Thermal response and coupled structural simulation
HEAT TRANSFER & THERMAL-STRESS ANALYSIS WITH ABAQUS TRAINING
This advanced Abaqus training course helps simulation analysts understand both the thermal and mechanical response of structural designs. Participants learn how to perform heat transfer simulations, model temperature-dependent behavior, analyze thermal-stress effects, and apply sequentially-coupled, fully-coupled, and adiabatic workflows in Abaqus.
duration
16 Hours / 2 Days
Level
Advanced
Location
Online, Hybrid, or In-Person
Course Objectives
By the end of this heat transfer and thermal stress analysis course, participants will understand how to model heat transfer and thermal-stress behavior in Abaqus using practical workflows for temperature-driven structural response.
- Perform steady-state and transient heat transfer simulations
- Define thermal boundary conditions, loads, and material properties
- Model thermal interfaces and contact in heat transfer problems
- Solve cavity radiation and forced convection problems
- Model latent heat effects and temperature-dependent behavior
- Perform sequentially-coupled thermal-stress analysis
- Perform fully-coupled thermal-stress analysis
- Understand adiabatic thermal-stress analysis workflows
- Postprocess thermal and structural simulation results
The course is divided into lectures, demonstrations and workshops.
The course’s workshops are integral to the training. They are designed to reinforce concepts presented during the lectures and demonstrations. They are intended to provide users with the experience of running and trouble-shooting actual Abaqus analyses.
COURSE CONTENTS
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1Heat Transfer and Stress Analysis Overview
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2Heat Transfer Basics
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3Geometry, Material Properties, and Elements
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4Analysis Procedures and Convergence
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5Boundary Conditions and Loads
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6Thermal Interfaces
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7Thermal Output and Postprocessing
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8Thermal-Stress Analysis
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9Sequentially-Coupled Thermal-Stress Analysis
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10Fully-Coupled Thermal-Stress Analysis
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11Adiabatic Analysis
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A1Heat Transfer Theory
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A2Forced Convection
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A3Cavity Radiation
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A4Thermal Fatigue
Knowledge Prerequisites
Participants should have completed Introduction to Abaqus or have equivalent Abaqus experience. Prior experience with Abaqus/CAE, structural analysis workflows, and basic heat transfer concepts is recommended.
HEAT TRANSFER & THERMAL-STRESS ANALYSIS WITH ABAQUS COURSE FAQ
Who should attend this Heat Transfer and Thermal-Stress Analysis with Abaqus course?
This course is designed for simulation analysts, structural engineers, thermal engineers, and engineering teams who need to evaluate heat transfer, thermal response, thermal deformation, or the mechanical effects of temperature in Abaqus.
What heat transfer topics are covered in this course?
The course covers steady-state and transient heat transfer, thermal boundary conditions, material properties, thermal interfaces, thermal contact, forced convection, cavity radiation, latent heat effects, and thermal output postprocessing.
What thermal-stress analysis methods are included?
Participants learn sequentially-coupled thermal-stress analysis, fully-coupled thermal-stress analysis, and adiabatic analysis workflows. These methods help evaluate how temperature changes influence structural response, stress, deformation, and performance.
Does this course cover coupled thermal-structural simulation?
Yes. The course introduces both sequentially-coupled and fully-coupled thermal-stress workflows in Abaqus, helping participants understand when each approach is appropriate for temperature-driven structural analysis.
What Abaqus experience is required before taking this course?
Participants should have completed Introduction to Abaqus or have equivalent experience using Abaqus. Familiarity with Abaqus/CAE, structural simulation workflows, and basic heat transfer concepts is recommended.
Can this course be customized for our team’s thermal analysis applications?
Yes. ENA2 can customize this training for your team’s applications, industry, software experience, and project-specific needs. Custom topics may include thermal contact, coupled thermal-stress analysis, temperature-dependent materials, or thermal loading scenarios.