National University of Ireland, Galway
Science without Borders
Module Information Booklet
For Undergraduate Visiting Students
Semester 2, 2014-15
http://www.nuigalway.ie/internationalstudents/yourcountry/brazil/
1
Biodiversity and Bioprospection
Code
BPS203
Module Title
Plants Diversity, Physiology and
Adaptation
Semester
ECTS
Examination Arrangements
2
5
Two hour examination
This module introduces students to the diversity of extant land plants, while explaining processes
shaping their evolution. Lifecycles, physiological adaptions and ecological significance of major plant
groups are described. The student is taught to identify these, and is encouraged to examine strengths
and limitations of different plant groups through lectures and practical investigations. The course is
supported by the latest textbooks & includes a trip to the National Botanic Gardens.
Since colonising Earth's land surface 450 million years ago, plants have evolved to fill myriad habitats,
diversifying into hundreds of thousands of species while shaping the world around us into complex
evolving ecosystems.
In this module, the student is introduced to the processes which have shaped plant diversity over time
and physiological adaptations that allow plants to thrive in different environments. The characteristics
of the main living plant groups are explored via both lectures and practical investigations, with a
particular emphasis on the diversity of plant life-cycles and reproductive strategies. The groups studied
range from the bryophyte groups to the main flowering plant families and include an introduction to
characters of significance for plant identification.
The module also emphasises the ecological and co-evolutionary interactions between different plant
groups, and with other organisms (such as pollinators) . The module is supported by a scientific study
visit to the National Botanic Gardens in Dublin.
The student is encouraged to develop critical reasoning skills with respect to the strengths and
weaknesses of different plant groups, and to make use of the most recent supporting text-books. The
student is also introduced to key references from primary research literature, as part of their ongoing
scientific education, and to develop transferable skills in observation, data collection and collation of
reports.
Overall, the course places the diversity of plants in an evolutionary and encourages the student to
relate this to the ecological settings in which they are found.
Code
ZO320
Module Title
Concepts in Population and
Community Ecology
Semester
ECTS
2
5
Examination Arrangements
Two hour examination /
Continuous Assessment
This module will cover the basics of animal population ecology and community ecology. It will focus
on population level characteristics in animals (including density, dispersal and how populations grow
or decline) and interactions between organisms of the same or different species populations.
Code
Module Title
Semester
ECTS
ZO315
Applied Ecology
2
5
Examination Arrangements
Two hour examination /
Continuous Assessment
An examination of applied aspects of Animal Ecology, this course shows students how our knowledge
of the ecology of animal populations and communities can be used in various fields, including
conservation, pest management, habitat management and protection, parasitological studies and
even forensic science. Anthropogenic influences on populations and animal behaviour is also
explored
2
Biotechnology
Code
Module Title
Semester
ECTS
Examination Arrangements
BPS307
Plant Physiology and Systems Biology
2
5
Two hour examination
This module examines plant growth, development and interactions with the biotic and abiotic
environment in a holistic manner taking into account regulation at the levels of gene expression,
enzyme activities, and the role of specific metabolites. The course is taught through lectures and
practicals enabling students to appreciate how plants can adapt in various environments.
Plants undergo many processes, such as the transition from vegetative growth to flowering, expansive
cell growth, organ development, and fruit ripening, and have adapted to many different
environmental challenges.
This module will examine the underlying processes that control these interactions in an integrated way
taking into account modifications at the different system levels of gene expression, protein synthesis
and activity of enzymes.
Students will be introduced into the key role of hormones and secondary metabolites in sensing
changes in the environment and then transmitting information to various parts of the plants.
The distribution and importance of specific secondary metabolites will be discussed with respect to
their influence on plant survival against abiotic (temperature, light) and biotic (competitors, herbivores
and pathogens) as well as their uses by humans where relevant.
The role of the circadian clock in the regulation of these various processes will also be discussed
The course is taught through lectures which are supported by practicals designed to help students
understand plant processes in a holistic manner.
