Course Finder In-House Training About Us
An Intensive Professional
Development Training Course on

Hydroprocessing Reactor Engineering & Catalyst Management

Optimising Reactor Performance, Hydrogen Utilisation, Catalyst Life and Product Quality

Course Options

How would you like to proceed?

Need a tailored solution or group booking discount? Contact our course advisors.

Why Choose Us

The Hydroprocessing Reactor Engineering & Catalyst Management training course develops the practical understanding required to assess reactors, manage catalysts, resolve operating problems and optimise unit performance. It examines reactor design, reaction chemistry, catalyst behaviour, hydrogen management and process control within modern refinery operations. Hydroprocessing units enable cleaner fuel production, protect downstream catalysts and upgrade increasingly complex feedstocks. Effective performance relies on integrating these technical areas with safe operating practices.

Variations in feed composition, catalyst activity, hydrogen partial pressure, temperature profiles and contaminant levels can materially influence reaction rates, product quality, pressure drop and catalyst cycle length. Operational challenges include accelerated catalyst deactivation, reactor hot spots, maldistribution, excessive hydrogen consumption and rising differential pressure. These problems can restrict throughput and create significant operational risks. Participants learn to evaluate reactor conditions, manage catalyst life cycles and troubleshoot issues to improve reliability, product quality and profitability.

This Hydroprocessing Reactor Engineering & Catalyst Management training course will highlight:

  • Understanding hydroprocessing reactor design and reaction chemistry
  • Evaluating feed composition, temperature profiles and reaction conditions
  • Selecting catalysts and managing catalyst behaviour and life cycles
  • Managing hydrogen consumption and hydrogen partial pressure
  • Diagnosing hot spots, maldistribution and increasing differential pressure
  • Optimising unit reliability, product quality and profitability
Why Choose Hydroprocessing Reactor Engineering & Catalyst Management
Course Goals

What are the Goals?

Upon completing this training course, participants will be able to:

  • Describe hydroprocessing chemistry and its operating principles
  • Distinguish hydrotreating applications from hydrocracking applications
  • Assess how feedstock quality affects reactor performance
  • Understand the design and internal components of fixed-bed reactors
  • Examine reactor temperature profiles and hydrogen partial pressure
  • Choose catalysts based on feedstock and product requirements
  • Track catalyst activity, selectivity and deactivation
  • Oversee catalyst loading, activation, operation and unloading
  • Diagnose reactor hot spots, pressure-drop issues and product-quality problems
  • Optimise catalyst lifespan, hydrogen utilisation and operating severity

Who is this Training Course for?

Who Should Attend?

This Hydroprocessing Reactor Engineering & Catalyst Management training course is designed for:

  • Hydroprocessing Engineers
  • Process Engineers
  • Refinery Operations Engineers
  • Reactor Engineers
  • Catalyst Engineers
  • Process Design Engineers
  • Refinery Technical Services Engineers
  • Inspection Engineers
  • Reliability Engineers
  • Refinery Operations Supervisors
Learning Approach

How will this Training Course be Presented?

This course integrates technical presentations, reactor schematics, operating data evaluation, performance computations, catalyst case studies and troubleshooting workshops. Participants will assess realistic hydroprocessing challenges and formulate practical approaches to enhance reactor performance, extend catalyst cycle length and improve operational reliability.

The Course Content

Hydroprocessing Fundamentals and Reaction Chemistry

  • Role of hydroprocessing within the modern refinery
  • Hydrotreating, hydrofinishing and hydrocracking applications
  • Hydrodesulphurisation and nitrogen-removal reactions
  • Hydrogenation of aromatics and olefins
  • Removal of oxygen, metals and other contaminants
  • Reaction kinetics, equilibrium and thermodynamic considerations
  • Exothermic reactions and reactor heat generation
  • Process-flow configuration and major equipment systems 

