Department of
Mechanical, Materials
and Manufacturing
Engineering
This edition of the University of Nottingham Catalogue of Modules went to press on 7th September 2011. It was
derived from information held on the database. The Catalogue is also published on the Web at
http://winster.nottingham.ac.uk/modulecatalogue/. Circumstances may arise which cause a module to be modified
or withdrawn and the database will be updated to reflect this. Thus, if you find a discrepancy between the
information printed here and that published on the Web, you should regard the latter as definitive.
MM1HSF
Autumn Semester
Credits
Credits
Cell Structure and Function for Engineers
Level 1
10
Primarily for students taking Biomedical
Materials Science,
Target students
Semester
Autumn
This module will introduce the following topics
Structure and function of cells and cell organelles Protein
and enzyme structure and function Biosynthesis of cell
components The role of cell membranes in barrier and
transport processes.
Description
Method and frequency of class:
Activity
Duration
No. of
Sessions
Lecture
1 per wk.
2hr0min
One two hour lecture per week (22 hours lectures, 51
hours of self directed study)
Activities may take place every teaching week of the Semester or only in
specified weeks. It is usually specified above if an activity only takes
place in some weeks of a Semester
Assessment
Assessment Type
Exam 1 (100%)
Requirements
Dr CA Scotchford
Convenor
MM1CTD
Credits
Creative Techniques in Design
Level 1
Restricted to 1st year students from the
Department of Mechanical, Materials & Manufacturing
Engineering studying Product Design & Manufacture
Target students
Autumn
This module will teach and develop a range of
creative skills for use in product design. Students will be
introduced to creative theory and the creative processes
central to the work of the designer. Observational studies
will be undertaken to inspire and inform creative activity.
Perspective drawing techniques will be used as a method
of exploring, recording and communicating thoughts and
ideas. Students will also use a number of sketch modelling
techniques to creatively explore their ideas
3-dimensionally.
Description
Method and frequency of class:
Activity
No. of
Sessions
Duration
Lecture
1 per wk.
1hr0min
Practical
1 per wk.
2hr0min
Practical
1 per wk.
1hr0min
Assessment
Assessment Type
Coursework 1 (20%)
Coursework 2 (40%)
Requirements
Observational Design Study Personal Sketchbooks
Creative Sketch Development
Coursework 3 (40%)
3-Dimensional Sketch Modelling
Convenor
Primarily for students taking Biomedical
Materials Science, but intended as an optional introductory
module of relevance to many engineering and physical
science programmes. NOTE: Erasmus/Socretes/Visiting
students MUST take any relevant examinations for this
module in Nottingham at the appropriate time with all
other students in the cohort.
Mr RL Tew
Includes 'study abroad'
Semester
Autumn
This module considers aspects of human
structure and function, and relevant terminology,
pertaining to organ systems of interest to bioengineers
including:
Description
Basic anatomical and medical terminology
Cardiovascular system
Gastrointestinal system
Reproductive and excretory system
Nervous system
The skeletal system will be considered in greater depth
with examples of normal and pathological function and
engineering-based interventions.
Method and frequency of class:
Activity
No. of
Sessions
Lecture
10
Semester
Level 1
10
Target students
Level 1
MM1CSF
Human Structure and Function for
Engineers
2 per wk.
Duration
1hr0min
Activities may take place every teaching week of the Semester or only in
specified weeks. It is usually specified above if an activity only takes
place in some weeks of a Semester
Assessment
Assessment Type
Exam 1 (100%)
Convenor
Dr DS McNally
Requirements
2-hour written examination
MM1MS1
Credits
Mechanics of Solids 1
Level 1
10
Level 2
Primarily for 1st year students in the
Department of Mechanical, Materials and Manufacturing
Engineering. NOTE: Erasmus/Socretes/Visiting students
MUST take any relevant examinations for this module in
Nottingham at the appropriate time with all other students
in the cohort.
MM2BAC
Includes 'study abroad'
Includes 'study abroad'
Target students
Semester
Autumn
An introductory module covering analysis
methods applicable to engineering design including:
Credits
Business Accounting
Level 2
10
NOTE: Erasmus/Socretes/Visiting
students MUST take any relevant examinations for this
module in Nottingham at the appropriate time with all
other students in the cohort.
Target students
Semester
Autumn
Description
Description
Static equilibrium: force and moment analysis in design;
frictional forces
Free body diagrams and Pin-jointed structures
Stress-strain, compatibility and thermal expansion
Multi-axial stress-strain; thin cylinders under pressure
Shear stress and torsion of shafts
Plane stress; Mohr's circle analysis
Beam bending: shear force & bending moment diagrams
2nd moments of area of cross-sections
Bending stresses in beams
financial accounting
stock valuation and depreciation
preparation and adjustment of trial balance sheet
cash flow statement
use of accounting ratios
manufacturing overheads
absorption and variable costing
management accounting.
No. of
Sessions
No. of
Sessions
Duration
Duration
Lecture
1 x 3 hour lecture on the same day everyweek which will
then include lectures, exercises and Seminars
Lecture
2 per wk.
1hr0min
Seminar
1 per wk.
1hr0min
Practical
2 per wk.
3hr0min
1 per wk.
3hr0min
Activities may take place every teaching week of the Semester or only in
specified weeks. It is usually specified above if an activity only takes
place in some weeks of a Semester
Assessment
Assessment
Assessment Type
Exam 1 (80%)
Requirements
2-hour written exam
Coursework 1 (10%)
Assessed laboratory report
Coursework 2 (10%)
Assessed laboratory report
Convenor
Method and frequency of class:
Activity
Method and frequency of class:
Activity
This module will cover basic concepts and
principles of accounting including:
Dr R Brooks
Assessment Type
Exam 1 (80%)
Coursework 1 (20%)
Convenor
Mrs L Screaton
Requirements
2 hour exam
MM2CMS
Credits
Computer Modelling Systems
Level 2
10
Restricted to Second year students from
the Dpt. M3 studying Product Design and Manufacture,
Manufacturing Eng and Management.
Target students
There is a limit to the number of places on this module. Students are
reminded that enrolments which are not agreed by the Offering School in
advance may be cancelled without notice.
This module will teach and develop knowledge
and skills in the uses of two types of software: Computer
aided design software and computer animation and
visualisation software. The two specific packages used on
this module are Pro Engineer wildfire and 3D Studio Max.
The modal aims to develop advanced modelling techniques
in Pro Engineer to enable the student to create most
complex forms through the use of advanced modelling
features and surfacing. 3D Studio Max is taught to enable
these models to be visualised in a photo realistic manner.
The elements of 3D Studio Max to be covered are: Basic
surfaces, surface materials and texture, lighting, rendering
and basic animation.
Description
Method and frequency of class:
Duration
Practical
1 per wk.
1hr0min
Practical
1 per wk.
2hr0min
Assessment
Assessment Type
Coursework 1 (25%)
Requirements
Pro Engineer coursework
Coursework 2 (25%)
3D Studio Max coursework
Coursework 3 (50%)
Combined modelling and
visualisation coursework
Convenor
Mr S Harrison
Level 2
10
Second year undergraduate
Manufacturing, Design Engineering and Product Design
and Manufacture students from M3 Department
only.Exchange students are unable to take thios module
because of resource issues.
Target students
Semester
Autumn
A basic knowledge and understanding of
engineering design and manufacturing technology.
Experience of ProE or similar CAD software is required.
Semester Autumn
Prerequisite
No. of
Sessions
Credits
Design for Manufacture
Prerequisite
Includes 'study abroad'
Activity
MM2DFM
This module will give students experience of
hands-on CAD including solid modelling using ProEngineer
and CAM using MasterCAM packages. The lecture material
will include: Design for manufacture, design for assembly,
rapid prototyping, Manufacturability, jigs and fixtures
design, process planning, group technology and an
estimation of engineering costs and value analysis.
Description
Method and frequency of class:
Activity
No. of
Sessions
Duration
Lecture
1 per wk.
2hr0min
Practical
1 per wk.
2hr0min
2 * 2 hour per week sessions to include lectures,
exercises, case studies and hands-on CAD and CAM lab
activities
Activities may take place every teaching week of the Semester or only in
specified weeks. It is usually specified above if an activity only takes
place in some weeks of a Semester
Assessment
Assessment Type
Exam 1 (50%)
Coursework 1 (50%)
Convenor
Dr RC Cobb
Requirements
1 hour 30 minute exam
to include one CAD exercise & one
CNC programming activity
MM2DPI
Credits
2nd year design projects
Level 2
20
Restricted to Second year students from
the School of Mechanical, Materials and Manufacturing
Engineering studying the H715 Product Design and
Manufacture programme.
Target students
Semester
Autumn
Co-requisite
Code
MM2CMS
MM2DVT
Title
Computer Modelling Systems
Design Visualisation Techniques
This is a project based module for Product
Design and Manufacture students in their 2nd year. The
module comprises 3 projects, introducing a number of
different themes that run through the discipline. Through
practical design work the students will be faced with the
problems of managing different constraints and producing
cohesive design proposals. The students will become
familiar with the process of receiving design briefs,
managing time and resources and presenting design
solutions.
Description
MM2DVT
Credits
Design Visualisation Techniques
Level 2
10
Restricted to Second year students from
the School of Mechanical, Materials and Manufacturing
Engineering studying the H715 Product Design and
Manufacture programme.
Target students
There is a limit to the number of places on this module. Students are
reminded that enrolments which are not agreed by the Offering School in
advance may be cancelled without notice.
Semester
Autumn
Co-requisite
Code
MM2CMS
MM2DPI
Title
Computer Modelling Systems
2nd year design projects
Practical
1 per wk.
4hr0min
The module enables students to develop their
visual presentation skills of design concepts and ideas. It
aims to introduce them to techniques, both computer
based and paper based, that they can further develop
through project work during the remainder of their course.
The software used on the module is Adobe PhotoShop and
Illustrator. Traditional mixed media techniques will also be
explored and areas such as photography and graphical
design will be touched upon. The skills learned will enable
greater competency in the communication of design
proposals.
Practical
1 per wk.
8hr0min
Method and frequency of class:
Method and frequency of class:
Activity
No. of
Sessions
Duration
Description
2 X 4 hour sessions for 10 weeks
Activity
Activities may take place every teaching week of the Semester or only in
specified weeks. It is usually specified above if an activity only takes
place in some weeks of a Semester
Practical
1 per wk.
2hr0min
Practical
1 per wk.
1hr0min
Assessment
Assessment Type
Project 1 (25%)
Requirements
Design project - 1
Project 2 (25%)
Design Project - 2
Project 3 (50%)
Design Project - 3
Convenor
Mr RL Tew
No. of
Sessions
Duration
3 hours per week for 10 weeks CAD Lab work/Design
Studio
Activities may take place every teaching week of the Semester or only in
specified weeks. It is usually specified above if an activity only takes
place in some weeks of a Semester
Assessment
Assessment Type
Coursework 1 (20%)
Coursework 2 (30%)
Coursework 3 (50%)
Convenor
Mr RL Tew
Requirements
Image Manipulation Project using
Adobe Photoshop
Sketching - Design and
Development
Design Presentation Project
MM2EBS
Credits
Engineering Biomaterial Structures
Level 2
10
MM2MAC
Credits
Measurement and Control
Level 2
10
Students entering the Part I stage of
Biomed Materials Science degree OR as an option for
Students entering the Part II or Part III stages of one of
the eng degrees available within the Dept of Mech'l,
Materials, Manuf Eng. NOTE: Erasmus/Socretes/Visiting
students MUST take any relevant examinations for this
module in Nottingham at the appropriate time with all
other students in the cohort.
Target students
Includes 'study abroad'
Semester
Target students
Semester
Autumn
This module is concerned with the
development and facbrication of Biomaterial Structures
including the characterisation and modification of the
physical and chemical properties of biomaterial sturctures.
Particular emphasis will be given to polymeric, metallic
and ceramic structures that can be readily processed,
modified or coated for different biomedical applications.
This will include both porous and solid surface structures.
Examples structures will be investigated from existing
implant materials, inorganic and organic surface
modications to structures for tissue engineering.
Method and frequency of class:
No. of
Sessions
Duration
Lecture
1 per wk.
2hr0min
Lecture
1 per wk.
2hr0min
Assessment
Assessment Type
Requirements
Useen examination 2 hours
Exam 1 (80%)
Assignment (10%)
Short report or online assessmnet
Presentation 1 (10%)
Convenor
Includes 'study abroad'
Autumn
Part 1 - Need for measurement and control
Part 2 - Standards and calibration Measurement and
measurand, Quantification of instruments, Static
calibration of instruments. Part 3 - Dynamic modelling of
systems Dynamic systems, Modelling dynamic systems,
Laplace transform for dynamic systems, Response of
dynamic systems to standard input functions, Transfer
function, block diagrams Part 4 - Dynamic response of
measurement instruments Dynamic performance of
instruments, Zero-order, First-order and Second-order
instruments, Parameters of the responses of instruments
Part 5 - Errors and uncertainty Definition of uncertainty,
Uncertainty evaluation, Uncertainty evaluation in particular
cases Part 6 - Measurement systems Analogue and digital
systems, Data transmission vs. noise, attenuation,
distortion, Analogue and digital data transmission, Signal
conditioning Part 7 - Transducers Position transducers,
Strain, Temperature, Pressure and acceleration
transducers Part 8 - Introduction to automatic systems
What is a control system, Importance of control systems,
Problems in control Part 9 - Open loop control systems
Open loop control, Closed loop control systems, Examples
of closed loop control systems Part 10 - Closed loop
control systems Proportional control systems, Proportional
and integral control system, Proportional and derivative
control system, Proportional – integral - derivative control
system Part 11 - Stability of control systems
Description
Description
Activity
Compulsory for Manufacturing
Engineering and Management students who must take it
either in second year of the course. Available to
JYA/Erasmus students. NOTE: Erasmus/Socretes/Visiting
students MUST take any relevant examinations for this
module in Nottingham at the appropriate time with all
other students in the cohort.
Dr A Campbell Ritchie
Prepared ( 6 - 8 minute) short
presentation
Method and frequency of class:
Activity
No. of
Sessions
Duration
Lecture
1 per wk.
2hr0min
Seminar
1 per wk.
2hr0min
Up to 4 hours per week including lectures, exercise and
example classes. The module includes one laboratory
session which is done in groups of no larger than 5
students. Example class. Lecture.
Activities may take place every teaching week of the Semester or only in
specified weeks. It is usually specified above if an activity only takes
place in some weeks of a Semester
Assessment
Assessment Type
Exam 1 (80%)
Coursework 1 (10%)
Coursework 2 (10%)
Convenor
Dr D Axinte
Requirements
2 hour exam
MM2MID
Credits
Materials in Design
Level 2
10
All 2nd year students within the
Department of M3. NOTE: Erasmus/Socretes/Visiting
students MUST take any relevant examinations for this
module in Nottingham at the appropriate time with all
other students in the cohort.
Target students
Includes 'study abroad'
Semester
This module seeks to develop an
understanding of the role of materials in the design of a
range of components, from consumer goods to large scale
structures. For the purpose of materials selection for
product design, consideration will be given to materials
attributes, engineering context, manufacturing processes
and environmental impact. Strategies for materials
selection will be introduced and use will be made of a
database package, CES (Granta Design). Case studies are
an increasingly popular form of teaching and have an
important role in developing skills and knowledge.
Student-centred activities are based around topics that
demonstrate theoretical concepts in an applied setting.
Method and frequency of class:
No. of
Sessions
1 per wk.
2hr0min
Workshop
2 per wk.
2hr0min
Activities may take place every teaching week of the Semester or only in
specified weeks. It is usually specified above if an activity only takes
place in some weeks of a Semester
Assessment
Coursework 1 (30%)
Convenor
Professor PD Brown
Level 2
10
Primarily Second year students from the
Department of Mechanical, Materials and Manufacturing
Engineering. NOTE: Erasmus/Socrates/Visiting students
MUST take any relevant examinations for this module in
Nottingham at the appropriate time with all other students
in the cohort.
Target students
Semester
Autumn
Prerequisite
Requirements
Materials selection coursework
.
Code
MM1DM1
Title
Design and Manufacture 1
This module examines modern manufacturing
techniques currently being exploited within industry which
result in near net shape parts. Content can be organised
according to the lecture plan for this module; Introduction
and Additive Vs Constant Volume Vs Subtractive Machining
Strategy Micro machining, EDM, finishing - Tool
manufacture Rolling Metal Forming Classification Powder
Metallurgy Surface Coating/Heat treatment Case Study
Description
Method and frequency of class:
Activity
Duration
Lecture
Assessment Type
Exam 1 (70%)
Credits
Near Net Shape Manufacture
Includes 'study abroad'
Autumn
Description
Activity
MM2NNS
No. of
Sessions
Duration
Lecture
1 per wk.
1hr0min
Lecture
1 per wk.
2hr0min
3 hours per week to include lectures, examples classes,
case studies, video presentations and coursework (40%).
Students will be expected to work in groups to complete
the coursework associated with the module.
Activities may take place every teaching week of the Semester or only in
specified weeks. It is usually specified above if an activity only takes
place in some weeks of a Semester
Assessment
Assessment Type
Exam 1 (70%)
Coursework 1 (30%)
Convenor
Dr A Clare
Requirements
1.5 hour exam
Group based assignment
MM3AET
Level 3
Credits
MM3ADM
Advanced Dynamics of Machines
Level 3
Credits 10
Target students
Includes 'study abroad'
Semester
Autumn
This module covers advanced concepts and
analytical techniques used to analyse the dynamics of
mechanical systems. Topics covered include:
Description
Lagrange's equation
Applying Lagrange's equation to derive the governing
equations of motion of dynamical systems
Discrete mass, spring and damper systems, including
single and multi-degree of freedom systems
Continuous systems
Linearising equations of motion
Three-dimensional rigid body dynamics
Using vector mechanics to understand the dynamical
behaviour of rigid body systems moving in
three-dimensions
Various engineering applications are considered, including
gyroscopic sensors
Moving (translating and rotating) reference frames
Absolute velocity and acceleration of a particle
Angular momentum
Torque equations
Momentum equations
Euler dynamical equations
High speed rotating machinery
Applying methods of 3D rigid body dynamics to
understand the dynamical behaviour of rotating machinery
Case studies considered include analysing the influence of
bearing and shaft asymmetry and different damping
mechanisms on the whirl motion and stability of rotating
machines
No. of
Sessions
Lecture
1 per wk.