Code
Course
Semester
ECTS
Examination
Arrangements
MI203
Laboratory Skills in Microbiology II
2
5
Continuous Assessment
The identification of newly isolated microbes often relies on conducting a series of biochemical tests.
Students will learn how to perform the key tests used for bacterial identification. They will also learn
how to transfer genetic material from one strain of bacteria to another using conjugation. To establish
the degree of sensitivity to an antibiotic, students will learn how to perform an MIC (Minimum Inhibitory
Concentration) test. The module will be supplemented by 6 lectures that will provide the theoretical
background necessary to understand the laboratory methodologies.
Code
Course
Semester
ECTS
Examination
Arrangements
MI204
Microbes and the Environment
2
5
Two hour examination
Microbes impact almost every aspect of life on the planet. They are found almost everywhere that we
have been able to look and underpin all the ecosystems that make the planet habitable for us. This
module will address some the main areas microbes that microbes impact our lives, either directly by
affecting our health, or indirectly by influencing the environment we live in. Organised as a series 24
one hour lectures it sets out to excite students about the hugely significant role that microbes have in
all our everyday lives.
3
Code
Course
Semester
ECTS
Examination
Arrangements
MI322
Environmental Microbiology
2
5
Two hour examination
Only a small proportion of the quintillion microbes living on Earth have been cultured - maybe 0.1% of
them. However, there is a staggering breath of diversity within the microbial world - from
photosynthesis, to methane-makers to rock-eaters. Students will learn about the strategies microbes
use to grow and make energy. They will also consider the application of these strategies in cycling
Nitrogen and Carbon. Next, they will consider the harnessing of those activities for environmental
biotechnologies, including wastewater treatment and bio mining gold. Finally, the need to link
ecology (identity) of yet-to-be-cultivated microbes in the environment with their physiology (activity)
will be discussed. In practical sessions, the microbes in environmental samples will be counted.
Code
MI324
Course
Immunology
Techniques
and
Semester
ECTS
Examination
Arrangements
2
5
Two hour examination
Recombinant
To describe the principles and mechanisms of prokaryotic genetic engineering and its impact on
modern molecular biotechnology. To provide an overview of the use of molecular prokaryotic
biotechnology to engineer cell factories for the production of recombinant biomolecules. To provide
detailed information on the fundamentals of the immune system and its response to microbial
infection
Code
Course
Semester
ECTS
Examination
Arrangements
MI325
Microbial Infectious Diseases
2
5
Two hour examination
Introduction to how bacterial and viral pathogens cause disease. Important virulence mechanisms in
representative pathogens. The clinical implications of microbial infections. Host responses to infection,
immunization, vaccines, antibiotics and antibiotic resistance.
Code
MI441
Course
Anaerobic Microbial Biotechnology &
Systems Biology
Semester
ECTS
2
5
Examination
Arrangements
Two hour examination
This module will focus on the exploitation, and optimization, of complex microbial communitiesin
biotechnology. Important applications of anaerobic microbial communities, including in wastewater
treatment, biorefining and conversions into energy, will be discussed. An EcoSystems [Micro]Biology
approach to understanding the structure and function of complex communities underpinning
biotechnological applications will be discussed in detail; this will include the application of genomics,
transcriptomics and proteomics to understand dynamic interactions between microbial trophic groups
in complex systems. Using this type of knowledge to optimise technology – as well as optimizing the
microbial community itself – will be considered.
4
Code
MI442
Course
Bioprocessors and Recombinant Protein
Production
Semester
ECTS
2
5
Examination
Arrangements
Two hour examination
This module will examine how recombinant proteins are engineered in the context of productive
microbial cell factories and how traditional and advanced bioprocess technologies are employed for
the industrial-scale production of such products.
