Training on Dynamic Simulation of Chemical Processes
Dynamic Simulation of Chemical Processes
Advanced Process Modeling, Control & Transient Analysis Training
Modern chemical, petrochemical, pharmaceutical, and energy industries increasingly rely on dynamic simulation to design safer plants, optimize operations, train operators, and analyze transient conditions such as start-up, shutdown, disturbances, and emergency scenarios.
The Dynamic Simulation of Chemical Processes course provides practical, industry-relevant training in modeling time-dependent process behavior, helping participants move beyond steady-state calculations to real plant operating conditions.
This course is designed to make participants industry-ready for roles involving process design, control, safety analysis, and digital process engineering.
Why This Course Is Required
Industry Reality
Most academic programs focus on steady-state process design, but in real plants:
Processes are dynamic and time-dependent
Start-up and shutdown conditions dominate operational risk
Process disturbances can lead to safety incidents
Control systems depend on accurate dynamic models
Operator training simulators are based on dynamic simulations
Industries require engineers who can:
Predict transient behavior
Analyze process stability
Design and validate control strategies
Simulate abnormal and emergency scenarios
This course bridges the critical gap between academic knowledge and real plant operations.
Who Should Attend This Course
This course is suitable for:
Chemical Engineering students and graduates
Process engineers and design engineers
Control and instrumentation engineers
Safety and risk engineers
Simulation and digital engineering professionals
Researchers and postgraduate students
Professionals involved in plant operations and optimization
Basic knowledge of chemical engineering fundamentals is sufficient.
What You Will Learn
After completing this training, participants will be able to:
Understand dynamic behavior of chemical processes
Develop dynamic models of reactors, separators, and heat exchangers
Simulate start-up, shutdown, and load changes
Analyze process stability and transient responses
Integrate process dynamics with control systems
Apply dynamic simulation for safety and operability studies
Use simulation results for design validation and operator training
Course Curriculum
Module 1: Fundamentals of Process Dynamics
Difference between steady-state and dynamic simulation
Dynamic systems and time-dependent behavior
Process inertia, lag, and dead time
Mathematical representation of dynamic processes
Module 2: Modeling of Dynamic Systems
Mass, energy, and momentum balances in dynamic form
Ordinary differential equations in process modeling
Linear and non-linear dynamic models
Initial conditions and boundary conditions
Module 3: Dynamic Modeling of Unit Operations
Dynamic models of reactors (batch, CSTR, PFR)
Heat exchangers under transient conditions
Distillation column dynamics
Tanks, mixers, and separators
Module 4: Numerical Methods for Dynamic Simulation
Time discretization methods
Stability and convergence issues
Selection of integration time steps
Handling stiff systems
Module 5: Process Control Fundamentals
Feedback and feedforward control
PID controllers and tuning concepts
Interaction between process dynamics and control loops
Control performance evaluation
Module 6: Dynamic Simulation with Control Integration
Modeling control loops in dynamic simulations
Start-up and shutdown control strategies
Disturbance rejection analysis
Controller tuning using dynamic models
Module 7: Safety, Operability & Transient Analysis
Process disturbances and upset conditions
Emergency shutdown scenarios
Runaway reactions and thermal hazards
Dynamic simulation for HAZOP and safety studies
Module 8: Operator Training & Digital Applications
Role of dynamic simulation in operator training simulators (OTS)
Virtual plant operation concepts
Decision-making under transient conditions
Digital twin basics
Module 9: Case Studies & Industrial Applications
Chemical plant start-up simulation
Distillation column load change analysis
Reactor temperature runaway case study
Control system performance evaluation
Model Projects Included
To ensure practical skill development, participants work on industry-oriented model projects:
Model Project 1: Dynamic Reactor Simulation
Time-dependent mass and energy balance
Temperature and concentration response analysis
Model Project 2: Start-Up & Shutdown Simulation
Process ramp-up strategies
Identification of operational risks
Model Project 3: Control System Integration
PID controller modeling
Disturbance rejection performance study
Model Project 4: Safety Scenario Simulation
Abnormal operation simulation
Emergency response analysis
Career Opportunities After This Course
Hiring Industries
Chemical and petrochemical plants
Oil & gas processing facilities
Pharmaceutical manufacturing
Fertilizer and specialty chemical industries
Engineering consultancy and EPC companies
Digital engineering and simulation firms
Job Roles
Process Engineer
Simulation Engineer
Process Control Engineer
Safety and Risk Analyst
Digital Process Engineer
R&D Engineer
Training Methodology
Concept-to-application approach
Industry-oriented problem solving
Real-world case studies
Practical modeling methodology
Interview-oriented technical guidance
Certification
Certificate in Dynamic Simulation of Chemical Processes
Issued by Pertecnica Engineering
This certification demonstrates your ability to analyze, simulate, and optimize time-dependent chemical process behavior, a highly valued skill in modern process industries.
Why Choose Pertecnica Engineering
Industry-experienced trainers
Focus on real plant scenarios
Practical, application-oriented learning
Career-focused course design
Ethical and transparent training approach
Same syllabus for the following courses..
Dynamic Simulation of Chemical Processes
Process Dynamics and Control Training
Chemical Process Simulation Course
Transient Process Simulation Training
Process Modeling and Simulation Course