RE4S010 - Hydro, Tidal, Wave, and Wind 01 May 2020 - 31 Aug 2026 | Version 1

Associated Module Information

Module Code: RE4S010
Module Title: Hydro, Tidal, Wave, and Wind
Faculty: Faculty of Computing, Engineering and Science
Faculty Group: Research and Innovation
Faculty Sub Group: Sustainable Environment Research Centre
Module Leader: James Reed
Module Team:
First Intended Intake: SEP 2020 Final Year of Intake:
Date Closed:
Credit Value: 20 Credit Level: 7
Language: English
Percentage of Module Taught in Welsh: 0
Equivalent Module:
HECOS codes: 100175 - energy engineering
HECOS Code Weighting: 100

Document Version Information

Version 1
Valid From 01 May 2020
Valid To 31 Aug 2026

Module Aims

Understand the physical principles that underpin the design and operation of these renewable energy technologies.

Recognise and apply the methods used to determine and utilise resource statistics for these renewable energy technologies.

Gain an appreciation of the environmental impacts of these renewable energy technologies.

 

Content Summary

Physical Principles: The module explores the common physics that underpin the design and utilisation of renewable energy technologies such as impulse and reaction turbines for extracting energy from water flows, and wind and tidal stream turbines. Alongside this, wave energy systems are analysed in particular surface followers, oscillating water columns and overtopping devices are covered.

Resources: The nature of the available renewable resource is discussed and its implications for how the renewable energy technologies are utilised and integrated into the wider energy system understood. The available resource for each technology is characterised, modelled and applied to generation models for each technology to estimate energy yields for each and specify systems.

Environmental Impacts: The localised and combined socio and environmental impacts and economics of each technology are critically analysed in the context of the production of an Environmental Statement as part of the planning process for a renewable energy installation.

Learning and Teaching Methods

Activity Type Hours
Lecture 33
Practical classes and workshops 3
External visits 6
Independent Study 153
Formative Assessment - Scheduled 5
Total Hours Selected 200

Learning Outcomes

# Learning Outcome
LO1 Understand scientific and technical principles underlying the generation of hydro, tidal, wave, and wind renewable energies.
LO2 Critically appraise the potential of these renewable energy technologies and the strengths and weaknesses of various technologies with reference to selection, design, operation, R&D and economic and environmental impacts.

Module Requisites

N/A

Assessment Criteria

Assessment Category Assessment Type Description Duration Word Count Weight (%) Best of? Pass Mark
Asynchronous Assessment Project 1 Students carry out resource and generation modelling of two different technologies and critically compare the two before coming to conclusions about the feasibility of the two schemes investigated. 0 4000 80 No 40
Asynchronous Assessment Report 1 Students produce a written report on a challenge of their choice related to this module’s topics 0 1000 20 40

Assessment Matrix

Assessment Type Learning Outcomes
LO1 LO2
Project 1
Report 1

Reading List

Peake, S., ed. (2018). Renewable Energy: Power for a Sustainable Future (4th ed.). Oxford: Oxford University Press and Open University

Penche, C. (1998) Layman's Guidebook on how to develop a small hydro site, European Small Scale Hydro Association

Greaves D, Iglesias, G., ed. (2018) Wave and Tidal Energy. John Wiley and Sons inc.

Gasch, R. and Twele J. (Eds.), (2012) Wind power plants: Fundamentals, design, construction and operation (2nd Ed.), Berlin; London: Solarpraxis: James & James.

Meriam, J.L. and Kraige, L.G.,, Bolton., J., N., 2018. Engineering Mechanics: Statics (SI version) 9th ed. . John Wiley and Sons inc.

Meriam, J.L. and Kraige, L.G., Bolton, J., N., 2015. Engineering Mechanics Dynamics (SI version), 8th ed. John Wiley and Sons Inc.

Bird J.O., 2014. Basic Engineering Mathematics, 6th ed. Routledge.

Mackay, D., 2009. Sustainable Energy without the hot air. UIT Cambridge