This unit will introduce major expression systems – E. coli, yeast and mammalian cells, and cell-free –
used in recombinant protein production. Factors affecting the choice of expression host and
approaches to identifying bottlenecks in expression of biomedically and biotechnologically important
products will be reviewed. The unit will also review recombinant biotherapeutics currently available on
the market and consider how they are produced.
Bioprocess technology will investigate the production of biomass, primary and secondary metabolite
production on the industrial scale by means of technologies associated with submerged cultures and
solid-state fermentations.
Engineering and Other Technological Areas
Module
Code
BME200
Module Title
ECTS
Introduction to
Biomaterials
5
Taught/Examined
in Semester
2
Exam Duration
Continuous Assessment
The course will discuss the complexity of biological systems and the imposing need to design and
develop biomaterial-based therapies to address currently unmet clinical needs. The course will cover
biomaterial fabrication methods and in vitro and in vivo assessment thereof
Module
Module Title
Code
BME 2100 Materials I
ECTS
5
Taught/Examined
in Semester
2
Exam Duration
Continuous Assessment & Exam
Structure and classification of metals, elasticity, plasticity, dislocations, strain-hardening, alloying,
recrystallisation, phase diagrams, heat treatment, metal forming, casting, forging, powder metallurgy,
ferrous and non-ferrous metals and alloys, tensile and hardness measurements.
Classification and properties of polymers, polymer processing (extrusion, injection moulding, blow
moulding, rotational moulding, thermoforming, compression moulding) and polymer rheology and
failure.
Module
Code
BME403
Module Title
ECTS
Medical Implant and Device
Design
5
Taught/Examined Exam Duration
in Semester
2
2 Hour Exam
This course integrates and applies the principles of engineering to the analysis and design of medical
implants and devices, incorporating biomechanics, materials science, anatomy and physiology.
5
Module
Code
BME501
Module Title
ECTS
Advanced
Finite
Element Methods
5
Taught/Examined Exam Duration
in Semester
2
Continuous Assessment
The module will educate students in the use of linear and non-linear finite element methods that are
most relevant to problems and systems encountered in both fundamental and applied research in
biomedical and mechanical engineering.
Module
Code
BME502
Module Title
ECTS
Advanced
Tissue
Engineering
5
Taught/Examined
in Semester
2
Exam Duration
Continuous Assessment
The module is aimed at integrating the principles and methods of engineering and life sciences to
generate an understanding of structure-function relationships in normal and pathological mammalian
tissues, and based on these, build-up knowledge developing a strategy for restoring a specific
organ/tissue.
Module
Code
CE221
Module Title
ECTS
Building
systems
5
Taught/Examined
in Semester
2
Exam Duration
2 hour exam
The course is designed to introduce students to the basic principles of building with the aim of creating
a sound fundamental knowledge that will be enlarged upon in subsequent years.
The subject matter covers the structure of the building team; planning and development acts,
byelaws and building regulations; ground works, drainage and foundations, superstructures and
stability; floor, wall and roof types; construction methods and the appropriate use of materials
including steel, concrete, masonry and timber. Principles of building physics include heat and sound
insulation, ventilation and light provision. Sanitary and other building services, architectural principles
and internal and external finishes are also covered.
Module Code
Module Title
ECTS
CE222
Civil
Engineering
Materials & Design
5
Taught/Examined in Exam Duration
Semester
2
2hour exam
Coursework
Concrete Technology – Introduction; Cements; Aggregates; Properties of fresh and hardened
concrete; Specification, testing and compliance; Durability; Site Practise; Mix Design
Concrete Laboratories
Working in groups, students must participate in 4 linked laboratory experiments relating to Concrete
Technology. These involve:
1. The classification of fine, 10mm and 20mm single size aggregates by selecting and preparing
test samples and conducting sieve analysis
2. Use of the results of the above to design a concrete mix of specified characteristic 28 day
cube strength and consistence, batching and mixing the concrete, conducting three different
consistence tests on the fresh concrete, casting and compacting a range of test specimens
including cubes, cylinders and beams
3. Assessing 7-day density, cube strength, Schmidt hammer readings and USPV times
4. Assessing 28-day density, cube strength, modulus of elasticity, indirect tensile strength by both
bending and cylinder splitting.