Reactor Engineering and Process Performance

  • Fixed-bed trickle-flow reactor principles
  • Reactor design, configuration and operating characteristics
  • Reactor internals, inlet devices and liquid distributors
  • Vapour-liquid distribution and catalyst-bed wetting
  • Temperature profiles, quench systems and interbed cooling
  • Hydrogen partial pressure and hydrogen-to-oil ratio
  • Space velocity, residence time and operating severity
  • Monitoring reactor conversion and product quality 

Catalyst Selection and Performance Evaluation

  • Hydroprocessing catalyst composition and active phases
  • Catalyst supports, pore structure and surface area
  • Cobalt-molybdenum, nickel-molybdenum and nickel-tungsten catalysts
  • Selecting catalysts for different feeds and product targets
  • Catalyst activity, selectivity, stability and mechanical strength
  • Catalyst grading, guard beds and contaminant control
  • Catalyst testing and performance-monitoring techniques
  • Economic evaluation of catalyst options 

Catalyst Loading, Activation and Life-Cycle Management

  • Catalyst loading plans and reactor-bed configuration
  • Dense loading, sock loading and loading-quality control
  • Catalyst presulphiding and in-situ activation procedures
  • Start-up precautions and initial catalyst conditioning
  • Catalyst deactivation by coke, metals and feed contaminants
  • Catalyst ageing and temperature-compensation strategies
  • Shutdown, catalyst unloading and pyrophoric-material handling
  • Catalyst regeneration, rejuvenation, reuse and disposal 

Troubleshooting and Hydroprocessing Optimisation

  • Diagnosing increasing reactor differential pressure
  • Identifying maldistribution, channelling and poor catalyst wetting
  • Reactor hot spots, temperature excursions and runaway prevention
  • Troubleshooting off-specification sulphur and nitrogen levels
  • Managing hydrogen purity, consumption and recycle-gas performance
  • Optimising weighted average bed temperature and catalyst cycle length
  • Feed-quality changes, operating constraints and corrective actions
  • Integrated reactor and catalyst optimisation case study
Recognition

Certificate

  • • Wallstreet Development Academy Certificate of Completion for delegates who attend and complete the training course.

Frequently Asked Questions

The Hydroprocessing Reactor Engineering & Catalyst Management training course focuses on reactor performance, hydrogen utilisation, catalyst life and product quality. It connects hydroprocessing reactor engineering with catalyst management. No more detailed module breakdown is provided in the available course information, so additional technical topics cannot be verified.
The course addresses reactor engineering with an explicit focus on optimising reactor performance. It also considers how performance relates to hydrogen use, catalyst management and product quality. Specific operating parameters, reactor configurations or troubleshooting methods are not listed in the available material.
The training covers catalyst management with an emphasis on optimising catalyst life. This is considered within the broader context of reactor performance, hydrogen utilisation and product quality. Specific catalyst selection, loading, monitoring or replacement practices cannot be confirmed from the information provided.
The course content can support work involving hydroprocessing reactor performance, hydrogen use, catalyst life and product quality. Its integrated focus may help professionals consider these areas together when reviewing operational performance and catalyst-management priorities. Specific workplace exercises, implementation methods or intended job roles are not stated in the available course material.
This training is designed to support the optimisation of reactor performance and hydrogen utilisation. It also addresses the linked goals of extending catalyst life and maintaining product quality. The available course information does not specify particular tools, calculations or case studies used to achieve these benefits.
Hydrogen utilisation is one of the stated optimisation areas in this hydroprocessing course. The training positions it alongside reactor performance, catalyst life and product quality, reflecting their operational relationship. The available page content does not provide enough detail to verify which hydrogen-management techniques or calculations are taught.
Product quality is a stated focus of the Hydroprocessing Reactor Engineering & Catalyst Management training course. The course links quality optimisation with reactor performance, hydrogen utilisation and catalyst life. The available information does not identify particular product specifications, testing methods or quality-control procedures.
If you would like further information about this training course, our team is available to provide professional guidance and support: Email: [email protected] In-house training: https://www.wallstreetda.com/in-house-training