Process Simulation Modules
1. Aspen HYSYS Beginner & Intermediate Level + Aspen HYSYS Certified User.
This module is designed for engineers, students, operators, and technical professionals who want to build a solid foundation in Aspen HYSYS. Participants learn how to create process simulations from the beginning, including component selection, fluid package setup, stream definition, and flowsheet development. The training covers essential process equipment such as pumps, compressors, heat exchangers, separators, valves, and distillation columns.
Participants also learn how to enter operating conditions, check results, identify errors, and improve simulation performance. At the intermediate level, the module introduces recycle streams, process specifications, sensitivity studies, and practical troubleshooting techniques. The course combines theory with hands-on examples to help users understand real process behavior. By the end of the module, participants will be able to build reliable Aspen HYSYS models, analyze process performance, and prepare for Aspen HYSYS Certified User level knowledge.
2. Aspen HYSYS Advanced Level Plus Aspen HYSYS Certified Expert User.
This advanced module is created for users who already have basic Aspen HYSYS knowledge and want to develop expert-level simulation skills. The course focuses on complex process modeling, advanced flowsheet development, recycle convergence, column design, optimization, and detailed performance analysis. Participants work with realistic industrial case studies related to oil and gas, refining, petrochemical, and chemical process systems. The training explains how to select proper thermodynamic methods, validate simulation results, solve convergence problems, and improve model accuracy.
Advanced topics may include sensitivity analysis, process optimization, controller setup, and dynamic simulation concepts. This module is ideal for process engineers, consultants, senior operators, and professionals preparing for Aspen HYSYS Certified Expert User level knowledge. After completing the course, participants will be able to handle challenging simulation tasks, evaluate process alternatives, and use Aspen HYSYS confidently for design, troubleshooting, and plant performance improvement.
3. Shell & Tube Heat Exchanger Design EDR Thermal Design.
This module focuses on shell and tube heat exchanger thermal design using Aspen Exchanger Design and Rating, also known as EDR. Participants learn how to define process conditions, select fluid properties, enter hot and cold stream data, and evaluate exchanger performance. The training covers key design parameters such as heat duty, temperature approach, pressure drop, fouling resistance, tube layout, shell type, baffle spacing, and overall heat transfer coefficient.
Participants also learn how to rate existing exchangers, check design limitations, and compare different design alternatives. Practical examples help users understand how EDR supports engineering decisions during new design, revamp, and troubleshooting projects. This module is suitable for process engineers, thermal engineers, mechanical engineers, and maintenance professionals involved in heat exchanger design or performance evaluation. By the end of the training, participants will be able to perform reliable thermal calculations and understand the main factors affecting exchanger efficiency.
4. Shell & Tube Heat Exchanger Design Heat Transfer Research, Inc. (HTRI) Thermal Design.
This module provides practical training in shell and tube heat exchanger thermal design using HTRI-based engineering methods. Participants learn how to prepare process data, define exchanger geometry, select tube and shell configurations, and evaluate thermal performance. The course explains important design factors such as heat transfer coefficient, pressure drop, fouling allowance, tube velocity, baffle arrangement, vibration risk, and mechanical design limitations. Participants also learn how to perform rating calculations for existing exchangers and how to identify operational problems such as insufficient heat transfer, excessive pressure drop, or poor flow distribution.
The module uses real engineering examples to connect software results with practical design decisions. It is suitable for process engineers, heat transfer specialists, mechanical engineers, and technical professionals working with exchanger design, operation, or troubleshooting. After completing the training, participants will be able to understand HTRI thermal results and use them effectively for engineering evaluation and exchanger improvement.
5. Auto Cad P&ID & 3D Model.
This module is designed for participants who want to learn practical drafting and modeling skills using AutoCAD for P&ID development and 3D plant modeling. The training begins with the fundamentals of process and instrumentation diagrams, including equipment symbols, pipelines, valves, instruments, tags, line numbers, and drawing standards. Participants learn how to create clear and professional P&ID drawings for process plants, utilities, and industrial systems.
The module also introduces 3D modeling concepts, including equipment placement, piping layout, routing, fittings, supports, and basic plant visualization. Practical exercises help users understand how 2D process information can be transformed into a 3D model for design review and coordination. This module is suitable for engineers, designers, draftsmen, students, and technical professionals involved in plant design. By the end of the training, participants will be able to create structured P&ID drawings and basic 3D models for engineering projects.
Our process simulation and engineering modules are designed to help participants move from basic understanding to practical industrial application. The training covers Aspen HYSYS simulation, advanced process modeling, heat exchanger thermal design with EDR and HTRI, as well as AutoCAD P&ID and 3D plant modeling. Each module focuses on real engineering workflows, practical case studies, and clear technical guidance for process and plant professionals.
By combining simulation, thermal design, drafting, and plant modeling skills, participants gain a complete understanding of how engineering concepts are applied in real industrial projects. The program supports users in improving design accuracy, evaluating process performance, preparing professional drawings, and making better technical decisions for plant operation, troubleshooting, and project development.
How the Training Works
A clear, practical training process designed to match your level, goals, and real application needs.
We identify your current level, technical background, learning goals, and the topics most relevant to your professional development.
We organize the training around practical modules, clear explanations, guided exercises, and real engineering workflows.
You learn how to apply the training content with more confidence in real projects, technical tasks, and industrial scenarios.