Convenor
Dr S McWilliam
Semester Autumn
Prerequisite
An introduction to key aircraft design
technologies, this module includes: Aerodynamics - Lift
and Drag. Three dimensional wings. Compressibility effects
Performance - effects of altitude. Manoeuvres in vertical
and horizontal planes Powerplant - engine types. Selection
criteria. Elements of stability and control Airworthiness
requirements and standards
Description
Method and frequency of class:
Activity
No. of
Sessions
Lecture
Duration
1 per wk.
2hr0min
Assessment
Assessment Type
Requirements
one 2 hour exam
Exam 1 (80%)
written report, 3000 words
(maximum)
Coursework 1 (20%)
Dr JSB Mather
Convenor
MM3AUT
Credits
Introduction to Automotive Technology
Level 3
10
H3 courses. NOTE:
Erasmus/Socretes/Visiting students MUST take any
relevant examinations for this module in Nottingham at
the appropriate time with all other students in the cohort.
Target students
2hr0min
Description
Assessment
Coursework 1 (15%)
Includes 'study abroad'
Semester Autumn
Prerequisite
Activities may take place every teaching week of the Semester or only in
specified weeks. It is usually specified above if an activity only takes
place in some weeks of a Semester
Exam 1 (85%)
Primarily intended for 3rd year students
in the School of Mechanical, Materials and Manufacturing
Engineering following the Mechanical Engineeing
(Aerospace) course. NOTE: Erasmus/Socretes/Visiting
students MUST take any relevant examinations for this
module in Nottingham at the appropriate time with all
other students in the cohort.
Duration
One 2-hour lecture per week.
Assessment Type
Level 3
10
Target students
Includes 'study abroad'
Method and frequency of class:
Activity
Introduction to Aerospace Technology
Requirements
2 hour exam
Analytical/Computational
Assignment: 1500 words
For each of the following subject areas, the
historical evolution of design of the component is
considered with regard to the influences of performance
optimisation, cost, and legislative requirements: • Engine
(i.c. types and development trends, fuel economy and
emissions, alternative and hybrid powertrains) •
Transmission (manual and auto gearbox, differential, 2and 4WD systems) • Body/chassis (skeletal and unitary
constructions, crashworthiness, aerodynamics) • Control
systems (steering and linkage, braking inc. ABS and
traction/stability control) • Suspension (arrangements,
handling/dynamics)
Method and frequency of class:
Activity
No. of
Sessions
Lecture
1 per wk.
Duration
2hr0min
Activities may take place every teaching week of the Semester or only in
specified weeks. It is usually specified above if an activity only takes
place in some weeks of a Semester
Assessment
Assessment Type
Exam 1 (100%)
Convenor
Professor NA Warrior
Requirements
one 2 hour exam
MM3BAB
Credits
Biomedical Applications of Biomaterials
Level 3
20
Primarily for students taking Biomedical
Materials Science and Mechanical Engineering
(Bioengineering). NOTE: Erasmus/Socretes/Visiting
students MUST take any relevant examinations for this
module in Nottingham at the appropriate time with all
other students in the cohort.
Target students
Includes 'study abroad'
Semester
Autumn
This module is concerned with the biomedical
application of materials. It addresses three key areas: 1.
The clinical need for materials in medicine. An outline of
cases where disease and trauma can be treated using
materials and the tissues involved. 2. The biological
responses to materials in the body. Specifically the effect
of the biological environment on materials and the effect
of implantation of materials on the body. 3. The
application of materials in medicine. The material
requirements, surgical procedures and expected biological
performance of biomaterials. The advantages and
disadvantages of using different types of materials and the
importance of the design of medical implants.
Description
Method and frequency of class:
Activity
No. of
Sessions
1 per wk.
2hr0min
Practical
1 per wk.
2hr0min
Assessment
Requirements
closed book exam. 2 hours.
Coursework 1 (20%)
Laboratory report
Coursework 2 (20%)
Clinical observation report
Dr CA Scotchford
Convenor
MM3CAE
Credits
Computer Aided Engineering
Primarily students registered on
BEng/MEng Design Engineering (core module) plus
optional for BEng/MEng Mechanical Engineering and
Product Design and Manufacture programmes.
Target students
There is a limit to the number of places on this module. Students are
reminded that enrolments which are not agreed by the Offering School in
advance may be cancelled without notice.
Autumn
Alternatively Product Design and Manufacture
students who have completed MM2CMS may register
Code
MM2DM2
Title
Design and Manufacture 2
This module includes further development of
modelling and analysis techniques within CAE (currently
ProEngineer) introduced in MM1DM1 and MM2DM2 to
enable the student to create, display and analyse complex
forms and assemblies. Various elements of CAE will be
covered including, solid & surface modelling, rendering
and analysis. Review of the CAE software and industry.
Description
Method and frequency of class:
No. of
Sessions
Practical
1 per wk.
Duration
3hr0min
Assessment
Assessment Type
Coursework 1 (30%)
Requirements
Advanced modelling assignment
Coursework 2 (50%)
Analysis assignment
Coursework 3 (20%)
Group Presentation
Convenor
Properties of glass, ceramic and glass-ceramic
materials; Importance of viscosity, characteristic
temperatures, TEC, annealing & disannealing on properties
and production of glasses; Nucleation and crystal growth
and its importance to properties and production of
glasses; Fabrication procedures for glasses, ceramics,
glass-ceramics and optical fibres; Overview of optical
fibres, signal attenuation and amplification
Method and frequency of class:
Activity
No. of
Sessions
Lecture
Dr K Bond
Duration
1 per wk.
2hr0min
22 hours of lectures and one case study.
Activities may take place every teaching week of the Semester or only in
specified weeks. It is usually specified above if an activity only takes
place in some weeks of a Semester
Assessment
Assessment Type
Requirements
one 2-hour examination
Exam 1 (75%)
Professor AB Seddon
Computer Modelling Techniques
Level 3
Credits 10
Target students
Includes 'study abroad'
Semester Autumn
Prerequisite
Code
MM2CPM
Title
Computer Programming
Introduction of numerical approximations for
partial differential equations (PDEs) 1-D FE problem 1-D
FD and FV problem Truss elements & structures
Symmetries CDF Quality assurance in modelling
Description
Method and frequency of class:
Activity
No. of
Sessions
Lecture
1 per wk.
Duration
2hr0min
Assessment
Assessment Type
Requirements
Exam 1 (70%)
Coursework 1 (15%)
Assignment 1
Coursework 2 (15%)
Assignment 2
Convenor
Prerequisite
Activity
Autumn
Description
Level 3
10
Semester
Semester
MM3CMT
Activities may take place every teaching week of the Semester or only in
specified weeks. It is usually specified above if an activity only takes
place in some weeks of a Semester
Exam 1 (60%)
Level 3
Credits 10
Target students
Convenor
Twelve 2-hour lectures, 12 hours of laboratory, 12 hours
clinical observations.
Assessment Type
High Performance Ceramics and Glasses
Coursework 1 (25%)
Duration
Lecture
MM3CAG
Dr S Li
MM3CNG
Credits
Concurrent Engineering
MM3CSP
Cell Structure and Function for Engineers
(by distance learning)
Level 3
10
NOTE: Erasmus/Socretes/Visiting
students MUST take any relevant examinations for this
module in Nottingham at the appropriate time with all
other students in the cohort.
Credits
Includes 'study abroad'
Description
Target students
Semester
Autumn
This module introduces the fundamental
principles, tools and techniques required for concurrent
engineering from both technological and managerial
perspectives. The module concentrates on product design
and the integration of design and manufacture.
Description
Method and frequency of class:
Activity
No. of
Sessions
Duration
Lecture
1 per wk.
2hr0min
Tutorial
1 per wk.
1hr0min
Level 3
10
Primarily for students taking
Bioengineering MSc part-time
Target students
Semester
Autumn
This module will introduce the following topics
Structure and function of cells and cell organelles Protein
and enzyme structure and function Biosynthesis of cell
components The role of cell membranes in barrier and
transport processes.
Method and frequency of Class:
CThis module is intended for distance learning. course
content will be available via the University website 24
hours a day with tutorial support provided by email
Assessment
Assessment Type
Up to 3 hours per week including lectures, video
presentations, case studies and hands-on design for
manufacture and assembly. Optional drop-in sessions.
Dr CA Scotchford
Convenor
MM3DES
Group Design Project
Activities may take place every teaching week of the Semester or only in
specified weeks. It is usually specified above if an activity only takes
place in some weeks of a Semester
Credits
Assessment
Semester
Assessment Type
Prerequisite
Requirements
1 hour 30 minute exam
Exam 1 (60%)
Coursework 1 (40%)
Dr J Folkes
Convenor
MM3CSF
Credits
Cell Structure and Function for Engineers
Level 3
10
Primarily for students taking Mechanical
Engineering (Bioengineering), Bioengineering MSc (Full
time) and Biomedical Materials Science.
Target students
Semester
Autumn
This module will introduce the following topics
Structure and function of cells and cell organelles Protein
and enzyme structure and function Biosynthesis of cell
components The role of cell membranes in barrier and
transport processes.
Description
No. of
Sessions
Lecture
1 per wk.
Duration
2hr0min
One two hour lecture per week (22 hours lectures, 51
hours of self directed study)
Activities may take place every teaching week of the Semester or only in
specified weeks. It is usually specified above if an activity only takes
place in some weeks of a Semester
Assessment
Assessment Type
Exam 1 (100%)
Convenor
Dr CA Scotchford
Requirements
Level 3
10
Target students
BEng Mechanical and Design Engineers
Autumn
A good grounding in design and all aspects of
mechanical engineering at undergraduate level. Experience
in using CAD software based on 3D Modelling (e.g.
PRO|Engineer)
Code
MM2DM2
Title
Design and Manufacture 2
The project involves 3 or 4 students working
as a team to design a product from initial concept to fully
engineered drawings. Starting from a design brief
prepared by the supervisor, the group will be required to
devise and evaluate alternative design concepts,
undertake the detailed engineering analysis and
mechanical design, select suitable materials and methods
of manufacture and assess costs and the marketability of
the product.
Description
Method and frequency of class:
Activity
Method and frequency of class:
Activity
Requirements
Exam 1 (100%)
No. of
Sessions
Duration
Lecture
1 per wk.
1hr0min
Tutorial
1 per wk.
1hr0min
Seminar
1 per wk.
1hr0min
The project is of 9 weeks' duration. There will be regular
weekly contact with the supervisor and students are
responsible for arranging their own group meetings..
Activities may take place every teaching week of the Semester or only in
specified weeks. It is usually specified above if an activity only takes
place in some weeks of a Semester
Assessment
Assessment Type
Coursework 1 (75%)
Coursework 2 (25%)
Convenor
Mr J Prentice
Requirements
Design drawings/diagrams and the
associated 4000 word report
Continuous and Peer assessment of
each students planning, initiative,
judgement and insight
MM3EM1
Credits
Energy Efficiency for Sustainability 1
Level 3
10
MM3EM2
Credits
Energy Efficiency for Sustainability 2
Level 3
10
Students on any degree course who have
a basic knowledge of maths and the principles of
thermodynamics. Cannot be taken by students on the
Mech Eng, Chem Eng or Architectural Env't Eng degree
courses. Cannot be taken with MM3EM2. NOTE:
Erasmus/Socretes/Visiting students MUST take any
relevant exams for this module in Nottingham at the
appropriate time with all other students in the cohort.
Target students
Includes 'study abroad'
Semester
Target students
Semester
Autumn
Patterns of energy use in UK and globally;
fossil fuel resources. Renewable energy resources and
technology and applications in UK. Sources and control of
pollution from combustion of fuels. Global warming:
causes, impact and mitigation measures. 1st Law of
Thermodynamics (NFEE,SFEE); Elementary heat transfer
theory: conduction (Fourier's law and simple 1-D
conduction), convection (use of correlations) and radiation
concepts. 2nd Law of thermodynamics: Entropy,
reversibility, efficiency of energy conversion processes and
application to practical machines and systems. Application
of thermodynamics to heat exchangers for energy
recovery. Heating and Cooling in Buildings: - Application of
thermodynamics and heat transfer to efficient heating,
ventilating and cooling of buildings. Heat and Power
Conversion Systems: - Power generation cycles and
technologies. Combined heat and power plant systems
including economic analysis. Heat pumps and refrigeration
systems. Use of exergy analysis to analyse and improve
energy systems. Combustion reactions - fuels and
products of combustion. Energy analysis of combustion
processes. Calculation of combustion efficiency and
implications for efficient plant design and operation.
Economic analysis of energy saving investments. Energy
management techniques: energy auditing, analysis of
consumption data, monitoring techniques, targeting
techniques for reduced energy consumption, identifying
energy saving opportunities.
Description
Method and frequency of class:
Activity
No. of
Sessions
Lecture
1 per wk.
Duration
3hr0min
Assessment
Assessment Type
Exam 1 (80%)
Coursework 1 (20%)
Convenor
Dr SJ Pickering
Requirements
1.5 hour exam - must be scheduled
at same time and in same place as
MM3EM2
Any student on any degree with a sound
understanding of engineering thermodynamics. E.g.
Mechanical Engineering and Chemical Engineering
students. Cannot be taken with MM3EM1. NOTE:
Erasmus/Socretes/Visiting students MUST take any
relevant examinations for this module in Nottingham at
the appropriate time with all other students in the cohort.
Includes 'study abroad'
Autumn
Equivalent thermodynamics to
Thermodynamics 1 and 2.
Prerequisite
Code
MM1TF1
MM2TF2
Title
Thermodynamics & Fluid Mechanics 1
Thermodynamics & Fluid Mechanics 2
Patterns of energy use in UK and globally;
fossil fuel resources. Renewable energy resources and
technology and applications in UK. Sources and control of
pollution from combustion of fuels. Global warming:
causes, impact and measures to combat it. 2nd Law of
thermodynamics: - Entropy, reversibility, efficiency of
energy conversion processes and application to practical
machines and systems. Heat Exchangers: - Application of
thermodynamics to heat exchangers for energy recovery.
Heat exchanger types, heat recovery systems and
analysis. Heating and Cooling in Buildings: - Application of
thermodynamics and heat transfer to efficient heating,
ventilating and cooling of buildings. Steady state thermal
balances. Power Generation Systems: - Description and
analysis of technologies for power generation Heat and
Power Conversion Systems: - Combined heat and power
plant systems and analysis. Heat pumps and refrigeration
systems. Energy Systems Analysis: - Use of exergy
analysis to analyse and improve energy systems.
Calculation of combustion efficiency and implications for
efficient plant design and operation. Combustion of waste
and biomass fuels. Condensing boilers. Economic analysis
of energy saving investments. Energy management
techniques: energy auditing, analysis of consumption data,
monitoring techniques, targeting techniques for reduced
energy consumption, identifying energy saving
opportunities.
Description
Method and frequency of class:
Activity
No. of
Sessions
Lecture
1 per wk.
Duration
3hr0min
Assessment
Assessment Type
Exam 1 (80%)
Coursework 1 (20%)
Convenor
Dr SJ Pickering
Requirements
Exam - must be at same time and in
same place as MM3EM1
case study report
MM3ENI
Credits
Elements of Noise Investigation
Level 3
10
NOTE: Erasmus/Socretes/Visiting
students MUST take any relevant examinations for this
module in Nottingham at the appropriate time with all
other students in the cohort.
Target students
Includes 'study abroad'
Semester
A module in noise control for engineers,
covering the generation and radiation of sound from many
industrial situations, nuisance and deafness, current
legislation and modern methods of noise control.
Method and frequency of class:
Duration
No. of
Sessions
Lecture
1 per wk.
2hr0min
Assessment
Assessment Type
Exam 1 (100%)
Requirements
MM3FAM
Credits
Flexible Automated Manufacture
Level 3
NOTE: Erasmus/Socretes/Visiting
students MUST take any relevant examinations for this
module in Nottingham at the appropriate time with all
other students in the cohort.
Target students
Includes 'study abroad'
MM2AUT or equivalent knowledge which
should cover: sound knowledge of machining process and
conventional manufacturing systems; basic knowledge of
robotics, numerical control and general automation
principles; and basic knowledge of computer systems.
Code
MM2AUT
Title
Automated Manufacture
This module gives students a detailed
understanding of the important aspects of advanced
automated manufacturing principles. Links to computer
integrated manufacturing and implications of mass
customisation on automated manufacturing systems are
being explored. The impact of enterprise agility on their
manufacturing facilities is being examined. Procedures for
assessing the advantages and disadvantages of various
systems are examined through the use of case studies.
Description
Method and frequency of class:
No. of
Sessions
Duration
Lecture
1 per wk.
2hr0min
Seminar
1 per wk.
2hr0min
Workshop
1 per wk.
2hr0min
Assessment
Assessment Type
Exam 1 (70%)
Coursework 1 (30%)
Convenor
Dr N Lohse
Semester
Autumn
An introductory module on finite element
analysis, covering: - Structural analysis - Derivation of
finite element equations using energy consideration Practical applications of finite elements in stress analysis
problems - Linear and quadratic elements - Beam, plate
and shell elements - Examples of finite element
applications - An overview of non-linear problems Introduction to thermal problems This module does not
cover computer programming or computer use of
commercial finite element codes.
Description
Requirements
1.5 hour exam
Group Project: FAM design for
product families.
Duration
No. of
Sessions
Lecture
1 per wk.
2hr0min
Assessment
Assessment Type
Requirements
2 hour exam
Exam 1 (100%)
Professor AA Becker
Convenor
MM3HSF
Autumn
Prerequisite
Activity
Mechanical and Civil Engineering and
Mathematics with Engineering students NOTE:
Erasmus/Socretes/Visiting students MUST take any
relevant examinations for this module in Nottingham at
the appropriate time with all other students in the cohort.
Activity
10
Semester
Level 3
10
Target students
Method and frequency of class:
Dr JSB Mather
Convenor
Credits
Finite Element Analysis
Includes 'study abroad'
Autumn
Description
Activity
MM3FEA
Credits
Human Structure and Function for
Engineers
Level 3
10
Primarily for students taking Mechanical
Engineering (Bioengineering) and Biomedical Materials
Science, but intended as an optional introductory module
of relevance to many engineering and physical science
programmes. NOTE: Erasmus/Socretes/Visiting students
MUST take any relevant examinations for this module in
Nottingham at the appropriate time with all other students
in the cohort.
Target students
Includes 'study abroad'
Semester
Autumn
This module considers aspects of human
structure and function, and relevant terminology,
pertaining to organ systems of interest to bioengineers
including:
Description
Basic anatomical and medical terminology
Cardiovascular system
Gastrointestinal system
Reproductive and excretory system
Nervous system
The skeletal system will be considered in greater depth
with examples of normal and pathological function and
engineering-based interventions.
Method and frequency of class:
Activity
No. of
Sessions
Lecture
2 per wk.
