Undergraduate Programme and Module Handbook 2010-2011 (archived)
Module ENGI4261: BIOENGINEERING AND ENERGY MARKETS
Department: Engineering
ENGI4261: BIOENGINEERING AND ENERGY MARKETS
Type | Tied | Level | 4 | Credits | 20 | Availability | Available in 2010/11 | Module Cap | None. | Location | Durham |
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Tied to | H100 |
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Tied to | H221 |
Tied to |
Prerequisites
- (ENGI3391 Control and Signal Processing; ENGI3421 Management and Manufacture; ENGI3371 Electrical Engineering; ENGI3291 Thermodynamics and Fluid Mechanics; ENGI3351 Engineering Design; AND ENGI3411 Applied Mechanics OR ENGI3361 Electronics) OR (MEng(Overseas))
Corequisites
Excluded Combination of Modules
Aims
- This module is for students intending to fulfil the requirements of the M.Eng. degree programmes in General Engineering (H100)..
- To introduce methods for the quantification of human motion and the evaluation of anatomical joints.
- To introduce and familiarise students with technologies for restoration of biomechanical integrity.
- To understand why and how market-based solutions have been applied in the electrical supply industry.
- To introduce key elements of microeconomics and theory of the firm.
- To understand key priciples of power system risk assessment and how these may be applied in wind integration studies
Content
- Functional anatomy and body dynamics;
- Functional adaptation of bone;
- Mechanics of human body including force measurements and analysis;
- Struture, function and mechanical properties of hard and soft tissues;
- Tribology of natural and artificial joints;
- Bimaterials including degradation and biocompatibility, and future trends.
- Energy Markets and aspects of market, competition, and pricing
- Energy and risk;including aspects of generation adequacy and reliability needs
Learning Outcomes
Subject-specific Knowledge:
- An ability to describe the basic structure and function of bone, muscle, articular cartilage and passive connective soft tissues.
- A knowledge and understanding of natural joints and prostheses.
- A knowledge and understanding of nature hard and soft tissues and biomaterials.
- A knowledge of acquisition methods for biomechanical data.
- Understanding of the principles of power system economics and how market based solutions can be applied to a previously centrally controlled industry.
- Understanding of how energy is priced and how network affects marginal prices at different locations
- Understanding of methods for quantifying risk in power stations and application to system planning and operation in systems with high renewable capacities
Subject-specific Skills:
- An awareness of current technology, analysis methods and industrial practises along with the ability to apply those methods in novel situations.
- To use effectively specialised, advanced computational tools and packages for the analysis of control systems.
- An ability to use basic mechanical models for soft tissues.
- An ability to analyse loading through joints.
- An in-depth knowledge and understanding of specialised and advanced technical and professional skills, an ability to perform critical assessment and review and an ability to communicate the results of their own work effectively.
Key Skills:
- Capacity for independent self-learning within the bounds of professional practice.
- Highly specialised numerical skills appropriate to an engineer.
- Highly specialised use of information technology (IT) relevant to the engineering profession.
- Mathematics relevant to the application of advanced engineering concepts.
Modes of Teaching, Learning and Assessment and how these contribute to the learning outcomes of the module
- The courses in Bioengineering and Energy Markets are covered in lectures, and are reinforced by seminars and by problem sheets, leading to the required problem solving capability.
- Students are able to make use of staff 'Tutorial Hours' to discuss any aspect of the module with teaching staff on a one-to-one basis.
- Written timed examinations are appropriate because of the wide range of analytical, in-depth material covered in this module and to demonstrate the ability to solve advanced problems independently.
Teaching Methods and Learning Hours
Activity | Number | Frequency | Duration | Total/Hours | |
---|---|---|---|---|---|
Lectures | 38 | 2 per week | 1 Hour | 38 | |
Seminars | 2 | 2 per week ( week 20 ) | 1 Hour | 2 | |
Tutorials | 8 per module | up to 1 hour | 4 | ||
Laboratories | 1 | 2hours | 2 | ■ | |
Preparation and Reading | 156 | ||||
Total | 200 |
Summative Assessment
Component: Coursework | Component Weighting: 25% | ||
---|---|---|---|
Element | Length / duration | Element Weighting | Resit Opportunity |
Research Essay Assignment | 3000words | 75% | no |
Laboratory Report | 1500words | 25% | no |
Component: Examination | Component Weighting: 75% | ||
Element | Length / duration | Element Weighting | Resit Opportunity |
Bioengineering | 2 hours | 67% | No |
Energy Markets and Risk | 1.5 hours | 33% | No |
Formative Assessment:
■ Attendance at all activities marked with this symbol will be monitored. Students who fail to attend these activities, or to complete the summative or formative assessment specified above, will be subject to the procedures defined in the University's General Regulation V, and may be required to leave the University