5. Timber Engineering and Design
6. Timber properties; Structural grading; Engineered wood products;
6
7. Basis of Structural Design; Introduction to Euro codes; Limit states; Design of flexural members to
EC5; Design of axially loaded members to EC5
8. Timber Laboratory
9. Testing of timber elements in flexure to EN408; Engineered wood products lab.
Module Module Title
Code
CE224 Engineering
Hydraulics I
ECTS
5
Taught/
Examined in Semester
2
Exam Duration
2 hour exam
Lecture Content:
• Buoyancy and stability
• Theorems on conservation of mass, momentum and energy
• Flow measurement
• Forces exerted by moving fluids
• Energy losses in pipe flow
• Simple pipe flow systems (single, series, parallel, simple branching)
• Introduction to open channel flow
Laboratories:
The following six experiments are carried out in a hands-on manner by students working in small
groups:
1. Examination and calibration of thin plate weirs.
2. Open channel flow, validation of Chezy and Manning formulae, calibration of C and n.
3. Laminar and turbulent pipe flow, hydraulic gradient, relation between hydraulic gradient and
velocity, use of laminar flow to determine fluid viscosity.
4. Friction and form / shock losses in a small bore pipeline.
5. Force exerted by a jet of fluid on a plane or curved surface (Momentum Principle or Bulk Flow Eqn.).
6. Venturi section, conversion of pressure head to velocity head and vice versa, use and calibration of
a Venturi section as a flow meter.
Module
Code
CE226
Module Title
ECTS
Principles of Building
10
Taught/Examined Exam Duration
in Semester
2
Continuous Assessment & 2 hour
exam
The course is designed to introduce students to the basic principles of building with the aim of creating
a sound fundamental knowledge that will be enlarged upon in subsequent years.
The subject matter covers the structure of the building team; planning and development acts,
byelaws and building regulations; ground works, drainage and foundations, superstructures and
stability; floor, wall and roof types; construction methods and the appropriate use of materials
including steel, concrete, masonry and timber. Principles of building physics include heat and sound
insulation, ventilation and light provision. Sanitary and other building services, architectural principles
and internal and external finishes are also covered.
A requirement of this module is that students complete a community-based engineering project in
groups of two or three. Each group researches one particular aspect of the building process that
relates directly to a real need in the community. Several groups can work on a single communitybased project, with each group researching a different aspect of the building process for that project.
This is written up in the form of a professional report to a client, or as information for inclusion in a
technical encyclopaedia, or as an article for communicating with the engineering community at
large. Each member of the group must make a short oral presentation of the finding from their project
using PowerPoint. If appropriate, students in subsequent years can further develop and advance the
work completed by their colleagues.
7
Module
Code
CE334
Module Title
ECTS
Construction
Operations
5
Taught/Examined
Semester
2
in Exam Duration
2 hour exam
This module provides details of the stages and operations involved in a construction project from a
number of different perspectives: local authority, civil engineering consultant, civil engineering
contractor and architect.
Module
Code
CE343
Module Title
ECTS
Sustainable
Energy
5
Taught/Examined
Semester
2
in Exam Duration
2 hour exam
This module introducefs students to sustainable energy resources, e.g. solar, wind and hydro, looking
primarily at how the available resource can be quantified and how it can be harnessed.
Module
Code
CE461
Module Title
ECTS
Civil Engineering
Project
10
Taught /
Semester
2
Examined
in Exam Duration
Project
This is the major project that is completed by students in the final year of their undergraduate
programme. Projects are generally conducted in pairs although there may be some instances of
individual projects. The project is defined at the start of the academic year on some Civil Engineering
topic and students have the full academic year to complete. Students also complete a number of
other communications based assignments.