Duration
1hr0min
Activities may take place every teaching week of the Semester or only in
specified weeks. It is usually specified above if an activity only takes
place in some weeks of a Semester
Assessment
Assessment Type
Exam 1 (100%)
Convenor
Dr DS McNally
Requirements
2-hour written examination
MM3HSP
Credits
Human Structure and Function for
Engineers (by distance learning)
Level 3
10
Primarily for students taking
Bioengineering MSc, but intended as an optional
introductory module of relevance to many engineering and
physical science programmes. NOTE:
Erasmus/Socretes/Visiting students MUST take any
relevant examinations for this module in Nottingham at
the appropriate time with all other students in the cohort.
Target students
Includes 'study abroad'
Semester
Autumn
This module considers aspects of human
structure and function, and relevant terminology,
pertaining to organ systems of interest to bioengineers
including:
Description
Basic anatomical and medical terminology
Cardiovascular system
Gastrointestinal system
Reproductive and excretory system
Nervous system
The skeletal system will be considered in greater depth
with examples of normal and pathological function and
engineering-based interventions.
Method and frequency of Class:
This module is intended for distance learning. The material
will largely be delivered by WebCT with e-mail tutorial
support
Assessment
Assessment Type
Exam 1 (100%)
Convenor
Dr DS McNally
Requirements
2-hour written examination
MM3MEC
Credits
Mechatronics
Level 3
10
NOTE: Erasmus/Socretes/Visiting
students MUST take any relevant examinations for this
module in Nottingham at the appropriate time with all
other students in the cohort.
Target students
Includes 'study abroad'
Semester
Autumn
This module exploits the LabView interfacing
environment and associated hardware to introduce the use
of digital computers for signal acquisition from test
equipment and the control of electro-mechanical systems.
It includes the study of computer architecture, real-time
computing issues, analogue and digital interfaces,
programming techniques, sensors and electro-mechanical
actuators in order to implement tasks such as data capture
and analysis and motion control. Specifically the module
will be in four parts: Part 1: Computer architecture; FPGAs
vs. microprocessors. Digital input and output;
timer-counters. Part 2: Real-time programming: the
LabView programming language, concurrency, latency.
Program structure – state tables. Part 3: A/D and D/A
conversion, multiplexers, aliasing, settling time. Part 4:
Sensors, transducers and actuators: overview and revision
of 1st year material. System integration using LabView.
Motion control using NI hardware.
Description
Method and frequency of class:
Activity
No. of
Sessions
Duration
Lecture
1 per wk.
2hr0min
Practical
1 per wk.
3hr0min
Students will attend 22 hours of lectures covering the four
taught elements of the module. They will also attend three
practical sessions each, consisting of the practical aspects
of the following exercises: - Introduction to LabView for
digital i/o & counting/timing - LabView for user interfaces;
concurrency, looping and data conversion - System
integration in context of motion control
Activities may take place every teaching week of the Semester or only in
specified weeks. It is usually specified above if an activity only takes
place in some weeks of a Semester
Assessment
Assessment Type
Exam 1 (75%)
Coursework 1 (5%)
Coursework 2 (10%)
Coursework 3 (10%)
Convenor
Dr IA Jones
Requirements
1.5 hour exam
Introduction to LabView and
computer interfacing
LabView assignment on data
conversion: programming exercise
and laboratory testing
LabView assignment: interfacing an
actuator
MM3MEP
Credits
Mechanical Engineering Project
Level 3
40
MM3MN2
Credits
Management Studies 2
Level 3
10
The project may only be taken by
occasional students studying at Nottingham as part of an
international student exchange scheme. NOTE:
Erasmus/Socretes/Visiting students MUST take any
relevant examinations for this module in Nottingham at
the appropriate time with all other students in the cohort.
Target students
Includes 'study abroad'
Semester
Target students
Semester
Autumn
The project gives experience in the practice of
engineering at a professional level. It involves the
planning, execution and reporting of a programme of work
which will normally involve a mixture of experimental,
theoretical and computational work together with a review
of relevant previous work in the field. The detailed content
is a matter for discussion between the student and his/her
supervisors in Nottingham and the home institution.
Method and frequency of Class:
There will be regular contact with the supervisor.
Assessment
Assessment Type
Coursework 1 (80%)
Requirements
Written report
Coursework 2 (20%)
Continuous assessment of each
student's planning, initiative,
judgement and insight
Professor AA Becker
MM3MM
Credits
Level 3
10
NOTE: Erasmus/Socretes/Visiting
students MUST take any relevant examinations for this
module in Nottingham at the appropriate time with all
other students in the cohort.
Target students
Includes 'study abroad'
Semester Autumn
Prerequisite
An advanced module dealing with material
constitutive models and modes of failure in complex
engineering components. The topics covered include.
Description
Elasticity
Plasticity
Fatigue
Fracture Mechanics
Creep and Stress Relaxation
Impact
Anisotropy
Method and frequency of class:
No. of
Sessions
Lecture
1 per wk.
Duration
2hr0min
Assessment
Assessment Type
Exam 1 (100%)
Convenor
Autumn
The module introduces students to
programme management, the principles of English law,
marketing, risk and quality management. The main topics
included are: Life Cycle Costing; Project Evaluation;
Project selection; Financial evaluation, Discounted Cash
Flow, Putting the Programme Together; The P.E.R.T
technique, Events diagrams, Risk Management; Evaluating
risk, Risk contingency, Fault trees, Failure Mode and Effect
Analysis, Monitoring the Programme; Milestones, Earned
Value Analysis, Cost and schedule performance indices,
Marketing; Marketing methods, Price and volume analysis,
Customer evaluation, The power of brands, Quality
Management; Six-Sigma quality, Six-Sigma tools,
Statistical process control, An introduction to English Law;
The origins or English law, The Legal Structure, Civil law,
Criminal law, Contract law.
Dr W Sun
Method and frequency of class:
Activity
Material Models and Modes of Failure
Activity
Includes 'study abroad'
Description
Description
Convenor
This is a compulsory module for
Mechanical Engineering students. Students from other
courses and faculties, seeking a good understanding of a
wide range of management topics, will find this module to
be useful.
Requirements
2 hour exam.
No. of
Sessions
Lecture
1 per wk.
Duration
2hr0min
Assessment
Assessment Type
Exam 1 (100%)
Convenor
Professor J A Dominy
Requirements
two hour examination
MM3MPC
Credits
Manufacturing Process Capability
Level 3
10
Third year Product Design and
Manufacture, and Manufacturing Engineering and
Management students. Available to JYA/Erasmus students.
Target students
Includes 'study abroad'
Semester
The module will give students in depth
understanding of technical capability of modern
manufacturing processes in relation to product design.
This will enable the analysis of various manufacturing
processes, tooling designs/machinery and their capability
to achieve the required product quality measures. Firstly,
The module will discuss the capability of some single
manufacturing processes in respect to: particularities in
tooling designs; characteristic machinery calculations;
workpiece materials and their mechanical/metallurgical
properties after processing; dimensional/geometrical
tolerance of manufactured components, surface finish;
part geometrical restrictions; process productivity; cost
analysis in relation to the production scale. Secondly, the
module will take into discussion the capability of
interconnected manufacturing processes in respect to:
compatibility of coupling manufacturing processes;
production size; cost analysis on interconnected
manufacturing processes.
Method and frequency of class:
No. of
Sessions
Duration
Lecture
1 per wk.
2hr0min
Seminar
1 per wk.
2hr0min
Activities may take place every teaching week of the Semester or only in
specified weeks. It is usually specified above if an activity only takes
place in some weeks of a Semester
Assessment
Assessment Type
Exam 1 (60%)
Coursework 1 (20%)
Coursework 2 (20%)
Convenor
Dr D Axinte
Credits
Processing of Engineering Alloys
Level 3
10
MSc taught post-graduate students, and
3rd/4th year undergraduates in the Department of M3.
NOTE: Erasmus/Socretes/Visiting students MUST take any
relevant examinations for this module in Nottingham at
the appropriate time with all other students in the cohort.
Target students
Includes 'study abroad'
Autumn
Description
Activity
MM3PEA
Requirements
Knowledge of evaluating the
capability of various manufacturing
processes
Knowledge of basic manufacturing
processes
Advanced knowledge of
manufacturing technology and
engineering design
Semester Autumn
Prerequisite
Code
MM1IMF
Title
Introduction to materials and materials forming
This module covers the principles and practice
related to processing, structure and properties of
engineering alloys. The emphasis is on understanding the
importance of process control to achieve desired
properties through the formation of correct microstructural
features. Topics covered include: • equilibrium
microstructural development - construction and
interpretation of phase diagrams including quantitative
prediction of microstructure • the kinetics of phase
transformations - the TTT diagram and diffusionless
transformations • thermal processing such as precipitation
hardening, heat treating and annealing • forming
operations for metal alloys • Practical examples using
important metal alloy systems such as steels, aluminium
alloys and Nickel superalloys.
Description
Method and frequency of class:
Activity
No. of
Sessions
Lecture
1 per wk.
Duration
2hr0min
Assessment
Assessment Type
Exam 1 (100%)
Convenor
Dr NM Everitt
Requirements
MM3POE
Credits
Polymer Engineering
Level 3
10
Undergraduate and postgraduate
students in the Faculty of Engineering, in particular those
from the Department of Mechanical, Materials and
Manufacturing Engineering and the Department of
Chemical and Environmental Engineering NOTE:
Erasmus/Socretes/Visiting students MUST take any
relevant examinations for this module in Nottingham at
the appropriate time with all other students in the cohort.
Target students
Includes 'study abroad'
Semester
Autumn
A broad-based module covering the
chemistry, material properties and manufacturing methods
relevant to polymers. Topics include: 1. Polymer chemistry
and structure 2. Routes to synthesis, polymerisation
techniques, practical aspects of industrial production 3.
Viscoelasticity, time-temperature equivalence 4. Rheology
of polymer melts, heat transfer in melts, entanglements 5.
Properties of solid polymers, yield and fracture, crazing 6.
Manufacturing with polymers, extrusion,
injection-moulding 7. Design/ proceesing interactions for
plastic products
Description
Method and frequency of class:
Activity
No. of
Sessions
Duration
Lecture
1 per wk.
2hr0min
Seminar
1 per wk.
1hr0min
Self-study design/processing exercise and associated
coursework.
Activities may take place every teaching week of the Semester or only in
specified weeks. It is usually specified above if an activity only takes
place in some weeks of a Semester
Assessment
Assessment Type
Requirements
2 hour exam
Exam 1 (80%)
Coursework 1 (20%)
report on multidisciplinary design
exercise covering the chemistry,
processing and properties of a
polymeric product
Dr D De Focatiis
Convenor
MM3RSA
Credits
RSA Design Projects
Level 3
20
Target students
Manufacture
Students undertakng Product Design and
Semester Autumn
Prerequisite
Code
MM2CMS
MM2DVT
MM2DPI
MM2DPG
Title
Computer Modelling Systems
Design Visualisation Techniques
2nd year design projects
2nd year group design project
This is a project based module for Product
Design and Manufacture students in their 3rd year. The
module comprises of 2 projects, developing a number of
different themes that run through the discipline. Through
practical design work the students will be faced with the
problems of managing different constraints and producing
cohesive design proposals. The students will develope
their skills in receiving design briefs, managing time and
resources and presenting design solutions.
Description
Method and frequency of class:
Activity
Duration
No. of
Sessions
Practical
1 per wk.
4hr0min
Practical
1 per wk.
8hr0min
Activities may take place every teaching week of the Semester or only in
specified weeks. It is usually specified above if an activity only takes
place in some weeks of a Semester
Assessment
Assessment Type
Coursework 1 (70%)
Requirements
RSA Design Directions project
Coursework 2 (30%)
Individual Design Project
Mr S Harrison
Convenor
Level 4
MM4ABS
Credits
Advanced Biomaterial Structures
Level 4
10
Students registered for MSc in
Bioengineering NOTE: Erasmus/Socretes/Visiting students
MUST take any relevant examinations for this module in
Nottingham at the appropriate time with all other students
in the cohort.
Target students
MM3PR1
Short Individual Project
Level 3
Credits 20
Target students
Semester
Autumn
The project aims to give experience in the
practice of engineering at a professional level. It involves
the planning, execution and reporting of a programme of
work which will normally involve a mixture of
experimental, theoretical and computational work together
with a review of relevant previous work in the field. The
detailed content is a matter for discussion between the
student and his/her supervisor.
Description
Method and frequency of Class:
The project is of 10 weeks' duration. There will be regular
contact with the supervisor.
Assessment
Assessment Type
Requirements
Coursework 1 (70%)
20 minute presentation
Oral (10%)
Coursework 2 (20%)
Convenor
Continuous assessment of each
student's planning, initiative,
judgement and insight
Professor AA Becker
Includes 'study abroad'
Semester
Autumn
This module is concerned with the
development and fabrication of Biomaterial Structures
including the characterisation and modification of the
physical and chemical properties of biomaterial sturctures.
Particular emphasis will be given to polymeric, metallic
and ceramic structures that can be readily processed,
modified or coated for different biomedical applications.
This will include both porous and solid surface structures.
Examples structures will be investigated from existing
implant materials, inorganic and organic surface
modications to structures for tissue engineering.
Description
Method and frequency of class:
Activity
No. of
Sessions
Lecture
1 per wk.
Duration
2hr0min
Assessment
Assessment Type
Exam 1 (80%)
Assignment (10%)
Presentation 1 (10%)
Convenor
Dr A Campbell Ritchie
Requirements
Useen examination 2 hours
Poster case study
Short presentation
MM4ADM
Credits
Advanced Materials
Level 4
10
MM4AMC
Credits
Advanced Materials Characterisation
Level 4
10
Target students
Students in the final year of Materials
based undergraduate degree or Mech or Manuf Eng
degree. Also suitable for Taught Masters students in
Materials or Manuf or Mech Eng or Physics. NOTE:
Erasmus/Socretes/Visiting students MUST take any
relevant examinations for this module in Nottingham at
the appropriate time with all other students in the cohort.
Target students
Includes 'study abroad'
Includes 'study abroad'
Semester
Autumn
Semester
This module is designed to deal with advanced
metallic, ceramic and polymeric-based materials for a wide
range of applications. It will consider the undelying
principles behing their suitability of their material
properties for their targetted applications, the processing
of these materials, the effects of processing on their
subsequent structure and properties, and interactions
between materials characteristics and design for use.
Description
Method and frequency of class:
Activity
No. of
Sessions
Seminar
2 per wk.
Duration
2hr0min
Assessment
Assessment Type
Coursework 1 (30%)
Coursework 2 (30%)
Coursework 3 (30%)
Coursework 4 (10%)
Convenor
Final Year Engineering & Biomedical
Materials Science students; Engineering (Materials)
Masters & Nanoscience Masters students. PhD students are
also welcome to attend. NOTE: Erasmus/Socretes/Visiting
students MUST take any relevant examinations for this
module in Nottingham at the appropriate time with all
other students in the cohort.
Requirements
Case study 1, 2000 word report and
oral/visual presentation
Case study 2, 2000 word report and
oral/visual presentation
Case study 3, 2000 word report and
oral/visual presentation
Case study 4, poster and short
presentation
Professor AB Seddon
Autumn
A broad approach is adopted covering the
principles underpinning a wide range of materials
characterisation techniques, for imaging, structural
characterisation and chemical analysis. Emphasis is given
to the process, structure, property interrelationship,
backed up by appropriate case studies taken from the
areas of structural materials, functional materials,
biomaterials & nanomaterials. Detailed content
underpinning the module includes particle / material
interactions & wave / material interactions; the
experimental process; crystallography; defects; reciprocal
space & diffraction. Consideration is given to
instrumentation, vacuum systems, electron sources and
detectors etc and described with reference to the
techniques of SEM, TEM, XRD, XRF and XPS. An overview
of related surface analysis techniques and ion beam
techniques is provided. Aspects of sample preparation,
including FIB milling are also covered.
Description
Method and frequency of class:
Activity
Duration
No. of
Sessions
Lecture
1 per wk.
2hr0min
Practical
1 per wk.
3hr0min
Activities may take place every teaching week of the Semester or only in
specified weeks. It is usually specified above if an activity only takes
place in some weeks of a Semester
Assessment
Assessment Type
Requirements
2 hour exam
Exam 1 (70%)
Laboratory (30%)
Convenor
camera ready conference paper (4
pages)
Professor PD Brown
MM4APS
Credits
Aircraft Propulsion Systems
Level 4
10
Primarily for 4th year Mechanical
Engineering students in the School of Mechanical,
Materials, Manufacturing Engineering and Management.
NOTE: Erasmus/Socretes/Visiting students MUST take any
relevant examinations for this module in Nottingham at
the appropriate time with all other students in the cohort.
Target students
Includes 'study abroad'
Semester Autumn
Prerequisite
Code
MM1TF1
MM2TF2
Title
Thermodynamics & Fluid Mechanics 1
Thermodynamics & Fluid Mechanics 2
An advanced module covering the following
topics: Principles of aircraft jet propulsion Principles of the
gas turbine engine Layout of jet engines Compressible flow
in gas turbine engines Principles of turbomachinery as
applied to gas turbine engines Characteristics of main
components of a jet engine Design of aircraft engines
Description
Method and frequency of class:
Activity
No. of
Sessions
Duration
Lecture
2 per wk.
1hr0min
Lecture
1 per wk.
1hr0min
Computing
1 per wk.
1hr0min
Assignment (20%)
Convenor
Dr CN Eastwick
Level 4
10
MEng, MSci MMath or MSc students
seeking background training in CAE fluid mechanics used
in various industries or seeking further study involving
advanced numerical simulation. On-going PhD students
could attend. NOTE: Erasmus/Socretes/Visiting students
MUST take any relevant examinations for this module in
Nottingham at the appropriate time with all other students
in the cohort.
Target students
There is a limit to the number of places on this module. Students are
reminded that enrolments which are not agreed by the Offering School in
advance may be cancelled without notice.
Includes 'study abroad'
Semester
Autumn
This module consists of: - a main body of
introductory topics (mathematical and physical
introduction) - three speciality options - physics and
chemistry of the flow: (1) turbulence, (2) multiphase, (3)
reactive flows - a series of joint lectures on the topics of
presentation of results and Quality Assurance in CFD
engineering practice.
Description
Activity
Assessment
Exam 1 (80%)
Credits
Computational Fluid Dynamics
Method and frequency of class:
Activities may take place every teaching week of the Semester or only in
specified weeks. It is usually specified above if an activity only takes
place in some weeks of a Semester
Assessment Type
MM4CFD
Requirements
2 hour exam
Individual project, up to 3000 words
No. of
Sessions
Duration
Lecture
1 per wk.
2hr0min
Practical
1 per wk.
