Module Database Search
| MODULE DESCRIPTOR | |||
|---|---|---|---|
| Module Title | |||
| Advanced Computational Methods in Renewable Energy | |||
| Reference | ENM270 | Version | 1 |
| Created | February 2023 | SCQF Level | SCQF 11 |
| Approved | June 2023 | SCQF Points | 15 |
| Amended | ECTS Points | 7.5 | |
| Aims of Module | |||
|---|---|---|---|
| To enable the student to understand, implement and interpret advanced computational analysis and testing methods in the analysis of complex renewable energy systems. | |||
| Learning Outcomes for Module | |
|---|---|
| On completion of this module, students are expected to be able to: | |
| 1 | Evaluate dynamic behaviour of beam structures through Finite Element analysis and experimental measurements. |
| 2 | Appraise shape functions and element formulations for higher order elements such as beams and plates. |
| 3 | Create models for structural non-linearities by applying Finite Element package. |
| 4 | Synthesise advanced concepts related to complex flow systems, boundary layers, turbulence and thermofluids properties. |
| 5 | Critically evaluate various analytical and numerical analysis techniques for solving complex fluid dynamics problems. |
| Indicative Module Content |
|---|
| Thermofluids: Fundamentals of Fluid Mechanics: the conservation laws and their application, boundary layers, turbulence and thermofluid properties. Computational Fluid Dynamics. Overview of discretisation methods: Finite-difference, Finite-Element, Finite-Volume etc., conduction and convection heat transfer. Validation of CFD. Applications taken from (but not limited to): atmospherics (wind energy), oceanic flows (wave and tidal energy), open and closed channel flow (tidal energy), geothermal. Dynamic analysis: Multi-degree-of-freedom lumped parameter and continuous systems: Lagrangian dynamics. Matrix representation. Dealing with damping. Dynamic analysis using FEM: Elemental mass and stiffness matrices. Eigenvalue extraction. Experimental modal analysis: Vibration measurement. Signal processing requirements. Excitation techniques. Frequency response function. Modal extraction techniques. FEA: Beam Elements: Shape Functions. Higher Order Element Formulations. Structural Non-linearity using FEM: Inelastic materials. Contact Analysis. Newton-Raphson Method. |
| Module Delivery |
|---|
| This module is delivered in both blended learning full-time and online learning part-time modes. For blended learning full-time students, the module will use in-person lectures supplemented with computer labs. For online learning part-time students, the module will use online lectures supplemented with virtual computer labs. Both cohorts will engage in case study work and forum discussions. |
| Indicative Student Workload | Full Time | Part Time |
|---|---|---|
| Contact Hours | 35 | 35 |
| Non-Contact Hours | 115 | 115 |
| Placement/Work-Based Learning Experience [Notional] Hours | N/A | N/A |
| TOTAL | 150 | 150 |
| Actual Placement hours for professional, statutory or regulatory body |
| ASSESSMENT PLAN | |||||
|---|---|---|---|---|---|
| If a major/minor model is used and box is ticked, % weightings below are indicative only. | |||||
| Component 1 | |||||
| Type: | Practical Exam | Weighting: | 100% | Outcomes Assessed: | 1, 2, 3, 4, 5 |
| Description: | Computer-based exam. Students will be provided an indicative model and expected to produce and analyse results based on a given set of input parameters. Exam will be based around analysis of a industry-oriented problem. | ||||
| MODULE PERFORMANCE DESCRIPTOR | |
|---|---|
| Explanatory Text | |
| An overall Grade D is required to pass the module. | |
| Module Grade | Minimum Requirements to achieve Module Grade: |
| A | A |
| B | B |
| C | C |
| D | D |
| E | E |
| F | F |
| NS | Non-submission of work by published deadline or non-attendance for examination |
| Module Requirements | |
|---|---|
| Prerequisites for Module | Normally a UK honours degree, or equivalent, class 2.2 or above and proficiency in English language for academic purposes (IELTS minimum score of 6.5 or equivalent) |
| Corequisites for module | None. |
| Precluded Modules | None. |
| ADDITIONAL NOTES |
|---|
| Part Time refers to Online Learning Part Time (OLPT). |
| INDICATIVE BIBLIOGRAPHY | |
|---|---|
| 1 | VERSTEEG, H. and MALALASEKERA, W., 2007, An introduction to computational fluid dynamics-The finite volume method, 2nd ed. Harlow:Pearson |
| 2 | FERZIGER, JOEL H and MILOVAN PERIC., 2002. Computational methods for fluid dynamics. 3rd ed. Berlin: Springer. |
| 3 | CORREA, J., JUAN, C. A., LOZANO GUZMAN, A. A., 2020. Mechanical vibrations and condition monitoring, London : Academic Press, ISBN : 9780128203903 |
| 4 | SZEIDL, G., KISS, L. P., 2020. Mechanical Vibrations, an introduction. SPRINGER NATURE, ISBN : 9783030450748 |
| 5 | RAO, SINGIRESU S. 2018. Mechanical vibrations in SI units, 6th Edition, Harlow: Pearson, ISBN : 9781292178615 |
| 6 | HAN, Q., WEI, J., HAN, Q., ZHANG, H., 2016. Dynamics and Vibration Analyses of Gearbox in Wind Turbine. Singapore : Springer Singapore, ISBN : 9789811027475 |
| 7 | ZHUMING, B., 2019. Finite Element Analysis Applications: A Systematic and Practical, Academic Press, ISBN 978-0-12-809952-0 |
| 8 | ANDERSON, D. A., TANNEHILL, J. C. and PLETCHER, R. H., 1984.Computational fluid mechanics and heat transfer, Hemisphere Pub. Corp. ISBN: 0070503281 |