Module
Code
CE462
Module Title
ECTS
Coastal and
Offshore
Engineering
5
Taught/Examined
Semester
2
in Exam Duration
2 hour exam
Wavemaker theory: mathematical model to simulate the creation of waves in a wave flume:
progressive and evanescent. Tidal dynamics oceanic and local.
Properties of ocean and coastal waves: length, celerity, water particle orbits, dynamic pressure,
shoaling, refraction, breaking, and diffraction. Ports and harbours. Evaluate the wave forces on a
seawall due to breaking- or non-breaking waves. Design a breakwater. Estuarine processes. Sediment
transport, coastal protection.
Module
Code
CE468
Module Title
Estimates
Costing
ECTS
and
5
Taught/Examined
Semester
2
in Exam Duration
Continuous Assessment
The module has two main components: (1) Bill of Quantity production and pricing, and (2) Cost
benefit analysis on an engineering project. The first component includes measurement, estimating, Bill
of Quantity production / presentation, preliminaries, detailed estimating, editing, tender letter, form of
tender and cover letter. The second component involves comparing the costs versus benefits of an
engineering project.
8
Module
Code
CE469
Module Title
ECTS
Hydrology and Water
Resource Engineering
5
Taught/Examined in Exam Duration
Semester
2
2 hour exam
This module introduces students to theory and practice of engineering hydrology and how these are
applied to water resource engineering.
Physical and chemical properties of water
•
Flow routing through reservoirs and lakes
•
Unit Hydrograph
•
Water quality in the natural environment
•
Hydrological and energy cycles
•
Hydrological frequency analysis
•
Precipitation measurement
•
Stream flow measurement
•
Hydrometric data, flow duration curves, mean daily flows, water balance and water resources
•
Climate change
•
Evaporation and evaporation measurement
•
Groundwater - hydrogeology
Module Module Title
ECT Taught/Examined Exam Duration
Code
S
in Semester
CE472 Structural Analysis
5
2
2 hour exam
This module follows on from the structures modules in 3rd year and the students receive additional
lectures on moment distribution in addition to the stiffness method, the concepts associated with shear
walls and a brief introduction to the finite element method. Students will also be required to carry out
a number of laboratory assignments that are used to illustrate the theoretical concepts from the
coursework.
Module Module Title
Code
CE475 Sustainable Energy and
Energy in Buildings
ECT
S
5
Taught/Examined Exam Duration
in Semester
2
2 hour exam
This module comprises two sections. Section A introduces students to sustainable energy resources, e.g.
solar, wind and hydro, looking primarily at how the available resource can be quantified and how it
can be harnessed. Section B introduces students to energy use in buildings required to support the
effective provision and maintenance of thermal, visual and acoustic comfort.
Section A - Sustainable Energy:
This section of the subject is an introduction to sustainable energy. The course covers various sustainable
energy resources, including wind, solar, hydropower and geothermal from the point of view of
quantification of the available resource, the energy conversion technologies used to harness them and
the environmental impacts resulting from their use. World and national energy usage patterns are also
examined as is the sustainability of traditional fuel supplies, e.g. fossil and nuclear fuels.
Section B- Energy in Buildings:
This section is an introduction to energy systems in buildings. The course describes the inter-relationships
between building physics, human occupant behaviour and energy systems required to support the
effective provision and maintenance of thermal, visual and acoustic comfort. Optimum states of
comfort are defined including the necessary physical measurement and control infrastructure.
Systematic procedures for the analysis of thermal comfort metrics and design principles of sustainable
and smart buildings including conventional and renewable energy systems are presented. The content
delivered in Section B is structured to consist of lectures in parallel with a laboratory element that
provides the incremental development of energy simulation models that addresses the content in the
9
lecture part of Section B utilising real world buildings including a number of buildings on the NUI Galway
campus.