2hr0min
Lecture
1 per wk.
2hr0min
Activities may take place every teaching week of the Semester or only in
specified weeks. It is usually specified above if an activity only takes
place in some weeks of a Semester
Assessment
Assessment Type
Exam 1 (50%)
Coursework 1 (50%)
Convenor
Dr HP Morvan
Requirements
2-hour written examination
Report on practical up to 4000 words
MM4EFM
Credits
Environmental Failure of Materials
Level 4
10
3rd and 4th year Mech Eng students, BMS
students, students from Dept M3 MSc courses,
Target students
Includes 'study abroad'
Semester Autumn
Prerequisite
Code
MM1IMF
This module covers the ways in which
environmental interactions and factors can lead to the
failure of materials. Examples include metallic, ceramic,
glass, composite and polymeric materials. Techniques
used to inhibit environmentally induced failure of materials
will be explained, these will include examples of materials
selection, materials engineering, engineering design and
materials monitoring and inspection strategies. Corrosion:
oxidation; galvanic corrosion; hot corrosion; sulphidation;
atmospheric corrosion; microbial corrosion; corrosion of
concrete. Chemical and UV induced degradation of
polymers and polymer composites. Degradation of glass.
Description
Method and frequency of class:
No. of
Sessions
Lecture
Credits
Duration
1 per wk.
2hr0min
Activities may take place every teaching week of the Semester or only in
specified weeks. It is usually specified above if an activity only takes
place in some weeks of a Semester
Assessment
Assessment Type
Requirements
Exam 1 (70%)
Language Case Study A
Level 4
10
Students studying for a 'with language'
degree in Department M3 who have completed the highest
stage in the appropriate sequence of Inter-Faculty
language modules.
Target students
Semester
Title
Introduction to materials and materials forming
Activity
MM4LCA
Autumn
The module enables students who have
completed the highest stage in the appropriate sequence
of Inter-Faculty language modules to extend their
technical language skills through the study of a recent
development in engineering of their own choice. The
material for the topic chosen must not be from a previous
or current module and will be subject to the approval from
the Module Convenor. It will include a literature search and
some data analysis but may also involve attending lectures
in related modules, industrial visits and discussions with
individuals active in the chosen engineering field. Support
will be provided by the Language Tutor in the Department
of Modern Languages and technical support provided
through the M3 Departmental convenor. The dissertation
and verbal presentation must be presented in the
appropriate language together with an English translation.
The dissertation and verbal presentation will be assessed
for both their language and technical quality and an
assessment form can be obtained from the Module
Convenor.
Description
Method and frequency of Class:
Eleven weeks of private study, including use of the Self
Access Centre for updating. Breakdown of hours:
discussion with tutors (10); student-directed study (90).
Assessment
Assessment Type
Coursework 1 (15%)
Coursework 1 (70%)
Coursework 2 (15%)
Dr KTO Voisey
Convenor
MM4ICE
Credits
Presentation 1 (30%)
Internal Combustion Engines
Level 4
10
Primarily for 4th/3rd year students in the
School of Mechanical, Materials and Manufacturing
Engineering. NOTE: Erasmus/Socretes/Visiting students
MUST take any relevant examinations for this module in
Nottingham at the appropriate time with all other students
in the cohort.
Target students
Includes 'study abroad'
Semester
Autumn
MM3AUT Introduction to Automotive
Technology is an alternative pre-requisite to MM2TF2
Prerequisite
Code
MM2TF2
Title
Thermodynamics & Fluid Mechanics 2
- Design features, function and layout Performance, efficiency and energy flows - Fuel delivery
and gas exchange processes - Combustion, heat release
and work transfer - Coolant system and heat rejection Lubrication system and friction - Aftertreatment system,
emissions and test regulations
Description
Method and frequency of class:
Activity
No. of
Sessions
Lecture
1 per wk.
Duration
2hr0min
Activities may take place every teaching week of the Semester or only in
specified weeks. It is usually specified above if an activity only takes
place in some weeks of a Semester
Assessment
Assessment Type
Exam 1 (100%)
Convenor
Professor PJ Shayler
Requirements
Closed book examination
Convenor
Dr RC Cobb
Requirements
A dissertation up to 3,000 words in
the language studied and an english
translation
A verbal presentation, up to 30
minutes, in the language studied and
an english presentation.
MM4PDP
Credits
Professional Development Project
Level 4
60
The numbers on this Module will be
restricted to students from the MEM courses.
Target students
Semester
Autumn
This individual project is designed to enable
students to undertake a substantial investigation relevant
to the practise of Manufacturing Engineering and/or
Manufacturing Management. It is undertaken preferably as
an industrial company placement although a research
based project may alternatively be taken at the University
or at another instutution. The project topics will stem from
the needs of a company and allow students to develop
professional skills including fundamental investigatory
research, development and testing of new techniques,
processes, procedures and policies and the attainment of
real project management experience.
Description
Method and frequency of class:
Activity
No. of
Sessions
Placement
3 per wk.
Duration
0hr0min
Regular project meetings will be held between student,
industrial mentor/ exchange host supervisor and exchange
host supervisor and tutor as appropriate. Library
Laboratory and computing facilities will be used as
required. In addition, visits to, and work at, participating
companies may be necessary. Students placed in industrial
companies for semester.
Activities may take place every teaching week of the Semester or only in
specified weeks. It is usually specified above if an activity only takes
place in some weeks of a Semester
Assessment
Assessment Type
Thesis (84%)
Dissertation (100%)
Coursework 1 (16%)
Convenor
Dr RC Cobb
Requirements
For language students up to 15000
words dissertation with coursework 1
Up to 15000 words dissertation for
non-lang students
For language students a 2500 word
summary report (80%) and 20
minute oral exam (20%)
MM4PSW
Credits
Physical Ergonomics
Level 4
10
MSc in Human Factors, BEng and MEng
Product Design and Manufacture, MSc Interactive Systems
Design, any 3rd or 4th year student in School of
Mechanical, Materials and Manufacturing Engineering.
NOTE: Erasmus/Socretes/Visiting students MUST take any
relevant examinations for this module in Nottingham at
the appropriate time with all other students in the cohort.
Target students
Includes 'study abroad'
Semester
Autumn
A thorough understanding of Human
Factors/Ergonomics is critical to the successful design and
implementation of products, workplaces, jobs and
systems. This module focuses on the physical
characteristics of people (e.g. body size, strength,
flexibility, vision and hearing abilities) and considers how
to account for an individual’s fundamental needs,
capabilities and limitations. Ultimately, such an
understanding will lead to products, workplaces, jobs and
systems which promote productivity, health, safety,
comfort, etc. The syllabus covers: Structure and
functioning of the human body; anthropometry (human
body dimensions) and product/workplace design;
biomechanics (loadings on the human body); work-related
upper-limb disorders; manual materials handling; risk
assessment for work-related musculoskeletal disorders;
designing and assessing environments to account for
visual, acoustic, thermal and vibration factors.
Description
Method and frequency of class:
Activity
No. of
Sessions
Lecture
1 per wk.
Duration
2hr0min
Assessment
Assessment Type
Exam 1 (75%)
Coursework 1 (25%)
Convenor
Dr GE Burnett
Requirements
2 hour exam
Report (approx. 2000 words) on
product/workplace evaluation
MM4SET
Credits
Surface Engineering Technology
Level 4
10
Students with an interest in surface
engineering for enhancement of the performance of
engineering components (ranging widely from structural,
functional to bioengineering). The module is relevant to
students on a wide range of engineering and science
courses, and is aimed at 3rd and 4th year undergraduates
as well as MEng and MSc students.
Target students
Includes 'study abroad'
Semester
Autumn
This module outlines the drivers for surface
engineering (structural, functional and economic) before
introducing the main surface engineering processes. These
processes are examined under three headings, namely
surface modification with and without compositional
change and surface coating. The most common processing
methods (along with some cutting edge technologies) are
examined. These include surface treatment (eg flame
hardening, laser surface hardening etc), surface
thermochemical processes (eg carburising, nitriding, ion
implantation etc), as well as surface coating: solid state
processing route (eg pack coating etc); wet chemical route
(eg sol-gel, electrodeposition etc) semi-molten route (eg
thermal spraying, plasma spraying); and vapour phase
route (eg CVD and PVD). The selection criteria for each
processing method are discussed. The lectures give an
in-depth explanation of the process principles for each of
the surface processing methods. Case studies of surface
engineering technology adopted for structural, functional
and biomedical applications are presented
Description
Method and frequency of class:
Activity
No. of
Sessions
Lecture
1 per wk.
Duration
2hr0min
Assessment
Assessment Type
Exam 1 (70%)
Coursework 1 (30%)
Convenor
Professor K Choy
Requirements
Unseen (2 hours)
MM4SIM
Credits
Simulation and Digital Human Modelling
Level 4
10
MSc in Human Factors, BEng and MEng
Product Design and Manufacture, MSc Interactive Systems
Design, MSc BioEngineering, any 3rd or 4th year student
in Department of Mechanical, Materials and Manufacturing
Engineering.
Target students
There is a limit to the number of places on this module. Students are
reminded that enrolments which are not agreed by the Offering School in
advance may be cancelled without notice.
Semester
Autumn
For Human Factors/Ergonomics work,
computers can render digital representations of people
with varying characteristics performing a multitude of
tasks within simulated environments. Moreover, simulation
tools can enable designers, managers and end-users to
experience products and systems in realistic, interactive
environments. Such advancements have significant cost
implications, enabling designs and their implications to be
visualised early in the development lifecycle. This module
will provide students with the knowledge and skills
required to understand and utilise computers as Human
Factors tools for modelling people and systems (tasks,
interfaces, environments). The module is largely
practically-oriented and students will make extensive use
of digital human modelling software (e.g. Jack) and the
simulation facilities (e.g. car, motorcycle and train
simulators) available within the Human Factors Research
Group. The syllabus covers: Algorithms and use of avatars
for modelling human physical characteristics (e.g. body
dimensions, static and dynamic postures); Modelling of
perceptual and cognitive variability (e.g. sensory abilities,
emotive responses); Virtual reality
technologies/environments; Validity of simulators;
Presence factors for simulation; Understanding and
minimising simulator sickness; Case studies in the use of
digital human modelling and simulators as Human Factors
tools.
Description
Method and frequency of class:
Activity
No. of
Sessions
Duration
Lecture
1 per wk.
2hr0min
Practical
1 per wk.
2hr0min
Activities may take place every teaching week of the Semester or only in
specified weeks. It is usually specified above if an activity only takes
place in some weeks of a Semester
Assessment
Assessment Type
Coursework 1 (50%)
Coursework 2 (50%)
Convenor
Dr GE Burnett
Requirements
Report (approx. 3000 words) on the
design of a specified
product/workplace using a digital
human modelling software package
Report (approx. 3000 words) on a
plan for an evaluation study using
simulation tools
MM4TTF
Credits
Introduction to Turbulence and Turbulent
Flows
Level 4
10
Part II undergraduates, Part III
undergraduates and MSc students. NOTE:
Erasmus/Socretes/Visiting students MUST take any
relevant examinations for this module in Nottingham at
the appropriate time with all other students in the cohort.
Target students
Includes 'study abroad'
Semester
Autumn
An advanced module in fluid mechanics
applicable to a wide range of engineering disciplines.
Topics to be covered include:
fundamental theory of turbulence
statistical description of turbulence
boundary layer structures
turbulent flow control
turbulence modelling and CFD
experimental techniques
practical and industrial examples
Description
Method and frequency of class:
Activity
No. of
Sessions
Lecture
Duration
1 per wk.
2hr0min
This module includes two case studies.
Activities may take place every teaching week of the Semester or only in
specified weeks. It is usually specified above if an activity only takes
place in some weeks of a Semester
Spring Semester
Level 1
MM1BIO
Credits
Biomechanics
Level 1
10
Primarily for students taking Biomedical
Materials Science, but intended as an optional introductory
module of relevance to many engineering and physical
science programmes. NOTE: Erasmus/Socretes/Visiting
students MUST take any relevant examinations for this
module in Nottingham at the appropriate time with all
other students in the cohort.
Target students
Includes 'study abroad'
Semester
Spring
This module considers aspects of
experimental and theoretical biomechanics including:
Description
Mechanical properties of biological tissues: Hard tissues
including bone; Soft tissues including cartilage, tendon,
disc and blood vessels; Time dependent behaviour;
Experimental techniques
Impact mechanics
Modelling
Basic biological fluid mechanics
Method and frequency of class:
Activity
Assessment
Assessment Type
Exam 1 (60%)
Requirements
Closed book examination.
Coursework 1 (20%)
Lecture
2 per wk.
1hr0min
Activities may take place every teaching week of the Semester or only in
specified weeks. It is usually specified above if an activity only takes
place in some weeks of a Semester
Coursework 2 (20%)
Professor KS Choi
Convenor
Duration
No. of
Sessions
Assessment
MM4WOJ
Credits
Industrial Ergonomics: Jobs, Culture,
Change
Level 4
10
MSc students in School of Mechanical,
Materials, Manufacturing Engineering and Management
and in Business School, and final year BEng/MEng/BSc
students in School of Mechanical, Materials, Manufacturing
Engineering and Management MSc students from Food
Sciences BSc students from Business School
Assessment Type
Requirements
2-hour written exam
Exam 1 (100%)
Dr DS McNally
Convenor
Target students
Semester
Autumn
Human aspects of work systems.
Human-centred systems design. Motivation and job
satisfaction. Job design. team working, team design,
virtual teams. Quality of working life. Implementation of
change; participation in design, implementation. Selection,
training. Shiftwork. Evaluation of change
Description
Method and frequency of class:
Activity
No. of
Sessions
Lecture
1 per wk.
Duration
2hr0min
Two hours of lectures per week.
Activities may take place every teaching week of the Semester or only in
specified weeks. It is usually specified above if an activity only takes
place in some weeks of a Semester
Credits
Introduction to Medical Materials
Level 1
10
NOTE: Erasmus/Socretes/Visiting
students MUST take any relevant examinations for this
module in Nottingham at the appropriate time with all
other students in the cohort.
Target students
Includes 'study abroad'
Semester
Spring
The module introduces the key materials that
are used in Biomedical Materials Science. Materials (often
referred to as Biomaterials) used for both prosthesis and
surgical instrumentation employed in medical applications
are identified. The design and selection of materials is
examined by examples, identifying key criteria from
properties relating to physical, chemical, tribological and
biocompatible behaviour. The module culminates in
examining current hard and soft tissue implants,
biomaterials and future developments.
Description
Method and frequency of class:
Activity
Assessment
Assessment Type
Exam 1 (100%)
Convenor
MM1IMM
Dr AW Stedmon
Requirements
2 hour examination.
No. of
Sessions
Lecture
1 per wk.
Duration
2hr0min
Assessment
Assessment Type
Exam 1 (80%)
Assignment (20%)
Convenor
Professor D Grant
Requirements
Unseen exam
On line quiz
MM1IND
Credits
Industrial Design
Level 1
10
1st year students in the School of
Mechanical, Materials and Manufacturing Engineering.
NOTE: Erasmus/Socretes/Visiting students MUST take any
relevant examinations for this module in Nottingham at
the appropriate time with all other students in the cohort.
Target students
Semester
Spring
This module will provide: An introduction to
Industrial Design, a brief history of its leading
practitioners, its impact on popular culture, the role of the
designer and ethical responsibilities, design methodology
and design project case studies.
The module will also contain: Teaching sessions on high
volume production methods, CAD and associated software.
Description
Level 2
MM2AUD
Credits
Design Audit
Level 2
10
This module is for engineering students
seeking to develop a practical understanding of
manufacture and materials in real engineering components
Target students
There is a limit to the number of places on this module. Students are
reminded that enrolments which are not agreed by the Offering School in
advance may be cancelled without notice.
Semester Spring
Prerequisite
Code
MM1IMF
Title
Introduction to materials and materials forming
Lectures The module will encompass lectures
which will introduce the background to the design process
and design specification, methods of analysis of materials
(such optical microscopy, infrared spectroscopy etc) along
with sensible forensic methods to ensure that the
maximum amount of information is achieved from practical
methods. Lectures will also revise the relevant basics of
materials processing. Design audit This part of the module
will involve a group practical audit of the design,
manufacture and materials used for a commercially
available component (components selected by the module
convenor). In small groups (typically consisting of three
members) a sensible design specification for the chosen
component will be formulated (from which the materials
and manufacturing methods chosen will be undertstood).
The groups will be required to identify and rationalise the
materials of construction and processing route, in terms of
functionality and economics.
Description
Method and frequency of class:
Activity
No. of
Sessions
Duration
Lecture
1 per wk.
1hr0min
Seminar
1 per wk.
2hr0min
Assessment
Assessment Type
Requirements
one 1.5 hr exam
Exam 1 (60%)
Coursework 1 (20%)
manufacturing Design Assignment
Coursework 2 (20%)
CAD Exercise
Mr G Lawson
Convenor
MM1PRO
Credits
Professional Studies
Level 1
10
The module introduces many of the key
skills required by engineers (and others).
Target students
Semester
Spring
The module introduces many of the key skills
required by engineers (and others), including: Report
writing; literature searching; presentation skills
Environmental Matters; global and local issues; climate
change Energy resources; alternative and appropriate
technology; sustainability Legal & environmental
responsibilities of Engineers; patents; health & safety;
ethics and standards
Description
Method and frequency of class:
Activity
No. of
Sessions
Lecture
1 per wk.
Convenor
Dr MJ Clifford
Lecture
1 per wk.
2hr0min
Practical
1 per wk.
3hr0min
Activities may take place every teaching week of the Semester or only in
specified weeks. It is usually specified above if an activity only takes
place in some weeks of a Semester
Assessment
2hr0min
Presentation 1 (20%)
Assessment
Requirements
1 hour 30 minute exam Open Book
Duration
No. of
Sessions
Assessment Type
Report (50%)
Activities may take place every teaching week of the Semester or only in
specified weeks. It is usually specified above if an activity only takes
place in some weeks of a Semester
Presentation 1 (20%)
Activity
Duration
An oral presentation session will be timetabled by the
Department
Assessment Type
Exam 1 (80%)
Method and frequency of class:
Presentation 2 (30%)
Convenor
Requirements
Individual Report at end of Spring
Semester
Group presentation at end of Autumn
Semester
Group presentation at end of Spring
Semester
Dr AR Kennedy
MM2AUT
Credits
Automated Manufacture
Level 2
10
MM2CPM
Credits
Computer Programming
Level 2
10
Target students
NOTE: Erasmus/Socretes/Visiting
students MUST take any relevant examinations for this
module in Nottingham at the appropriate time with all
other students in the cohort.
