course Overview

This intensive training program equips process engineers with comprehensive knowledge of chemical reactor operations, performance optimization, and safe startup/shutdown procedures. Participants will gain hands-on skills for troubleshooting reactor problems, improving yield, and preventing critical failures in petrochemical, pharmaceutical, and specialty chemical processes.

Course Objectives

Upon completion, participants will be able to:

  1. Operate batch/continuous reactors safely and efficiently
  2. Diagnose and troubleshoot common reactor problems
  3. Execute proper startup/shutdown sequences
  4. Optimize reaction kinetics and heat management
  5. Implement safety systems for exothermic reactions
  6. Analyze reactor performance data
  7. Apply process intensification techniques

Who Should Attend

This course is essential for:

  • Process engineers
  • Plant operations engineers
  • Reactor design specialists
  • Process safety engineers
  • Production supervisors
  • R&D chemical engineers
  • Process control engineers

Course Modules

Module 1: Reactor Fundamentals

  • Reactor types (CSTR, PFR, batch, fluidized bed)
  • Reaction kinetics fundamentals
  • Residence time distribution analysis
  • Industrial reactor case studies

Module 2: Reactor Operations

  • Temperature/pressure control strategies
  • Mixing efficiency optimization
  • Catalyst loading/activation
  • Fouling prevention techniques

Module 3: Troubleshooting Methodology

  • Systematic fault diagnosis approach
  • Common operational problems (hot spots, channeling)
  • Catalyst deactivation analysis
  • Mass/heat transfer limitations

Module 4: Startup & Shutdown Procedures

  • Pre-startup safety reviews (PSSR)
  • Phased heating/cooling protocols
  • Inerting/purging requirements
  • Emergency shutdown scenarios

Module 5: Safety Systems

  • Runaway reaction prevention
  • Emergency relief system design
  • Safety instrumented systems (SIS)
  • Layer of protection analysis (LOPA)

Module 6: Performance Optimization

  • Data analytics for reactor monitoring
  • Scale-up considerations
  • Process intensification methods
  • Energy efficiency improvements

Module 7: Advanced Applications

  • Multiphase reactor systems
  • Electrochemical reactors
  • Photocatalytic systems
  • Microwave-assisted reactions

Module 8: Practical Workshops

  • Reactor simulation exercises
  • Troubleshooting case studies
  • Startup sequence development
  • Safety system design workshop