Module
Code
CE476
Module Title
ECTS
The Built
Environment
5
Taught/Examined Exam Duration
in Semester
2
2 hour exam
This module is designed to introduce Engineers and Project Managers to the basic principles of
architecture, planning and the considerations and common challenges involved in the successful
design of both. It enables students to take up a position within the construction (or related) industry
armed with a meaningful understanding of how their individual role is critical to realising good design.
It allows meaningful communication with architects and planners with the mutual benefits of same.
Module
Code
CE3101
Module Title
ECTS
Geomechanics
and Geology
5
Taught/Examined Exam Duration
in Semester
2
2 hour exam
This module provides an introduction to soil as an engineering material and it includes some of the
basic mechanics of soil behaviour. The module also provides the student with an introduction to
geology.
Module
Code
CE6101
Module Title
ECTS
Coastal and Offshore
Engineering I
5
Taught/Examined in Exam Duration
Semester
2
2 hour exam
Wavemaker theory: mathematical model to simulate the creation of waves in a wave flume:
progressive and evanescent.
Tidal dynamics oceanic and local
Properties of ocean and coastal waves: length, celerity, water particle orbits, dynamic pressure,
shoaling, refraction, breaking, and diffraction. Ports and harbours. Evaluate the wave forces on a
seawall due to breaking- or non-breaking waves. Design a breakwater. Estuarine processes. Sediment
transport, coastal protection.
Module
Code
CE6103
Module Title
ECTS
Design of Sustainable
Environmental Systems II
5
Taught/Examined Exam Duration
in Semester
2
Continuous Assessment& 2 hour exam
This module covers advanced material related to the design and operation of environmental systems
and the implementation of strategies to mitigate environmental impacts of anthrogenic activties.
Topics covered include advanced nutrient removal and recovery technologies in wastewater,
disinfection, biosolids and energy, regulation, erosion, groundwater contamination, energy
efficiency,the water-energy nexus, wastewater treatment for developing countries. Assessment will be
exam and project based
Module
Code
EE219
ECTS
Module Title
Analogue
Systems
Design I
5
Taught/Examined
in Semester
Examination Arrangements
Continuous Assessment & 2
2
exam
hour
10
Introduction to semiconductor physics, diodes, real characteristics; Diode-Reactive Circuits; Bipolar
Junction Transistor, Biasing; Common Emitter Amplifier, Box Model, Emitter Follower (The Common
Collector Amplifier), Improved BJT AC Models; Field Effect Transistor, JFET, MOSFET, AC behaviour and
applications; Operational Amplifier, Operational Amplifier Circuits, Frequency Response, Active Filters,
amplifier applications.
Introduction to semiconductor physics, diodes, real characteristics; Diode-Reactive Circuits; Bipolar
Junction Transistor, Biasing; Common Emitter Amplifier, Box Model, Emitter Follower (The Common
Collector Amplifier), Improved BJT AC Models; Field Effect Transistor, JFET, MOSFET, AC behaviour and
applications; Operational Amplifier, Operational Amplifier Circuits, Frequency Response, Active Filters,
amplifier applications
Laboratories:
ASD1-1
ASD1-2
ASD1-3
ASD1-4
ASD1-5
BJT – linear biasing and common emitter amplifier
JFET circuits and drain characteristics
Enhancement mode MOSFET
Op-Amp non-inverting amplifier configuration
Op-Amp frequency response
Assignments: Circuit simulations using SPICE, MultiSim or CircuitLab
ECTS
Module
Code
Module Title
EE220
Digital Systems I
5
Taught/Examined in
Semester
Examination Arrangements
2
2 hour exam
This module covers the fundamentals of digital design using discrete gates. Students design simple
combinational logic circuits, and incrementally build towards the design of sequential systems. Students
also incorporate the electrical behaviour of digital logic circuitry into their designs.