Target students
Includes 'study abroad'
Includes 'study abroad'
Semester
Spring
Semester
This module will give an understanding of the
need for automation and robotics in manufacturing
industry. The many types of automation available are
described, and an appreciation will be gained of some of
the basic elements required to control automation
systems.
Description
Method and frequency of class:
Activity
No. of
Sessions
Duration
Lecture
1 per wk.
2hr0min
Seminar
1 per wk.
4hr0min
3 hours per week to include lectures, demonstrations,
videos, examples and case studies.
Activities may take place every teaching week of the Semester or only in
specified weeks. It is usually specified above if an activity only takes
place in some weeks of a Semester
Assessment
Assessment Type
Exam 1 (70%)
Coursework 1 (30%)
Convenor
Dr N Lohse
NOTE: Erasmus/Socretes/Visiting
students MUST take any relevant examinations for this
module in Nottingham at the appropriate time with all
other students in the cohort.
Requirements
1.5 hour exam
Spring
This module aims to equip students with a
basic knowledge of programming and a basic working
knowledge of MATLAB at the same time. A key objective of
the module is that the students will learn not just some
academic knowledge of programming but that they will
become comfortable enough with MATLAB as a tool to use
it as an intrinsic element of their coursework submissions
and projects from this point forward. The module will
cover: * Getting started with MATLAB - use of the
environment at the commant prompt * The fundamental
ideas of variables and assignment of values to variable.
Specifically that computer variables are not like variables
in mathematics - they may change value * Getting used to
arrays - why we use them and some MATLAB-specific
array manipulation methods. * Matrix computations.
Multiplying matrices, solving sets of equations, seeing how
long big matrix computations take. * A short introduction
to the graphical capabilities of MATLAB * Programme units
within MATLAB - the difference between functions and
scripts. The idea of "occlusion". * How to do "for loops" and how&why they can be avoided. As an "interpreted"
language, MATLAB does not perform loops quickly. Also
"while" loops. * Conditional execution. "If", "else", "elseif"
and "case"/"switch" statements. * Case-studies and some
insight into advanced topics.
Description
Method and frequency of class:
Activity
No. of
Sessions
Duration
Lecture
1 per wk.
2hr0min
Practical
1 per wk.
1hr0min
Lectures will be used as the "initial dissemination"
mechanism but the bulk of learning will take place by the
students practicing the exercises set and having their
questions answered by persons (mainly post-grads)
familiar with MATLAB.
Activities may take place every teaching week of the Semester or only in
specified weeks. It is usually specified above if an activity only takes
place in some weeks of a Semester
Assessment
Assessment Type
Exam 1 (60%)
Coursework 1 (20%)
Coursework 2 (20%)
Convenor
Professor S Garvey
Requirements
MM2DPG
Credits
2nd year group design project
Level 2
10
Restricted to Second year students from
the School of Mechanical, Materials and Manufacturing
Engineering studying the H715 Product Design and
Manufacture programme.
Target students
Semester Spring
Prerequisite
Code
MM2CMS
MM2DVT
MM2DPI
Title
Computer Modelling Systems
Design Visualisation Techniques
2nd year design projects
This is a project based module for Product
Design and Manufacture students in their 2nd year. The
module comprises an individual and a group design project
that further develops their design ability and teaches
group working skills. Through practical design work the
students will be faced with the problems of managing
differing constraints, posibly conflicting views and
workload management to produce a cohesive design
proposal. The students will develop team working skills
and a perception of how other designers think and work.
Description
Method and frequency of class:
Activity
No. of
Sessions
Practical
Spring
This module introduces students to modern
management methods relevant to the running of a
company. Topics include an introduction to basic
economics, the essential requirements and aims of a
business, preparing a business plan, accounting, the
interpretation of accounts, programme management, the
essentials of “lean” manufacture and the management of
innovation.
Description
Method and frequency of class:
Activity
No. of
Sessions
Lecture
Assessment
Assessment Type
Requirements
Individual Design Project
Project 1 (30%)
Group Design Project
Project 2 (70%)
Mr S Harrison
MM2EID
Ergonomics in Design
Level 2
10
Undergraduate students in Department of
Mechanical, Materials and Manufacturing Engineering, and
in the Faculty of Engineering. NOTE:
Erasmus/Socretes/Visiting students MUST take any
relevant examinations for this module in Nottingham at
the appropriate time with all other students in the cohort.
Target students
Includes 'study abroad'
1 per wk.
This module will introduce ergonomics/human
factors encompassing different aspects of manufacturing
and product design. The course will demonstrate when an
ergonomics intervention is required and show how to
manage, organise and evaluate such a programme. The
lectures will provide an overview of the cognitive, physical
environmental and organisational bases of ergonomics.
Description
2hr0min
Assessment Type
Requirements
Two hour examination
Exam 1 (100%)
Professor J A Dominy
Convenor
Aerospace Manufacturing Technology
Level 3
10
Third and fourth year Honours students
from within the School and any other students who fulfilled
the prerequisites. NOTE: Erasmus/Socretes/Visiting
students MUST take any relevant examinations for this
module in Nottingham at the appropriate time with all
other students in the cohort.
Target students
Includes 'study abroad'
Semester
Spring
This module covers: Basic airframe structure.
Airframe component manufacturing techniques. Joining
techniques. Assembly technology. Composite structures.
Jigless assembly and automated manufacture. Basic
aero-engine structure. Geometry and material constraints.
Manufacturing processes: forging, casting, welding &
joining techniques, special processes, small and non round
hole manufacture. Certification, verification inspection and
quality control.
Description
Method and frequency of class:
Activity
No. of
Sessions
Lecture
Spring
Duration
Assessment
Credits
Activities may take place every teaching week of the Semester or only in
specified weeks. It is usually specified above if an activity only takes
place in some weeks of a Semester
Semester
Semester
MM3AMT
2 X 2 hour sessions for 11 weeks Studio Session Some
days are full days for presentations or vesits etc.
Credits
Includes 'study abroad'
2hr0min
8hr0min
Level 2
Credits 10
Target students
Level 3
1 per wk.
Convenor
Management Studies 1
Duration
1 per wk.
Practical
MM2MN1
1 per wk.
Duration
2hr0min
Two hours per week and one industrial visit
Activities may take place every teaching week of the Semester or only in
specified weeks. It is usually specified above if an activity only takes
place in some weeks of a Semester
Assessment
Assessment Type
Exam 1 (60%)
Requirements
Unseen 1.5 Hours
Coursework 1 (20%)
up to 2000 word report
Method and frequency of class:
Coursework 2 (20%)
up to 2000 word report
Activity
Convenor
No. of
Sessions
Lecture
1 per wk.
Duration
2hr0min
2 hours per week to include lectures, case studies, and
exercises.
Activities may take place every teaching week of the Semester or only in
specified weeks. It is usually specified above if an activity only takes
place in some weeks of a Semester
Assessment
Assessment Type
Exam 1 (80%)
Coursework 1 (20%)
Convenor
Dr AW Stedmon
Requirements
1.5 hour exam
report and poster
Dr J Folkes
MM3BIO
Credits
Biomechanics
Level 3
10
Primarily for students taking Mech Eng
(Bioengineering) and Biomedical Materials Science, but
intended as an optional introductory module of relevance
to many eng and physical science programmes. NOTE:
Erasmus/Socretes/Visiting students MUST take any
relevant examinations for this module in Nottingham at
the appropriate time with all other students in the cohort.
Target students
Includes 'study abroad'
Semester
Spring
This module considers aspects of
experimental and theoretical biomechanics including:
Description
Mechanical properties of biological tissues: Hard tissues
including bone; Soft tissues including cartilage, tendon,
disc and blood vessels; Time dependent behaviour;
Experimental techniques
Impact mechanics
Modelling
Basic biological fluid mechanics
Method and frequency of class:
Activity
No. of
Sessions
Lecture
Duration
2 per wk.
MM3CAI
Credits
Control and Instrumentation
Level 3
10
NOTE: Erasmus/Socretes/Visiting
students MUST take any relevant examinations for this
module in Nottingham at the appropriate time with all
other students in the cohort.
Target students
Includes 'study abroad'
Semester
Spring
This module covers the basic techniques for
the analysis and development of simple control systems
with an emphasis on their application to mechanical and
process systems. The module covers theoretical methods
and hardware considerations in the analysis and design of
open-loop and closed-loop systems, including:
Description
Routh-Hurwitz criteria and Root Locus methods
frequency response methods, polar plots, Nichols charts,
Nyquist stability criterion, stability margins
PID controllers and other series compensators (1st & 2nd
order)
identifying systems from swept-sine test outcomes
an introduction to computer control and sampled data
systems, analogue/digital conversion and
sensors/transducers
1hr0min
Method and frequency of class:
Activities may take place every teaching week of the Semester or only in
specified weeks. It is usually specified above if an activity only takes
place in some weeks of a Semester
Activity
Assessment
The tutor will make himself available for one hour per
week either in office or in a PC laboratory to assist with
any questions arising from worksheets.
Assessment Type
Exam 1 (100%)
MM3BIP
Biomechanics (by distance learning)
Level 3
10
Primarily for students taking
Bioengineering MSc, but intended as an optional
introductory module of relevance to many engineering and
physical science programmes. NOTE:
Erasmus/Socretes/Visiting students MUST take any
relevant examinations for this module in Nottingham at
the appropriate time with all other students in the cohort.
Target students
Includes 'study abroad'
Semester
Spring
This module considers aspects of
experimental and theoretical biomechanics including:
Description
Mechanical properties of biological tissues: Hard tissues
including bone; Soft tissues including cartilage, tendon,
disc and blood vessels; Time dependent behaviour;
Experimental techniques
Impact mechanics
Modelling
Basic biological fluid mechanics
Method and frequency of Class:
This module is intended for distance learning. The material
will largely be delivered by WebCT with e-mail tutorial
support.
Assessment
Assessment Type
Exam 1 (100%)
Convenor
Dr DS McNally
Lecture
1 per wk.
2hr0min
Activities may take place every teaching week of the Semester or only in
specified weeks. It is usually specified above if an activity only takes
place in some weeks of a Semester
Dr DS McNally
Convenor
Credits
Requirements
2-hour written exam
Duration
No. of
Sessions
Requirements
2-hour written exam
Assessment
Assessment Type
Exam 1 (70%)
Coursework 1 (11%)
Coursework 2 (11%)
Inclass Exam 1 (2%)
Requirements
2 hour exam
Developing transfer functions from
equations of motion
Identifying a system and then
developing a controller for that
system
A modelling question
Inclass Exam 2 (2%)
A question based on Bode plots
Inclass Exam 3 (2%)
Identifying a system from Bode plots
using straight line approximations.
Controller Implementation - digitally
Inclass Exam 4 (2%)
Convenor
Professor S Garvey
MM3EIP
European Individual Project
Level 3
Credits 60
Target students
Semester
MM3HTR
Credits
Heat Transfer
Spring
This module is studied at a host institution in
Europe, normally as part of an exchange scheme. It
involves the planning, execution and reporting of a
programme of work which will normally involve a mixture
of experimental, theoretical and computational work
together with a review of relevant literature and previous
work in the field. The topic will be agreed with the host
institution. The project gives experience in the practice of
engineering at a professional level, and of working in
another member state of the European Union.
Description
Primarily intended for 3rd and 4th year
students in the School of Mechanical, Materials and
Manufacturing Engineering. NOTE:
Erasmus/Socretes/Visiting students MUST take any
relevant examinations for this module in Nottingham at
the appropriate time with all other students in the cohort.
Includes 'study abroad'
Semester
Spring
Students who have not completed MM2TF2
need to obtain signature of module convenor before
attempting module.
Prerequisite
Supervision is arranged by the host institution.
Code
MM1TF1
MM2TF2
Assessment
Description
Method and frequency of Class:
Assessment Type
Coursework 1 (70%)
Coursework 2 (20%)
Coursework 3 (10%)
MM3FRC
Credits
Requirements
6000 word report to include review
of literature and relevant work in the
field.
continuous assessment of student's
planning, initiative, judgement and
insight
oral presentation
Professor AA Becker
Convenor
Fibre Reinforced Composites Engineering
Level 3
10
NOTE: Erasmus/Socretes/Visiting
students MUST take any relevant examinations for this
module in Nottingham at the appropriate time with all
other students in the cohort.
Target students
Includes 'study abroad'
Semester
Spring
An introductory module on the design,
manufacture and performance of fibre-reinforced
composite materials. Constituent materials including
fibres, resins and additives are described. Processing
techniques and the relationships between process and
design are highlighted. Design methodologies and
computer-aided engineering techniques are demonstrated
for component design. Case studies from a variety of
industries including automotive and aerospace are
presented.
Description
Method and frequency of class:
Activity
No. of
Sessions
Lecture
1 per wk.
Exam 1 (100%)
Convenor
Dr MJ Clifford
Title
Thermodynamics & Fluid Mechanics 1
Thermodynamics & Fluid Mechanics 2
An advanced module covering heat transfer
theory and applications including:
Conduction heat transfer - thermal conductivity, thermal
resistance networks. Analytical and numerical solutions for
one- and two-dimensional steady-state conduction and for
one-dimensional transient and unsteady conduction.
Convection heat transfer - general concepts and
phenomena, velocity and thermal boundary layers,
Reynolds analogy, use of experimental correlations for
internal and external flows, enhancement techniques for
convective heat transfer.
Introduction to boiling and condensation heat transfer
Radiation heat transfer - black body emission, emissivity,
absorptivity, transmissivity, Kirchhoff's law, black body
radiation heat transfer, view factors, grey body radiation
exchange, radiation networks.
Introduction to mass transfer
Case studies including problems involving combined
modes of heat transfer, use of resistance networks for
steady and unsteady heat transfer calculations.
Method and frequency of class:
Activity
No. of
Sessions
Duration
2 per wk.
1hr0min
Tutorial
1 per wk.
1hr0min
Assessment
Assessment Type
Coursework 1 (30%)
Convenor
2hr0min
Requirements
2 hour exam
Duration
Lecture
Exam 1 (70%)
Assessment
Assessment Type
Level 3
10
Target students
Dr DB Hann
Requirements
One two hour examination.
case study report
MM3ITM
Credits
Introduction to Transport Materials
Level 3
10
Students taking Mech Eng[Aerospace] or
Mech Eng[Automotive], also suitable for students studying
other eng deg courses with an approp background. Not
avail to students taking Mech Design, Mat'ls and Manuf or
Mech Eng, Materials and Manuf. NOTE:
Erasmus/Socretes/Visiting students MUST take any
relevant exams for this module in Nottm at the
appropriate time with all other students in the cohort.
Target students
Includes 'study abroad'
Semester
Spring
Two years study on an appropriate
engineering degree course offered by the dept
Prerequisite
Description
Overview/revision of materials classes and properties, and
component failure modes.
Strengths and weaknesses of: Metallic alloys, Moulded
polymers, Composites
Introduction to processing-property relationships essential
to understanding the interactions between manufacturing
route and component performance.
Service conditions and property requirements for materials
used in: Automotive vehicle shells, Automotive engines
and transmissions, Airframes, Landing gear, Gas turbines
Effects of service conditions on materials behaviour, e.g.
Effects of temperature on creep, Fatigue and oxidation of
turbine blades, Effects of corrosion on fatigue life
Selection of materials for weight efficiency etc.
Reliability of materials.
Surface engineering techniques: Effects on residual
stresses, Effects on fatigue, Effects on environmental
degradation
Overview of areas of current research relating to transport
materials.
Method and frequency of class:
Activity
No. of
Sessions
Lecture
1 per wk.
Credits
Level 3
50
Manufacture
Students undertaking Product Design and
Semester Spring
Prerequisite
Code
MM2CMS
MM2DVT
MM2DPI
MM2DPG
MM3RSA
Title
Computer Modelling Systems
Design Visualisation Techniques
2nd year design projects
2nd year group design project
RSA Design Projects
This is a project based module for Product
Design and Manufacture students in their 3rd year. It is
the final project of the BEng degree programme. The
module comprises of 1 project, which develops and
showcases the design skills of the student. Through
practical design work the students will be faced with the
problems of managing different constraints and producing
cohesive design proposals. The project will look in detail at
the design solution and the manufacturing of the product.
This work will form the basis of the end of course
exhibition.
Description
Method and frequency of class:
Activity
No. of
Sessions
Duration
Practical
2 per wk.
4hr0min
Practical
1 per wk.
2hr0min
Practical
5 per wk.
2hr0min
Activities may take place every teaching week of the Semester or only in
specified weeks. It is usually specified above if an activity only takes
place in some weeks of a Semester
Assessment
Assessment Type
Project 1 (100%)
MM3MEP
2hr0min
BEng Major Design Project
Target students
Convenor
Duration
Requirements
Detailed design with technical report
and supportig information
Mr S Harrison
Mechanical Engineering Project
Please see full module record in the Autumn Semester listing.
Assessment
Assessment Type
Exam 1 (80%)
Requirements
Unseen 1.5 hour exam
Coursework 1 (10%)
Case study
Coursework 2 (10%)
Problems sheet
Convenor
MM3MAJ
Dr KTO Voisey
MM3PR1
Short Individual Project
Please see full module record in the Autumn Semester listing.
MM3SAT
Credits
Stress Analysis Techniques
Level 3
10
NOTE: Erasmus/Socretes/Visiting
students MUST take any relevant examinations for this
module in Nottingham at the appropriate time with all
other students in the cohort.
Target students
Includes 'study abroad'
Semester
Students must have a good working
knowledge of solid mechanics (important elements are
principal stresses, yield criteria, fracture mechanics).
An advanced module dealing with
experimental, analytical and numerical methods for
determining stresses and deformations in complex
engineering components. The topics covered include.
Description
Axisymmetric thin shells under pressure: membrane
stresses
Beams on elastic foundations
Bending of flat plates
Cylindrical shells under sxisymmetric loads; bending of
cylindrical shells.
Torsion of thin-walled prismatic bars.
Experimental stress analysis methods: electrical resistance
strain gauges, Moire interferometry, Brittle coatings,
Thermoelasticity (SPATE), Photoelasticity.
Numerical stress analysis: Finite and boundary element
techniques.
Method and frequency of class:
No. of
Sessions
Lecture
Duration
1 per wk.
2hr0min
Assessment
Assessment Type
Exam 1 (100%)
Requirements
One two hour examination.
Dr W Sun
Convenor
MM3SHR
Credits
Health, Safety & Risk
Level 3
10
3rd & 4th Yr BEng, MEng and BSc
students in the School of Mechanical, Materials, and
Manufacturing Engineering alongside MSc Human Factors
and Interactive Systems Design students. NOTE:
Erasmus/Socretes/Visiting students MUST take any
relevant examinations for this module in Nottingham at
the appropriate time with all other students in the cohort.
