Teaching Responsibility
LJMU Schools involved in Delivery:
LJMU Partner Taught
Learning Methods
Lecture
Tutorial
Module Offerings
6566USST-SEP-PAR
Aims
This module acts as a point of introduction to Finite Element theory, using relevant software to carry out Finite Element studies.
Learning Outcomes
1.
Identify and apply boundary conditions to simulate a variety of single component static problems.
2.
Apply boundary conditions and define component interaction to simulate a variety of multi-component assembly problems.
3.
Apply boundary conditions to simulate steady-state and transient thermal phenomena.
Module Content
Outline Syllabus:
Finite Element Theory:
Mathematical principles underpinning the Finite Element Method.
Arithmetic methods for solving one dimensional stress and displacement problems.
Different element geometries and how they are incorporated into a mesh.
Software Application:
Loads, fixtures, and mesh density for single-part components.
Component interaction for multiple-part assemblies.
Boundary conditions for steady state and transient thermal problems.
2D simplification methods (planar and axi-symmetric).
Selecting edges and faces for local mesh control.
Symmetric boundary conditions for partial models.
Finite Element Theory:
Mathematical principles underpinning the Finite Element Method.
Arithmetic methods for solving one dimensional stress and displacement problems.
Different element geometries and how they are incorporated into a mesh.
Software Application:
Loads, fixtures, and mesh density for single-part components.
Component interaction for multiple-part assemblies.
Boundary conditions for steady state and transient thermal problems.
2D simplification methods (planar and axi-symmetric).
Selecting edges and faces for local mesh control.
Symmetric boundary conditions for partial models.
Additional Information:
This module includes content which relates to the following UN Sustainable Development Goals:
SDG09 – This module considers how Finite Element Analysis (FEA) can be used to accelerate product design lifecycles, and how this can bring products to market at a faster rate, boosting industrial productivity in a sustainable manner.
SDG12 – This module considers how FEA can reduce the need for fabrication and testing of multiple prototype iterations, ultimately reducing waste, and limiting carbon expenditure in product development environments.
This module includes content which relates to the following UN Sustainable Development Goals:
SDG09 – This module considers how Finite Element Analysis (FEA) can be used to accelerate product design lifecycles, and how this can bring products to market at a faster rate, boosting industrial productivity in a sustainable manner.
SDG12 – This module considers how FEA can reduce the need for fabrication and testing of multiple prototype iterations, ultimately reducing waste, and limiting carbon expenditure in product development environments.