Binary codes, error detection and correction. Combinational logic design, system design using mediumscale integration devices. Sequential system design, state machines. Electrical behaviour of logic
circuits, timing, power dissipation. Computer number systems, data formats, data structure.
Module
Code
Module Title
Electrical
Circuits
EE230
Systems
ECTS
Taught/Examined in
Semester
Examination Arrangements
&
5
2
2 hour exam
Review of DC and AC circuit analysis. Transform networks and transient analysis. Transfer functions.
Interpretation of pole-zero maps. Frequency response of linear systems. BODE plots and system
identification. Block diagram analysis.
Module
Code
Module Title
Communication
EE343
and Systems
ECTS
Signals
5
Taught/Examined
in Semester
Examination Arrangements
Continuous Assessment &
2
exam
2
hour
This modules provides a detailed examination of topics relating to communication signals and systems
such as: Transport layer protocols, UDP, TCP, Local area networking, network topologies, medium
access control, inter- and intra-LAN connectivity, satellite networking technology, DCME technology,
Amplitude Modulation (AM), Frequency Modulation (FM), digital modulation.
11
Module
Code
Module Title
Exercise
prescription
EE349
and programming
ECTS
5
Taught/Examined
in Semester
Examination Arrangements
2
2 hour exam
This module focuses on the benefits of exercise. It will explore the principles and rationale for safe and
effective exercise for different populations.
Methods of assessment, exercise prescription, and programmes of exercise will be discussed in
accordance with the American Council on Exercise (ACE) guidelines. Course material will be
available online in blackboard.
Module
Code
Module Title
Kinesiology of Human
EE351
Movement
ECTS
5
Taught/Examined
in Semester
Examination Arrangements
2
Continuous Assessment& 2 Hr Exam
This course focuses on the science of human movement and the electronic instrumentation used to
measure different aspects of human movement both health and pathological. Learners will
investigate the different aspects of the human gait cycle, temporal parameters of gait,
electromyography, use of accelerometer in human movement studies and FES. This course will feature
a combination of theoretical and practical laboratory activities. Course material will be available
online in blackboard.
Module
Code
Module Title
Sports & Exercise
EE356
Psychology
ECTS
5
Taught/Examined
in Semester
Examination Arrangements
2
2 hour exam
This module will explore the psychological aspects underlining sports and exercise performance,
health and rehabilitation. It will examine factors that affect individual behaviour, participation, and
adherence to exercise as well as the mental aspects of sports performance. The module features a
combination of theoretical and practical components.
Module
Code
Module Title
Advanced Power
EE442
Electronics
ECTS
5
Taught/Examined
in Semester
Examination Arrangements
Continuous Assessment&
2
exam
2
hour
Review of AC/DC and DC/DC converters, 3-phase inverters, motor drives, high frequency magnetic
design, power semiconductors & applications, power electronics for computing loads, power
electronics for renewable energy systems
Module
Code
Module Title
Communications and
Signal Processing
EE444
Applications
ECTS
5
Taught/Examined in
Semester
Examination Arrangements
2
Continuous Assessment & 2 hour
exam
12
This module covers a range of applications of Digital Signal Processing (DSP) and communications
technology, including: multirate DSP, speech processing, adaptive filters, biomedical signal
processing, Quality of Service (QoS) and other advanced IP networking topics, Voice and Multimedia
over packet, Security infrastructure and algorithms, application of mobile phone based sensing.