Target students
Includes 'study abroad'
Semester
Spring
The module aims to give an understanding of
the potential causes of accidents and of human error, and
to introduce methods of investigation of accidents and
techniques for analysing accidents and systems reliability
which will lead to the design of safer organisations and
work systems. Topics covered include: Health and Safety
issues; accident causation: why accidents occur, causes of
human error; accident models; epidemiology, accident
reporting and analysis; accident prevention; human
reliability assessment; safety climate and culture.
Method and frequency of class:
No. of
Sessions
Lecture
1 per wk.
Duration
2hr0min
Assessment
Assessment Type
Exam 1 (80%)
Coursework 1 (20%)
Convenor
Professor JR Wilson
Level 3
10
MEng, BEng and MSc students on any
engineering degree programme from Dept M3; also
appropriate to certain courses within the Faculty of
Engineering, the Business School and incoming Study
Abroad students.
Target students
Semester
Requirements
2 hour examination.
2,000 word assignment
Spring
If MM1PRO has not been taken then some
background in sustainability would be expected
Prerequisite
Code
MM1PRO
Title
Professional Studies
The module will cover energy-saving
initiatives in design, manufacturing processes, logistics etc
but not cover renewable energy. The module will also
cover designs that make use of reclaimed material but will
not address recycling, since this is covered elsewhere. The
module will also cover Greener manufacturing including
near net shape processes, improving yields, waste
minimization and handling, reconditioning and mould tool
repair, reconfigurability in manufacturing facilities
corporate philosopies to minimize waste. It will also cover
‘green’ business models (reconditioning, mid-life upgrades,
buy-back schemes etc.) Draft Week by Week syllabus: Introduction to sustainability – issues and problems for
manufacturers - Making the most of energy and water
resources - Use of renewable resources, materials, supply
chains - Green logistics and the ‘green supply chain’,
including packaging - Green manufacturing processes
including electronics manufacture, toxic elements: lead,
cadmium, PVC, and substitutes, legislation: the WEEE
Directive - Remanufacturing, reconditioning and repair Manufacturing Reuse/ Recycling – methods and issues Legislation and sustainability – relevant and emerging
requirements - Setting targets for sustainable business
performance - Implementation of sustainability in
manufacturing – practical applications/ potential industrial
visits
Description
Method and frequency of class:
Activity
No. of
Sessions
Lecture
1 per wk.
Duration
2hr0min
Assessment
Assessment Type
Requirements
Exam 1 (60%)
Coursework 1 (20%)
Presentation 1 (20%)
Convenor
Description
Activity
Credits
Sustainable Manufacturing
Includes 'study abroad'
Spring
Prerequisite
Activity
MM3SUM
Dr P Kinnell
Individual assignment
Group presentation
MM3SV2
Credits
Structural Vibration 2
Level 3
10
Third and fourth year students in
mechanical engineering and any other students who fulfill
the prerequisites. NOTE: Erasmus/Socretes/Visiting
students MUST take any relevant examinations for this
module in Nottingham at the appropriate time with all
other students in the cohort.
Target students
Includes 'study abroad'
Semester
Spring
Students should have a basic understanding
of vibration phenomena, such as it is provided by MM2DYN
(Dynamics).
Prerequisite
Code
MM2DYN
Title
Dynamics
The module covers advanced concepts and
analytical techniques used in structural vibration
applications. These include:
Description
Vibration response of complex structures
modern vibration measurement methods and
experimental modal analysis techniques.
A number of engineering case studies are presented.
Method and frequency of class:
Activity
No. of
Sessions
Lecture
1 per wk.
Duration
2hr0min
One assessed assignment.
Activities may take place every teaching week of the Semester or only in
specified weeks. It is usually specified above if an activity only takes
place in some weeks of a Semester
Assessment
Assessment Type
Exam 1 (80%)
Coursework 1 (20%)
Convenor
Dr AA Popov
Requirements
One two hour written examination.
Analytical/Computational
Assignment: 1500 words
Level 4
MM4AEM
Credits
Aerospace Materials
Level 4
10
Students in the final year of a four year
engineering degree course. MSc students on one of the
mechanical, materials or manufacturing MSc degree
programmes. NOTE: Erasmus/Socretes/Visiting students
MUST take any relevant examinations for this module in
Nottingham at the appropriate time with all other students
in the cohort.
Target students
There is a limit to the number of places on this module. Students are
reminded that enrolments which are not agreed by the Offering School in
advance may be cancelled without notice.
Semester
Spring
If MM3ITM or MM3PEA have not been studied
then equivalent knowledge and understanding must be
demonstrated to the satisfaction of the module convener.
MM4AEM may NOT be taken along with MM4AUM,
Automotive Materials
Prerequisite
Code
MM3ITM
MM3PEA
Title
Introduction to Transport Materials
Processing of Engineering Alloys
This module considers the materials used in
aerospace (in terms of their requirements and the
relationship between structure, processing and
properties), the history of the development of these
materials and potential materials for the future. It includes
materials for the airframe, engine and landing gear,
considering the property requirements, such as strength,
fatigue, fracture toughness, density, stiffness, and details
the structure-processing-property relationships for
important materials such as Al alloys, nickel-based
superalloys, high strength Ti and steel alloys. To achieve
the learning outcomes the module is taught by a
combination of short lectures, seminars, directed reading,
course work case studies and oral presentations. The
module will be assessed by coursework only. The lectures
and seminars cover the generic aspects of processing,
structure and property relationships in selected classes of
advanced engineering materials. The directed case studies
follow topics on the materials used in the following:
superstructure; the power unit; and novel materials.
Description
Method and frequency of class:
Activity
Lecture
No. of
Sessions
1 per wk.
Duration
2hr0min
Activities may take place every teaching week of the Semester or only in
specified weeks. It is usually specified above if an activity only takes
place in some weeks of a Semester
Assessment
Assessment Type
Coursework 1 (33%)
Requirements
Case study report
Coursework 2 (33%)
Case study report
Coursework 3 (34%)
Oral presentation and executive
summary report
Convenor
Professor DG McCartney
MM4AER
Credits
Aerodynamics
Level 4
10
Part II undergraduates, Part III
undergraduates and MSc students. NOTE:
Erasmus/Socretes/Visiting students MUST take any
relevant examinations for this module in Nottingham at
the appropriate time with all other students in the cohort.
Target students
Includes 'study abroad'
Semester
Spring
Prerequisite
MM2TF2 or equivalent
- Applied aerodynamics fundamentals: types
of flows; historical notes; review of mass, momentum,
energy conservation equations. - Inviscid, incompressible
flow: potential flow solutions, source and sinks, doublets,
vortex and circular cylinder placed in a uniform flow;
Kutta-Joukowski theorem; lift. Incompressible flows over
aerofoils: aerofoil nomenclature; the Kutta condition and
lift; conformal mapping of potential flow. - Aerofoil theory:
two-dimensional aerofoil; thin flat-plate aerofoil; thick
cambered aerofoil; NACA aerofoils; finite-span wings;
induced drag; effect of aspect ratio; Delta wings. - Viscous
flow and flow control: review of fundamentals and
equations; laminar and turbulent boundary layers;
transition; effect of pressure gradients; estimating drag;
stalled flow; boundary layer control.
Description
Method and frequency of class:
Activity
No. of
Sessions
Lecture
1 per wk.
Duration
2hr0min
This module includes two case studies.
MM4AUM
Credits
Automotive Materials
Level 4
10
Undergraduate students in the third or
fourth year of an Engineering Degree Programme. Taught
MSc students. NOTE: Erasmus/Socretes/Visiting students
MUST take any relevant examinations for this module in
Nottingham at the appropriate time with all other students
in the cohort.
Target students
There is a limit to the number of places on this module. Students are
reminded that enrolments which are not agreed by the Offering School in
advance may be cancelled without notice.
Semester
Spring
If MM3ITM or MM3PEA have not been studied
then equivalent knowledge and understanding must be
demonstrated to the satisfaction of the module convener.
This module may not be taken with MM4AEM, Aerospace
Materials
Prerequisite
Code
MM3ITM
MM3PEA
Title
Introduction to Transport Materials
Processing of Engineering Alloys
To achieve the learning outcomes the
modules is taught by a combination of short lectures,
seminars, directed reading, essays and oral presentations.
The modules will be assessed by coursework only. The
lectures and seminars cover the generic aspects of
processing, structure and property relationships in
selected classes of advanced engineering materials. The
direct case studies follow topics on the materials used in
the superstructure, and the power unit and novel
materials.
Description
Activities may take place every teaching week of the Semester or only in
specified weeks. It is usually specified above if an activity only takes
place in some weeks of a Semester
Method and frequency of class:
Assessment
Lecture
Assessment Type
Exam 1 (60%)
Coursework 1 (20%)
Coursework 2 (20%)
Convenor
Professor KS Choi
Requirements
Closed book examination.
Assessed case study 4000 words
(maximum)
Assessed case study 4000 words
(maximum)
Activity
No. of
Sessions
1 per wk.
Duration
2hr0min
Activities may take place every teaching week of the Semester or only in
specified weeks. It is usually specified above if an activity only takes
place in some weeks of a Semester
Assessment
Assessment Type
Coursework 1 (33%)
Requirements
Case Study
Coursework 2 (33%)
Case study
Coursework 3 (34%)
Oral presentation and executive
summary report
Convenor
Dr AR Kennedy
MM4AVD
Credits
Automotive Vehicle Dynamics
Level 4
10
MM4EOX
Credits
Electron-Optical & X-ray Techniques
Level 4
10
Primarily for 4th year MEng students and
MSc students in mechanical engineering. NOTE:
Erasmus/Socretes/Visiting students MUST take any
relevant examinations for this module in Nottingham at
the appropriate time with all other students in the cohort.
Target students
Includes 'study abroad'
Prerequisite
Target students
Semester
Spring
A good understanding of machine dynamics
and structural vibration. These requirements are satisfied
by completion of modules MM3ADM (Advanced Dynamics
of Machines) and MM2DYN (Dynamics).
Prerequisite
Code
MM3ADM
Title
Advanced Dynamics of Machines
The module covers the following topics: •
Tyre forces and tyre modelling, • Ride comfort: random
vibration, road surface roughness, human tolerance limits,
quarter-vehicle model, • Lateral vehicle dynamics:
handling and stability, understeer/oversteer, • Simulation
tools and model building: special reference to Matlab, •
Overview of vehicle chassis enhancement by electronic
control, e.g., active suspension, anti-lock braking, traction
control, dynamic stability control, etc. Examples and
applications of the concepts and techniques developed are
given on passenger cars, heavy vehicles and motorcycles.
Description
Method and frequency of class:
Activity
No. of
Sessions
Lecture
1 per wk.
Duration
2hr0min
Activities may take place every teaching week of the Semester or only in
specified weeks. It is usually specified above if an activity only takes
place in some weeks of a Semester
Assessment
Assessment Type
Exam 1 (80%)
Coursework 1 (20%)
Convenor
Dr AA Popov
Requirements
2 hour closed book examination
Analytical/Computational
Assignment: 1500 words
Final year Engineering and Biomedical
Materials Science students; & Engineering (Materials) &
Nanoscience Masters students. PhD students are also
welcome to attend.
Semester
Spring
Basic grounding in physical science to level 3
(understanding of atomic structure, crystallography and
metallography).
Code
MM4AMC
Title
Advanced Materials Characterisation
The module provides an introduction to a
range of solid state analytical techniques, including
transmission and scanning electron microscopy, energy
dispersive x-ray analysis, and x-ray and electron
diffraction. Consideration will be given to the detailed
operation of these instruments and interpretation of the
signals generated, illustrated with case studies of typical
materials engineering investigations.
Description
Method and frequency of class:
Activity
Duration
No. of
Sessions
Lecture
1 per wk.
2hr0min
Practical
1 per wk.
3hr0min
Assessment
Assessment Type
Requirements
2 hour exam
Exam 1 (70%)
Laboratory (30%)
Convenor
camera ready conference paper (4
pages)
Professor PD Brown
MM4HSD Contemporary Issues in Human Factors and
Interactive Systems
Credits
Level 4
10
MSc in Human Factors students in School
of Mechanical, Materials, Manufacturing Engineering, MSc
Interactive Systems Design students in Computer Science.
NOTE: Erasmus/Socretes/Visiting students MUST take any
relevant examinations for this module in Nottingham at
the appropriate time with all other students in the cohort.
Target students
Includes 'study abroad'
Semester
MM4JTN
Credits
Joining Technology
Level 4
10
Students in the 3rd and 4th year of
undergraduate courses in the Dept of Mech, Materials and
Manuf Eng. Students on mechanical, materials and
manufacturing MSc courses in the Department. NOTE:
Erasmus/Socretes/Visiting students MUST take any
relevant examinations for this module in Nottingham at
the appropriate time with all other students in the cohort.
Target students
Includes 'study abroad'
Spring
Semester
Spring
This module develops an understanding of
human factors and interactive systems design through
student led seminars and an individual literature review
that each student conducts on a contemporary topic area.
The seminar will cover aspects such as: defining human
factors and interactive systems, approaches
(experimental, ethnographic, analytical, etc) and the
design of systems, case studies illustrating the need for
socio-technical perspectives, and issues in user-centred
design for products, processes and interfaces. The
literature review will equip each student with essential
skills in the searching, critical analysis and synthesis of
relevant literature (which may come from a variety of
scientific journals, books, industrial/business/professional
publications across a range of disciplines). Each student
will develop their knowledge and understanding of a
specific area in human factors/interactive systems. The
information collected will be critically analysed to produce
an extended essay/review.
Description
Method and frequency of class:
Method and frequency of class:
Activity
Duration
Activity
2hr0min
Lecture
Description
No. of
Sessions
Lecture
1 per wk.
Activities may take place every teaching week of the Semester or only in
specified weeks. It is usually specified above if an activity only takes
place in some weeks of a Semester
Assessment
Assessment Type
Coursework 1 (20%)
Requirements
Essay
Coursework 2 (80%)
Literarure Review
Convenor
Dr AW Stedmon
This module examines, in depth, the
processes used for joining metallic (e.g. steel, aluminium
and titanium alloys) and non-metallic (e.g. polymers and
fibre reiforced composites) materials. Topics covered
include: mechanical joining; adhesive bonding; soldering
and brazing; solid state joining (friction welding and
diffusion bonding); fusion welding (arc welding and the
many classes thereof, resistance, electron beam and laser
welding). The fundamental characteristics of the various
processes are examined along with procedures for
practical applications. The origins of defects within joints
and methods needed to control or eliminate them are also
considered. The mechanical behaviour of joints is
analysed, as is the effect of joining on the microstructural
characteristics and mechanical properties of the base
materials. Other features such as residual stress and
distortion are addressed. Attention is also given to
appropriate design for manufacture in a modern
manufacturing context.
No. of
Sessions
1 per wk.
Duration
2hr0min
Assessment
Assessment Type
Exam 1 (75%)
Coursework 1 (25%)
Convenor
Requirements
1hour 30 minute unseen written
exam
Problem sheet involving quantitative
analysis of fusion welding processes
Professor DG McCartney
MM4LCB
Credits
Language Case Study B
Level 4
10
Students studying for a 'with language'
degree in Department M3 who have completed the highest
stage in the appropriate sequence of Inter-Faculty
language modules.
MM4LMA
Credits
Lean Manufacturing
Level 4
10
MEng, BEng and MSc students with the
appropriate background. NOTE: Erasmus/Socretes/Visiting
students MUST take any relevant examinations for this
module in Nottingham at the appropriate time with all
other students in the cohort.
Target students
Target students
There is a limit to the number of places on this module. Students are
reminded that enrolments which are not agreed by the Offering School in
advance may be cancelled without notice.
Includes 'study abroad'
Semester
Semester
Spring
Intense global competition is driving
manufacturing businesses to ever higher levels of
efficiency. A series of tools, techniques and methods
aimed at waste reduction have been collected under an
umbrella heading of 'Lean' manufacturing. Principles of
Lean Manufacturing will be introduced and the contribution
it can make to efficiency explained. The available tools will
be described in some detail and a series of case studies
used to further understanding as to how these methods
may be used in real industrial situations. Whilst the
importance of people and change will be considered within
the context of introducing Lean Manufacturing the module
will concentrate on manufacturing systems may be
designed to be lean yet robust to the disturbances that
inevitabely occur in real manufacturing environments. The
issues associated with introducing new products into
established manufacturing plants will also be considered.
Description
Spring
The module enables students who have
completed the highest stage in the appropriate sequence
of Inter-Faculty language modules to extend their
technical language skills through the study of a recent
development in engineering of their own choice. The
material for the topic chosen must not be from a previous
or current module and will be subject to the approval from
the Module Convenor. If MM4LCA has been taken then
another appropriate case study should be established for
MM4LCB. It will include a literature search and some data
analysis but may also involve attending lectures in related
modules, industrial visits and discussions with individuals
active in the chosen engineering field. Support will be
provided by the Language Tutor in the Department of
Modern Languages and technical support provided through
the M3 Departmental convenor. The dissertation and
verbal presentation must be presented in the appropriate
language together with an English translation. The
dissertation and verbal presentation will be assessed for
both their language and technical quality and an
assessment form can be obtained from the Module
Convenor.
Description
Method and frequency of Class:
Eleven weeks of private study, including use of the Self
Access Centre for updating.
Method and frequency of class:
Activity
No. of
Sessions
Lecture
1 per wk.
Assessment
Assessment Type
Assessment Type
Exam 1 (70%)
Presentation 1 (30%)
Convenor
Dr RC Cobb
Requirements
A dissertation up to 3,000 words in
the language studied and an english
translation
A verbal presentation, up to 30
minutes, in the language studied and
an english presentation.
2hr0min
Activities may take place every teaching week of the Semester or only in
specified weeks. It is usually specified above if an activity only takes
place in some weeks of a Semester
Assessment
Coursework 1 (70%)
Duration
Coursework 1 (30%)
Convenor
Mr G Robinson
Requirements
unseen written examination
case study 1
MM4MDR
Credits
Medical Device Regulation
Students registered for MSc
Bioengineering Degrees. The module would also be an
option for undergraduate Biomedical Materials Science and
Mechanical Engineeering (Bioengineering)
Includes 'study abroad'
Spring
This module is concerned with the regulaotry
processes applied to medical devices through all stages of
development, commercial production and clinical use. The
remit of the module covers both synthetic medical devices
and tissue engineering regulation and, as such,
consideration will include combination products and
pharmaceutical regulation where appropriate. Core content
will include an introduction to standards and standards
organisations, biocompatibility standards, regulatory
strategy, design control and risk analysis, premarket
approval and clearance and manufacturing control. Core
material will be delivered by University staff with up to
50% contact time given over to speakers from industry
with specific experience working with medical device
regulations.
