Solids Modeling Using Aspen Plus

Course ID : EAP2911

Duration In-class (в days) : 2 days

Duration Online : 2 days

Сurriculum : in-class, Virtual Instructor-Led Training - ONLINE

Delivery : 02.06.2025 - 03.06.2025

Price : $ 1290

Overview

Become proficient in modeling processes containing solids handling equipment. Determine optimal process conditions for new or existing solids processes. Support troubleshooting and de-bottlenecking of solids processes.

The original description of the course on the AspenTech website

Audience for this course

    • Process Engineers and Particle Scientists who will be modeling solids processes
    • Engineers and Managers involved in developing and designing solids handling processes
    • Anyone interested in solids modeling

Objective

Prerequisites for this course

EAP 101 Process Modeling using Aspen Plus

Outcomes

    • Gain the practical skills and knowledge to begin modeling new and existing solids processes
    • Learn practical techniques for building and troubleshooting solids models
    • Reduce process design time by testing various plant configurations

Outline

  1. Introduction to Solids Modeling
    • Recognize the importance of solids modeling in industry
    • Understand the differences between modeling solids and fluids
    • Review applications of Aspen Plus solids unit operations
    • Demonstrate how to access literature on processes with solids in Process Manual from Aspen Plus

2. Solids Components

    • Review the types of solid components in Aspen Plus
    • Recognize the required physical properties for modeling Conventional Inert and Non-Conventional solids
    • Explore property model options for solids
    • Recognize if required properties are available in databanks
    • Demonstrate how to enter non-conventional solid components (like wood pulp and coal) in simulation
    • Workshop: Enter solid components and determine available properties for a solids process flowsheet

3. Solids Streams

    • Identify and explain the concept of stream classes in Aspen Plus
    • Discuss how stream classes are used to carry solids attributes
    • Identify how to account for moisture in solids
    • Demonstrate how to create stream classes and apply to a flowsheet section
    • Workshop: Assign stream classes to flowsheet sections of a solids dryer flowsheet

4. Particle Size Distribution (PSD)

    • Discuss how to track PSD and average particle sizes
    • Create PSD Meshes and use PSD functions
    • View PSD graphically with plots
    • View additional PSD values using Property Sets
    • Workshop: Create a PSD mesh and use a PSD function to define a PSD for a urea granulation flowsheet and individual stream

5. Solids Unit Operation Models Overview

    • Differentiate between Simulation and Design modes
    • Discuss use of rigorous versus short-cut calculation methods within each unit operation
    • Review the different unit operation models available for solids modeling
    • Demonstrate a Screen application using multiple solid substreams
    • Workshop: Explore unit operation model modes (Simulation vs Design) and methods (Rigorous vs Conceptual) using a Cyclone model

6. Urea Process Model

    • Review a Urea overall process
    • Discuss the unit operations used to model the granulation process
    • Workshop: Create and run a simple urea granulation process flowsheet containing a granulator, screen and crusher unit operations

7. Results Characterization and Optimization

    • Review stream and block results for solids processes in Aspen Plus
    • Graphically review results using PSD and Separation Efficiency plots
    • Enhance results using Custom Tables to view key operating parameters
    • Workshop: Explore and enhance the results of the urea granulation process flowsheet created in the previous module. Use Sensitivity Analysis to minimize recycle solids flow.

8. Drying Process Models

    • Discuss modeling of dryer and dryer model types in Aspen Plus
    • Understand how to generate a normalized drying curve
    • Discuss belt dryer and fluidized bed dryer operations.
    • Demonstrate modeling of multi-stage Belt dryer
    • Demonstrate modeling of multi-stage fluidized bed dryer
    • Workshop:  Complete and run a single-stage Belt Dryer Process model
    • Workshop: Complete and run a single-stage Fluidized Bed Dryer Process model

9. Solids Reactors

    • Explain how to simulate reactions involving solids using RSTOIC, RYIELD, RCSTR and RGIBBS models
    • Learn how to specify reactor product particle size distribution (PSD)
    • Workshop: Setup a model for the synthesis of ammonium phosphate for fertilizer production

10. Fluid Bed Reactor Process Model

    • Discuss the Fluid Bed solids unit operation model
    • Demonstrate how to add reactions to the Fluid Bed model
    • Workshop: Complete and run a Fluid Bed Reactor Process workshop

11. Pneumatic Conveying

    • Classify the pneumatic conveying processes and modes, for modeling in Aspen Plus
    • Explore the details of using pipe and pipeline unit operations for pneumatic conveying modeling
    • Demonstrate modeling of a Pneumatic Conveying process
    • Demonstrate accessing literature on pneumatic conveying in Process Manual from Aspen Plus help menu
Обучение и сертификация в различных областях информационных технологий по продукции и технологиям мировых лидеров ИТ-рынка
Невский пр, дом 173, литер А
Санкт-Петербург
Санкт-Петербург
Россия
+7 (812) 611-15-75