Description
Method and frequency of class:
Activity
No. of
Sessions
Lecture
1 per wk.
Duration
2hr0min
Activities may take place every teaching week of the Semester or only in
specified weeks. It is usually specified above if an activity only takes
place in some weeks of a Semester
Assessment
Assessment Type
Exam 1 (80%)
Coursework 1 (20%)
Convenor
Advanced Numerical Methods in
Engineering
Level 4
10
Target students
Semester
MM4NME
Dr A Campbell Ritchie
Requirements
Credits
Level 4
10
Engineering students in 4th year or any
other students who fulfil the prerequisites. NOTE:
Erasmus/Socretes/Visiting students MUST take any
relevant examinations for this module in Nottingham at
the appropriate time with all other students in the cohort.
Target students
Includes 'study abroad'
Semester
Spring
Prerequisite
Or any equivalent computational module
Code
MM2CMS
Title
Computer Modelling Systems
Review of linear algebra Matrices and linear
system Eigenvalues of matrices Ill-conditioning Stability
and error analysis in numerical methods Finite difference
approximation Centered, forward and backward
differentiation Functions of several variables Explicitly
Finite difference; convergence and stability.
Crank-Nicolson implicit scheme Derivative boundary
conditions Iterative solutions Upwind differentiation;
stability and damping Non-linear systems,
Newton-Raphson scheme Radial Basis Function meshless
approach Radial Basis Function interpolation, including
Hermitian interpolations Unsymmetric approach (Kansa
Method) Symmetric approach (Hermitian Method) The use
of Radial Basis Function Technique for high order finite
difference for non-structured stencil. Finite Volume
Integral representation form Structured finite volume
Upwind approximation of convective fluxes: Constant,
Linear (LUDS) and quadratic (QUICK). Unstructured
volume element scheme. The use of Radial; basis function
collocation schemes to improve CV stability and accuracy.
Boundary Element Method Green’s first and second
identity Lorentz Reciprocal Theorem The fundamental
solution and the delta function Green’s integral
representation formula for potential theory Surface
integrals for Dirichlet, Newman and radiation boundary
conditions Green’s functions
Description
Method and frequency of class:
Activity
No. of
Sessions
Duration
Lecture
1 per wk.
2hr0min
Practical
1 per wk.
1hr0min
Two hours per week on the computer lab working on the
three coursework with the help of a teaching assistant.
Activities may take place every teaching week of the Semester or only in
specified weeks. It is usually specified above if an activity only takes
place in some weeks of a Semester
Assessment
Assessment Type
Exam 1 (50%)
Requirements
Written exam
Coursework 1 (15%)
Case study
Coursework 2 (15%)
Case study
Coursework 3 (20%)
Case study
Convenor
Professor H Power
MM4RPD
Credits
Rapid Product Development
Level 4
10
MM4TPS
Credits
Advanced Thermal Power Systems
Level 4
10
M.Eng and M.Sc. NOTE:
Erasmus/Socretes/Visiting students MUST take any
relevant examinations for this module in Nottingham at
the appropriate time with all other students in the cohort.
Target students
Includes 'study abroad'
Prerequisite
Target students
Semester
Spring
This module will cover a range of technologies
involved in modern product development and the support
systems needed to help reduce development time and cost
of products and assemblies. Topics addressed will include
Rapid Prototyping, Rapid Tooling and Additive
Manufacturing technologies, high speed machining, agile
fixturing systems, Reverse Engineering, Virtual
Prototyping, Responsive Manufacturing and CAD/CAM
requirements for rapid product development.
Description
Method and frequency of class:
Activity
No. of
Sessions
Duration
Lecture
1 per wk.
2hr0min
Seminar
1 per wk.
3hr0min
Fieldtrip
1 per wk.
2hr0min
Usually 2 hours per week to include lectures, seminar
presentations (3 hours) and lab visits.
Activities may take place every teaching week of the Semester or only in
specified weeks. It is usually specified above if an activity only takes
place in some weeks of a Semester
Assessment
MSc students and 3rd and 4th year
students in the Faculty of Engineering
Includes 'study abroad'
Semester
Spring
Any one of the above modules need be taken
as a pre-requisite OR any other module with equivalent
content.
Code
MM3EM1
MM3EM2
MM2TF2
Title
Energy Efficiency for Sustainability 1
Energy Efficiency for Sustainability 2
Thermodynamics & Fluid Mechanics 2
This module concerns thermal plant for power
generation. It will focus upon steam cycles and gas turbine
cycles and integrated steam/gas cycles and consider plant
suitable for operation with conventional fossil fuels,
biomass, waste heat streams and solar thermal and
nuclear heat sources. The module will consider plant for
high efficiency, low carbon emission applications and will
also include advanced analysis of combustion processes to
include chemical equilibrium and the issues related to
pollution formation. The emphasis in the module will be
upon understanding how to analyse the thermal
performance of power plant and undertake design
calculations. The emphasis will also be upon system
performance and design rather than component design.
Description
Method and frequency of class:
Activity
Assessment Type
Requirements
1.5 hour exam
Exam 1 (70%)
Coursework 1 (20%)
Group Presentation
Coursework 2 (10%)
Individual Assignment
Lecture
2 per wk.
Assessment Type
Coursework 1 (20%)
MM4SBI
Credits
Spinal Biomechanics and Instrumentation
Level 4
10
Primarily for students taking
Bioengineering MSc, but intended as an optional module of
relevance to many engineering and physical science
programmes. NOTE: Erasmus/Socretes/Visiting students
MUST take any relevant examinations for this module in
Nottingham at the appropriate time with all other students
in the cohort.
Target students
Includes 'study abroad'
Semester
Spring
This module considers aspects of
experimental and theoretical spinal biomechanics
including:
Description
Mechanical properties of the spine: Intervertebral discs
Spinal ligaments Vertebrae Experimental techniques
Modelling Implant design Mechanics of surgical procedures
Method and frequency of class:
Activity
No. of
Sessions
Lecture
2 per wk.
Duration
1hr0min
Activities may take place every teaching week of the Semester or only in
specified weeks. It is usually specified above if an activity only takes
place in some weeks of a Semester
Assessment
Assessment Type
Exam 1 (100%)
Convenor
Dr DS McNally
Requirements
2-hour written exam
Duration
1hr0min
Assessment
Exam 1 (80%)
Dr J I Segal
Convenor
No. of
Sessions
Convenor
Dr SJ Pickering
Requirements
Written exam
Written coursework
MM1EM1
Full Year
Credits
Electromechanical Systems 1
Level 1
20
First year students in the school of M3.
NOTE: Erasmus/Socretes/Visiting students MUST take any
relevant examinations for this module in Nottingham at
the appropriate time with all other students in the cohort.
Target students
Level 1
MM1DM1
Credits
Design and Manufacture 1
Level 1
20
Primarily for 1st year students in the
Department of Mechanical, Materials and Manufacturing
Engineering. NOTE: Erasmus/Socretes/Visiting students
MUST take any relevant examinations for this module in
Nottingham at the appropriate time with all other students
in the cohort.
Target students
Semester
Full Year
This year long module introduces students to
basic concepts and practice of design and manufacture and
includes the following topics: -The process of design
supported by practical design activities. (One design is
manufactured in the workshop and tested). -Engineering
drawing -Solid modelling and drawing generation using
Pro|Engineer -Machine shop practical training -Machine
elements including bearings, screwed fasteners, belt
drives, shaft couplings, and shaft connections -Machining
processes and cutting tools -Metrology
Description
Method and frequency of class:
Activity
No. of
Sessions
Includes 'study abroad'
Semester
Full Year
Mechanics: Displacement, velocity and
acceleration, relationship between angular and linear
motion, Newton's Laws for linear & rotational motion,
angular acceleration, momentum, work & power, kinetic &
potential energy, geared systems, tangential drives,
vehicles, load characteristics. Static and dynamic
balancing. Electrical machines and circuits: DC circuits,
electromagnetism, capacitance, transducers, AC circuits,
rectification, induction motor, amplifiers, combinational &
sequential logic, converters and transformers. Sensors:
Principles of operation, accuracy, sensors for proximity,
position, displacement, velocity, acceleration & strain,
rotary sensors. Actuators & Loads: switches, stepper
motor, pneumatics and hydraulics, load dynamics. Signals
and conversion: analog and digital data, ADCs, DACs.
Description
Method and frequency of class:
Activity
No. of
Sessions
Duration
Duration
Lecture
1 per wk.
2hr0min
1 per wk.
3hr0min
1 per wk.
1hr30min
Lecture
1 per wk.
1hr0min
Practical
Practical
1 per wk.
2hr0min
Practical
Computing
1 per wk.
3hr0min
Practical
2 per wk.
3hr0min
1 per wk.
1hr0min
2 per wk.
3hr0min
Practical
1 per wk.
2hr0min
Tutorial
Lecture
1 per wk.
2hr0min
Practical
Workshop
1 per wk.
3hr0min
Ten 3-hour workshops and Twenty-one 2-hour
drawing/design classes.
Activities may take place every teaching week of the Semester or only in
specified weeks. It is usually specified above if an activity only takes
place in some weeks of a Semester
Assessment
Assessment Type
Exam 1 (40%)
Coursework 1 (60%)
Convenor
Dr M Johnson
Requirements
One 1.5-hour exam at end of Spring
Semester
Assessed laboratory and design
coursework: Sem 1: 3 Pro|Engineer
Projects (9%), 4 Drawing Exercises
(16%), Engineering Terminology
(2%) Sem 2: Pro|Engineer Project
(3%), Detailed Design Project
(15%), Design & Make Project (15%)
One two-hour lecture and one one-hour exercise class per
week, reinforced with a total (per student per year) of two
electronics laboratories, one electrical engineering (AC
motor) laboratory, two electromechanical laboratories and
two computer-aided learning tests.
Activities may take place every teaching week of the Semester or only in
specified weeks. It is usually specified above if an activity only takes
place in some weeks of a Semester
Assessment
Assessment Type
Exam 1 (60%)
Requirements
2 hours
Practical (8%)
WebCT-based assessment (2 tests)
Laboratory (20%)
Exam 2 (12%)
Convenor
Dr IA Jones
Mech, electronic and electromech
labs
Mid-sessional exam, paper or online,
to be decided (45 mins)
MM1IMF
Credits
Introduction to materials and materials
forming
Level 1
20
Students in the first year of the School of
M3, those outside the School requiring an introduction to
materials behaviour and manufacturing processes. NOTE:
Erasmus/Socretes/Visiting students MUST take any
relevant examinations for this module in Nottingham at
the appropriate time with all other students in the cohort.
Target students
Includes 'study abroad'
Semester
Full Year
This course gives a broad introduction to the
properties and processing of materials used in engineering
applications and is intended to provide a course in
engineering materials for students with no previous
background in the subject. The module begins with an
introduction to the role of materials and manufacture in
the design process. A range a material properties are
considered such as the Elastic Moduli, Fracture Toughness
and so forth. Each property will be defined, describing how
it is measured, and providing a table of data for solving
problems involving the selection and use of materials.The
basic science underlying each property is examined to
provide the knowledge with which to design materials with
better properties. For each property (or group of
properties), a case study of practical design application
will be addressed. Following the examination of the
material properties, materials forming/manufacturing
processes are introduced, including: casting, moulding,
deformation and powder processing, machining, heat
treatment, joining and finishing. The underpinning
materials behaviour and the effects of these processes on
materials performance are covered. The final section of the
module covers failure of materials, and seeks to cover the
main failure mechanisms which a designer will be
concerned with (overload, ffracture, creep, fatigue etc).
Description
MM1TF1
Credits
Thermodynamics & Fluid Mechanics 1
Level 1
20
NOTE: Erasmus/Socretes/Visiting
students MUST take any relevant examinations for this
module in Nottingham at the appropriate time with all
other students in the cohort.
Target students
Includes 'study abroad'
Semester
Full Year
This is an introductory module covering the
fundamental concepts and principles of thermofluids and
their applications to engineering problems. Topics covered
include: • Introductory Physics – properties of fluids,
equations of state and the perfect gas law • Hydrostatics •
The first and second law of Thermodynamics, including
heat engines • Fluid Dynamics: Continuity, Euler and
Bernoulli equations • Processes undergone by closed
systems • The steady flow energy equation • Momentum
flows including linear momentum, friction factors & pipe
flows • Heat Transfer • Data Analysis
Description
Method and frequency of class:
Activity
No. of
Sessions
Lecture
2 per wk.
1hr0min
Practical
1 per wk.
2hr0min
Seminar
1 per wk.
1hr0min
Activities may take place every teaching week of the Semester or only in
specified weeks. It is usually specified above if an activity only takes
place in some weeks of a Semester
Assessment
Assessment Type
Exam 1 (60%)
Coursework 1 (5%)
Practical (5%)
Assignment (10%)
Method and frequency of class:
Activity
No. of
Sessions
Duration
1 per wk.
2hr0min
Practical
2 per wk.
3hr0min
Each student will attend the laboratory for three sessions
(in quick succession). These sessions (9 hours) are linked
to form one coherent laboratory exercise. Laboratory
sessions cover the basics of materials behaviour along
with the processing of materials and its effect on materials
properties.
Activities may take place every teaching week of the Semester or only in
specified weeks. It is usually specified above if an activity only takes
place in some weeks of a Semester
Assessment
Assessment Type
Exam 1 (70%)
Coursework 1 (20%)
Exam 2 (10%)
Convenor
Dr AR Kennedy
Exam 2 (15%)
Practical 2 (5%)
Lecture
Requirements
End of module examination (Spring
semester)
Assessment of series of three
laboratory sessions
Mid sessional examination (no resit
opportunity)(Autumn semester)
Duration
Convenor
Dr CN Eastwick
Requirements
2 hour closed book exam
Question based assignment
Laboratory with written report
Multiple formative e-assessments
through year
January mid-course assessment
Laboratory with written report
MM2DYN
Level 2
Credits
MM2DM2
Credits
Design and Manufacture 2
Level 2
20
NOTE: Erasmus/Socretes/Visiting
students MUST take any relevant examinations for this
module in Nottingham at the appropriate time with all
other students in the cohort.
Target students
Semester Full Year
Prerequisite
Code
MM1DM1
Title
Design and Manufacture 1
This is a continuation module about
Mechanical Design Principles and Methods. The
methodology available for design is described and further
machine elements are introduced and analysed. Practical
experience of the design process is obtained through
design assignments and a group design-and-make project.
Description
Method and frequency of class:
Activity
No. of
Sessions
Duration
Lecture
1 per wk.
1hr30min
Practical
1 per wk.
2hr0min
Practical
1 per wk.
2hr0min
Workshop
1 per wk.
8hr0min
Lecture
1 per wk.
0hr30min
One 1.5-hour lecture/week, one 2-hour design
workshop/week. Four 2-hour CAD sessions/semester. Two
and one-half machine workshop sessions/spring semester.
Five staff are involved in lectures (Hengan Ou, Mike
Johnson, John Dominy, Geoff Kirk and Simon Harrison)
teaching in blocks with no direct mapping to weekly slots.
Activities may take place every teaching week of the Semester or only in
specified weeks. It is usually specified above if an activity only takes
place in some weeks of a Semester
Assessment
Assessment Type
Exam 1 (40%)
Requirements
1 hour and 30 mins exam
Coursework 1 (15%)
assessed design (& make) project
Practical (11%)
assessed (design &) make project
with testing
assessed CAE1,2,3&4 coursework
Coursework 2 (6%)
Coursework 3 (3%)
assessed design coursework
Coursework 4 (15%)
assessed individual design project
Coursework 5 (10%)
assessed group design project
Convenor
Dr H Ou
Dynamics
Level 2
20
Second year students in mechanical
engineering and any other students who fulfill the
prerequisites.
Target students
Includes 'study abroad'
Semester
Full Year
Basic mechanics from A-level Physics or
equivalent. The Dynamics part of MM1EM1
Electromechanical Systems 1 is a prerequisite.
Prerequisite
Code
MM1EM1
Title
Electromechanical Systems 1
Dynamics: Rigid body kinematics and
dynamics in planar motion, planar mechanisms, moments
of inertia, velocity and acceleration diagrams, gyroscopic
effects, coupled systems Structural vibrations:
Introduction to Matlab, free and forced vibration of
damped single degree of freedom structures, vibration
isolation, free vibration of multi-degree of freedom
structures, experimental modal analysis, shaft whirl and
beam vibrations. Control: Representation and analysis of
simple control systems, PID control, stability of feedback
systems.
Description
Method and frequency of class:
Activity
No. of
Sessions
Lecture
Duration
1 per wk.
2hr0min
Practical
2 per wk.
3hr0min
Seminar
1 per wk.
1hr0min
Assessment
Assessment Type
Requirements
Exam 1 (75%)
Coursework 1 (8%)
Dynamics case study
Coursework 2 (5%)
Laboratory report: Modal testing
Coursework 3 (5%)
Laboratory report: Control
Coursework 4 (7%)
Vibration case study
Convenor
Dr G A Charles
MM2EM2
Credits
Electromechanical Systems 2
Level 2
20
Second year Design Engineerig Students
and some 3rd year Mechanical Engineering students
Target students
Semester Full Year
Prerequisite
MM2MPT
Manufacturing Project
Semester
Full Year
Module above or a) Knowledge of Design b)
Knowledge of Manufacturing Processes.
Prerequisite
Code
MM1DM1
MM1EM1
Title
Design and Manufacture 1
Electromechanical Systems 1
Motion and Measurement • Revisit Induction
motors, DC motors and Stepper motors and pneumatics •
The control techniques for above – On/Off and
proportional controls • Mechanisms for converting rotary
to linear motion and vice versa • Measurement options
concentrating on position and speed Computers,
Communication and Control • The sequential processing of
data by a computer and the ability to perform multiple
tasks. The State Machine • The challenge of performing
tasks in “real-time” and frequent use of a hierarchy of
computers some performing very time-critical simple tasks
(e.g. controlling a motor speed) and others performing
less time critical function of greater complexity (e.g.
interfacing to a human). • Overview of networking leading
to simple communication between computers by wired or
wireless serial links. • The concept of closed loop control.
Introduce as a general technique e.g. temperature,
pressure etc. but study of an electrical position control
system for a introductory exploration of PID and issues of
error and stability • Control practicalities like home
positions, limits, and EStop safety systems Prototyping
and Production • Study of options for prototyping parts
and systems (e.g. additive RP, subtractive CNC operations,
printed circuit boards, breadboards, modules) and relate
these to already studied production techniques and
applicable materials. • Gain practical capability in RP and
CNC milling and control system modules
Description
Code
MM1DM1
Title
Design and Manufacture 1
Students are responsible for the design and
manufacture of an industrial product or assembly. Each
year a new project is provided involving market research,
design, the manufacture of prototypes of the new product,
testing, the development of the production system and the
generation of a business and assembly plan. Students
work in groups and 1-2 industrial visits, depending upon
group size, are also arranged to help students appreciate
current industrial practice and present their findings. .
Description
Method and frequency of class:
Activity
No. of
Sessions
Seminar
1 per wk.
Assessment
Assessment Type
Requirements
Coursework 1 (100%)
Convenor
Dr RC Cobb
MM2MS2
Mechanics of Solid 2
Semester Full Year
Prerequisite
2 per wk.
1hr0min
Tutorial
1 per wk.
1hr0min
Code
MM1MS1
Activities may take place every teaching week of the Semester or only in
specified weeks. It is usually specified above if an activity only takes
place in some weeks of a Semester
Assessment
Assessment Type
Requirements
Exam 1 (40%)
Coursework 1 (10%)
Project 1 (30%)
Mini-project 1
Main Project
Coursework 2 (10%)
Mini-project 2
Coursework 3 (10%)
Mini-project 3
Convenor
Mr J Prentice
Level 2
Credits 20
Target students
Includes 'study abroad'
Lecture
3hr0min
Activities may take place every teaching week of the Semester or only in
specified weeks. It is usually specified above if an activity only takes
place in some weeks of a Semester
Activity
Duration
Duration
Weekly group meetings will be held and laboratory,
design, presentations and industrial field trips will take
place as required.
Method and frequency of class:
No. of
Sessions
Level 2
Credits 20
Target students
Title
Mechanics of Solids 1
Analysis methods applicable to engineering
design including: Combined loading, yield criteria, beam
deflections, statically indeterminate structures,
elastic-plastic deformations including yield in beams and
shafts, residual stresses, elastic instability, shear stresses
in bending, shear centre, thermal stresses in beams, thick
cylinders and rotating discs, 2nd moments of area of
complex sections, asymmetrical bending, strain energy
methods, the finite element method, fatigue and fracture.
Case studies are presented to relate topics covered in the
module to actual design situations. Practical application is
taught through a series of laboratories and a design
exercise.
Description
Method and frequency of class:
Activity
No. of
Sessions
Duration
Lecture
2 per wk.
1hr0min
Practical
2 per wk.
3hr0min
Tutorial
2 per wk.
1hr0min
Assessment
Assessment Type
Exam 1 (35%)
Coursework 1 (7%)
Exam 2 (35%)
Requirements
1.5-hour written examination
Assessed laboratory report
1.5-hour written examination
Coursework 2 (9%)
Design Exercise
Coursework 3 (7%)
Assessed laboratory report
Coursework 4 (7%)
Assessed laboratory report
Convenor
Dr R Brooks
MM2TF2
Credits
Thermodynamics & Fluid Mechanics 2
MM3IEM
Investigatory Methods for Innovation in
Engineering and Management
Level 2
20
Mainly students from the Department M3,
who already have Thermodynamics and Fluid Mechanics 1.
Students are accepted from other Departments who can
satisfy the prerequisites. Some students transfer from
other M3 courses in year 1 directly into year 2, such that
they do this module in year 3.
Credits
Includes 'study abroad'
Description
Target students
Semester Full Year
Prerequisite
Code
MM1TF1
Title
Thermodynamics & Fluid Mechanics 1
An intermediate module in thermodynamics
and fluid mechanics applicable to a wide range of
engineering practice, including • basic equations for
thermo-fluid flows • laminar and turbulent boundary layers
• heat exchangers • thermal mixtures and combustions •
lift and drag of immersed bodies • pipe and duct flows •
dimensional analysis and similarity • condensable vapour
cycles • pumps and compressors
Description
Method and frequency of class:
Activity
No. of
Sessions
Duration
Lecture
1 per wk.
2hr0min
Seminar
1 per wk.
1hr0min
Practical
2 per wk.
4hr0min
Coursework 1 (8%)
Exam 2 (40%)
Coursework 2 (8%)
Coursework 3 (14%)
2 hour closed-notes exam (Spring
semester)
Thermodynamics experiment
Thermo-Fluid report based on site
visit
Dr D Giddings
Convenor
Credits
This module will introduce a range of methods
& methodologies for studies relevant to innovation in
Manufacturing and Product Development. Students will
visit several companies to understand in depth how they
operate and are organised. Visits will be followed by group
oral presentations and analyses. 12 hours of lectures will
teach methods of investigation including planning a
technical project, defining project goals, conducting
literature surveys, presenting research findings, methods
of conducting surveys, interviews, data analysis and use of
case studies. Students will also undertake a literature
based study supervised by a member of staff. This will
require the use of journals, books, manufacturers' data,
web sources & personal communication. The information
will be critically analysised to produce an individual
dissertation. Regular meetings will be held between
supervisor & student.
No. of
Sessions
Level 3
BEng students studying Mechanical
Engineering or Design Engineering in School M3
Target students
Full Year
Lecture
1 per wk.
4hr0min
Lecture
2 per wk.
2hr0min
Fieldtrip
1 per wk.
4hr0min
Twelve hours of lectures will be held and 3 or 4 half day
company visits/ field trips will be made, some in the
autumn semester and some in the spring semester. The
remainder of the module will involve no further classes but
regular project meetings will be held between student &
supervisor. Tutor led: 45 hours Student led: 144 hours
Assessment/revision: 36 hours
The project aims to give experience in the
practice of engineering at a professional level. It involves
the planning, execution and reporting of a programme of
work which will normally involve a mixture of
experimental, theoretical and computational work together
with a review of relevant previous work in the field. The
detailed content is a matter for discussion between the
student and his/her supervisor.
Assessment Type
Dissertation (40%)
Coursework 1 (25%)
Report (20%)
Description
Method and frequency of Class:
The project starts at the beginning of the Autumn
Semester and the final report must be submitted by the
end of week~9 of the Spring Semester. There will be
regular contact with the supervisor. It is expected that
67% of the student's effort will take place during the
Spring Semester.
Assessment
Assessment Type
Coursework 1 (60%)
Requirements
6000 word report
Oral (10%)
oral presentation
Coursework 2 (10%)
progress report
Coursework 3 (20%)
Continuous assessment of the
student's planning, initiative,
judgement and insight
Convenor
Dr MJ Clifford
Duration
Assessment
BEng Individual Project
30
Semester
Full Year
Activities may take place every teaching week of the Semester or only in
specified weeks. It is usually specified above if an activity only takes
place in some weeks of a Semester
Level 3
MM3BPR
Semester
Activity
Requirements
1 hour computer-based exam
(Autumn semester)
Fluids experiments
Exam 1 (30%)
The numbers on this module are
restricted to students from the MEM and PDM programmes
from the Department M3. Exchange students cannot take
this module because of resource issues.
Method and frequency of class:
Assessment
Assessment Type
Level 3
30
Target students
Presentation 1 (15%)
Convenor
Dr RC Cobb
Requirements
one 7,500-word dissertation
two 2000-word individual reports on
methods and analysis
one 5,000-word group report on
industrial practice at end of autumn
semester
3 group oral presentations on
industrial companies
MM3IPR
Credits
Individual project report
Level 3
0
Students who wish to graduate in one of
the accredited degree programmes offered in the
Department of M3, but who have only completed a Group
Project and not an Individual Research Project.
Target students
Semester
Full Year
This module concerns the writing up on the
individual elements of a major group project.
Description
Method and frequency of Class:
Completion of this module is for accreditation purposes
only, and counts for zero credits towards the degree
classification. Being registered for this module delivers
none of the normal rights of being registered as a student.
The assessed work must be handed in for assessment to
the Department of M3 by the 31st August in the year that
the relevant group project was completed.
Assessment
Assessment Type
Requirements
Write up of research report, typically
of 5000 words in length
Report (100%)
MM3MDP
3rd year MEng Product Design Projects
Level 3
40
Students undertaking Product Design and
Manufacture MEng Degree
Target students
Semester Full Year
Prerequisite
This is a project based module for Product
Design and Manufacture students in their 3rd year of the
MEng course. The module comprises of 4 projects,
developing a number of different themes that run through
the discipline. Through practical design work the students
will be faced with the problems of managing different
constraints and producing cohesive design proposals. The
students will develope their skills in receiving design
briefs, managing time and resources and presenting
design solutions.
Method and frequency of class:
No. of
Sessions
Duration
Practical
1 per wk.
4hr0min
Practical
1 per wk.
8hr0min
Activities may take place every teaching week of the Semester or only in
specified weeks. It is usually specified above if an activity only takes
place in some weeks of a Semester
Assessment
Assessment Type
Coursework 1 (35%)
Requirements
RSA Design Directions Project
Coursework 2 (15%)
Individual Design Project
Coursework 3 (50%)
Individual Design Project
Mr RL Tew
Level 3
10
Students undertaking Product Design and
Manufacture at BEng level
Target students
Semester Full Year
Prerequisite
Code
MM1IND
MM2DPI
MM2DPG
MM3RSA
Title
Industrial Design
2nd year design projects
2nd year group design project
RSA Design Projects
This is an individual report based project
which seeks to develop the student’s ability to think
critically, plan and present on a piece of work at a
professional level. The detailed content of the project is a
matter for discussion between the student and the
supervisor. However, the project could involve
experimental, theoretical, observational or practical work
together with a relevant literature review.
Description
Method and frequency of class:
No. of
Sessions
Tutorial
1 per wk.
Duration
1hr0min
Activities may take place every teaching week of the Semester or only in
specified weeks. It is usually specified above if an activity only takes
place in some weeks of a Semester
Assessment Type
Title
Computer Modelling Systems
Design Visualisation Techniques
2nd year design projects
2nd year group design project
Description
Activity
Product Design Dissertation
Assessment
Code
MM2CMS
MM2DVT
MM2DPI
MM2DPG
Convenor
Credits
Activity
Convenor
Credits
MM3PDD
Dissertation (100%)
Convenor
Mr G Lawson
Requirements
Dissertation 3-4000 words
MM3PR3
Credits
Individual Research Project
Level 3
30
Students in the third year of the following
degree courses: Design Integrity (Manufacture &
Materials), Mechanical Engineering, Materials and
Manufacture, and (Bio)Medical Materials Science. NOTE:
Erasmus/Socretes/Visiting students MUST take any
relevant examinations for this module in Nottingham at
the appropriate time with all other students in the cohort.
Target students
Includes 'study abroad'
Semester
Full Year
The purpose of the project is to undertake an
individual piece of original research into a topic in
materials or a related area. Topics are drawn from the
expertise available in the Department of Mechanical,
Materials, Manufacturing Engineering and Managment and
are usually associated with current research in the Faculty
of Engineering. Students may suggest their own topic,
which will be taken up if the Department is satisfied about
its standard and that the facilities available will allow its
successful pursuance.
Description
Method and frequency of class:
Activity
Duration
No. of
Sessions
Tutorial
1hr0min
Students are expected to spend approximately 300 hours
each on their projects. They normally work with an
established research group in the School, and are under
tutorial supervision by a member of academic staff.
Activities may take place every teaching week of the Semester or only in
specified weeks. It is usually specified above if an activity only takes
place in some weeks of a Semester
Assessment
Requirements
final written report at end of spring
semester
presentation at end of spring
semester
interim written report at end of
autumn semester
Project 1 (70%)
Oral (10%)
Report (20%)
Professor PD Brown
Convenor
MM3PRT
Credits
BEng Individual Project
Level 3
30
NOTE: Erasmus/Socretes/Visiting
students MUST take any relevant examinations for this
module in Nottingham at the appropriate time with all
other students in the cohort.
Target students
Includes 'study abroad'
Semester
Full Year
An individual project is undertaken to
investigate a suitable topic in the broad areas of
technology, management or human factors. Knowledge
will be gained of the literature and research in the chosen
project area, and a plan appropriate to the programme of
work or problem being investigated will be developed and
completed.
Description
Method and frequency of class:
Activity
No. of
Sessions
Workshop
1 per wk.
Duration
3hr0min
There are no timetabled classes but students will have
regular meetings with their supervisors and will use
library, laboratory and computing facilities as required. In
addition, depending on the exact nature of the project,
field work or in-company work may be necessary.
Activities may take place every teaching week of the Semester or only in
specified weeks. It is usually specified above if an activity only takes
place in some weeks of a Semester
Assessment
Assessment Type
Coursework 1 (100%)
Convenor
Dr RC Cobb
MM4GDP
Group Development Project
Level 4
Credits 40
Target students
Semester
Full Year
The project involves 2 or more students,
working as a team to design, manufacture and develop a
product. Starting from the design brief prepared by the
supervisor, the group will be required to devise and
evaluate alternative design concepts, undertake the
detailed engineering analysis and mechanical design,
manufacture a prototype, evaluate its performance and
undertake development work to improve it. Assessment of
the financial viability and marketability of the product will
be a major requirement.
Description
Method and frequency of Class:
The project starts at the beginning of the Autumn
Semester and the final report must be submitted by the
end of week~10 of the Spring Semester. There will be
regular contact with the supervisor(s). It is expected that
the student's effort will be equally divided between the two
semesters.
Assessment
1 per wk.
Assessment Type
Level 4
Requirements
Assessment Type
Requirements
Continuous assessment of the
student's planning, initiative,
judgement and insight
A 6000 word final report
Coursework 1 (20%)
Report (60%)
Presentation 1 (10%)
Progress presentation and report
Presentation 2 (10%)
Final poster presentation
Convenor
Professor NA Warrior
Index by code
MM1BIO
MM1CSF
MM1CTD
MM1DM1
MM1EM1
MM1HSF
MM1IMF
MM1IMM
MM1IND
MM1MS1
MM1PRO
MM1TF1
MM2AUD
MM2AUT
MM2BAC
MM2CMS
MM2CPM
MM2DFM
MM2DM2
MM2DPG
MM2DPI
MM2DVT
MM2DYN
MM2EBS
MM2EID
MM2EM2
MM2MAC
MM2MID
MM2MN1
MM2MPT
MM2MS2
MM2NNS
MM2TF2
MM3ADM
MM3AET
MM3AMT
MM3AUT
MM3BAB
MM3BIO
MM3BIP
MM3BPR
MM3CAE
MM3CAG
MM3CAI
MM3CMT
MM3CNG
MM3CSF
MM3CSP
MM3DES
MM3EIP
MM3EM1
MM3EM2
MM3ENI
MM3FAM
MM3FEA
MM3FRC
MM3HSF
MM3HSP
MM3HTR
MM3IEM
MM3IPR
MM3ITM
MM3MAJ
MM3MDP
MM3MEC
MM3MEP
MM3MEP
MM3MM
MM3MN2
MM3MPC
MM3PDD
MM3PEA
MM3POE
MM3PR1
MM3PR1
MM3PR3
MM3PRT
MM3RSA
MM3SAT
MM3SHR
MM3SUM
MM3SV2
MM4ABS
MM4ADM
MM4AEM
MM4AER
MM4AMC
MM4APS
MM4AUM
MM4AVD
MM4CFD
MM4EFM
MM4EOX
MM4GDP
MM4HSD
MM4ICE
MM4JTN
MM4LCA
MM4LCB
MM4LMA
MM4MDR
MM4NME
MM4PDP
MM4PSW
MM4RPD
MM4SBI
MM4SET
MM4SIM
MM4TPS
MM4TTF
MM4WOJ
Index by title
2nd year design projects
2nd year group design project
3rd year MEng Product Design Projects
Advanced Biomaterial Structures
Advanced Dynamics of Machines
Advanced Materials
Advanced Materials Characterisation
Advanced Numerical Methods in
Engineering
Advanced Thermal Power Systems
Aerodynamics
Aerospace Manufacturing Technology
Aerospace Materials
Aircraft Propulsion Systems
Automated Manufacture
Automotive Materials
Automotive Vehicle Dynamics
BEng Individual Project
BEng Individual Project
BEng Major Design Project
Biomechanics
Biomechanics
Biomechanics (by distance learning)
Biomedical Applications of Biomaterials
Business Accounting
Cell Structure and Function for Engineers
Cell Structure and Function for Engineers
Cell Structure and Function for Engineers
(by distance learning)
Computational Fluid Dynamics
Computer Aided Engineering
Computer Modelling Systems
Computer Modelling Techniques
Computer Programming
Concurrent Engineering
Contemporary Issues in Human Factors and
Interactive Systems
Control and Instrumentation
Creative Techniques in Design
Design and Manufacture 1
Design and Manufacture 2
Design Audit
Design for Manufacture
Design Visualisation Techniques
Dynamics
Electromechanical Systems 1
Electromechanical Systems 2
Electron-Optical & X-ray Techniques
Elements of Noise Investigation
Energy Efficiency for Sustainability 1
Energy Efficiency for Sustainability 2
Engineering Biomaterial Structures
Environmental Failure of Materials
Ergonomics in Design
European Individual Project
Fibre Reinforced Composites Engineering
Finite Element Analysis
Flexible Automated Manufacture
Group Design Project
Group Development Project
Health, Safety & Risk
Heat Transfer
High Performance Ceramics and Glasses
Human Structure and Function for
Engineers
Human Structure and Function for
Engineers
Human Structure and Function for
Engineers (by distance learning)
Individual project report
Individual Research Project
Industrial Design
Industrial Ergonomics: Jobs, Culture,
Change
Internal Combustion Engines
Introduction to Aerospace Technology
Introduction to Automotive Technology
Introduction to materials and materials
forming
Introduction to Medical Materials
Introduction to Transport Materials
Introduction to Turbulence and Turbulent
Flows
Investigatory Methods for Innovation in
Engineering and Management
Joining Technology
Language Case Study A
Language Case Study B
Lean Manufacturing
Management Studies 1
Management Studies 2
Manufacturing Process Capability
Manufacturing Project
Material Models and Modes of Failure
Materials in Design
Measurement and Control
Mechanical Engineering Project
Mechanical Engineering Project
Mechanics of Solid 2
Mechanics of Solids 1
Mechatronics
Medical Device Regulation
Near Net Shape Manufacture
Physical Ergonomics
Polymer Engineering
Processing of Engineering Alloys
Product Design Dissertation
Professional Development Project
Professional Studies
Rapid Product Development
RSA Design Projects
Short Individual Project
Short Individual Project
Simulation and Digital Human Modelling
Spinal Biomechanics and Instrumentation
Stress Analysis Techniques
Structural Vibration 2
Surface Engineering Technology
Sustainable Manufacturing
Thermodynamics & Fluid Mechanics 1
Thermodynamics & Fluid Mechanics 2