Module
Code
Module Title
Engineering
EE447
Electromagnetics
ECTS
5
Taught/Examined
in Semester
Examination Arrangements
2
hour
exam
&
Continuous
2
Assessment
This is a mid-level course in Engineering ElectroMagnetics. It replaces the former module
Electromagnetics & Instrumentation. The module should provide you with an understanding of how EM
Fields generate Electromagnetic Waves; a range of wave phenomena will be covered including
Transmission Line Theory, Travelling and Guided EM Waves, Reflection, Refraction and Polarization of
EM Waves, Antennas, Microwave Systems and EM Interference (EMI)
13
Module
Code
Module Title
EE450
Power Systems
ECTS
5
Taught/Examined
in Semester
Examination Arrangements
Continuous Assessment & 2 hour
2
exam
Sources of energy, renewable energy systems. Three-phase transformers. Transmission lines. Power and
load flow. Symmetrical components and unsymmetrical faults. System protection. Synchronous
generators, transient analysis and stability.
Module
Code
Module Title
EE452
System on Chip Design II
ECTS
5
Taught/Examined
in Semester
Examination Arrangements
2
Continuous Assessment &2 hour exam
Single cycle computer architecture. Programming considerations. Computer arithmetic. Hardware coprocessor acceleration. Interrupt handling, Pipelining. Embedded processor systems and applications.
Related Electronic Design Automation (EDA) tools. Digital systems and reconfigurable System on Chip
(SoC) case studies. Design project.
Module
Code
Module Title
Bioinstrumentation
Design
EE502
ECTS
5
Taught/Examined
in Semester
Examination Arrangements
2
Continuous Assessment
On successful completion of this module, students will be able to:
List the signal source, signal transduction method and signal characteristics of a range of
biomechanical and physiological signals (EMG, ECG, EEG, blood pressure, limb movement:
inclination, strain, joint angle, acceleration).
 Design the signal conditioning and amplification requirements for a range of biomedical
transducers.
 Apply electrical safety and measurement principles in the design of biomedical
instrumentation.
 Design a power supply for a variety of biomedical instruments.
 Design the drive circuitry for a range of biomedical actuators, including surface and implanted
FES systems, Pacemaker devices, Drug-delivery systems.
 Select the appropriate architecture for a range of biomedical instruments by incorporating
ergonomic principles.
 Design a PC-based biomedical instrument for the measurement of physiological and
biomechanical signals based on the LabVIEW platform.
Design a test protocol (which incorporates research ethics principles) for a biomedical instrument

14
Module
Code
ECTS
Module Title
The Exchange Student
Research Project
ENG505.II
5
Taught/Examined
in Semester
Examination Arrangements
2
2 hour exam
Based at NUI Galway, this one semester module aims to provide the students with a specific research
project, and to equip them with the skills necessary for their research career. On successful completion
of this subject, the student will have demonstrated his/her ability to:
1) Give an academic level presentation on their research project outlining the research project
background, a reflection of skills and knowledge acquired, a reflection on their contribution to the
project.
2) Complete a significant engineering project that involves one or more of the following aspects:
literature searching and understanding, design and analysis, experimental testing, mathematical
modelling, materials characterisation, product manufacture, process development.
3) Produce a comprehensive and substantial engineering project report, which describes project
objectives, background, test methods, results, discussion and conclusion.
4) Give a presentation supported by the use of an overhead projector, at an early stage of the
project. Produce a GANTT chart to support this early presentation.
5) Maintain a laboratory book throughout the project.
6) Present and defend the results of their project after completion of the project.
Code
Course
EOS305
Introduction to Applied Field Hydrology
Semester
ECTS
2
5
Examination
Arrangements
Two hour examination
Basic hydrological concepts: 15%
Key theories and concepts that define the discipline
Data collection and processing: 45%
How to access, collect and assess various data sets (rainfall, stream flow etc)
Applied field hydrology: 40%
Application of methods at the field and catchment scale using real-world data
Module
Code
Module Title
IE319
Operations Strategy
ECTS
5
Taught/Examined
in Semester
Examination Arrangements
2
2 hour exam
Case studies form an integral part of this course and student participation in class discussions is
important. The objective of this course is to provide students with a theoretical background in
Operations Strategy including to:
1. Understand and appreciate the role of Operations and Production Management as a
competitive weapon
2. Identify the long term benefits of manufacturing in the areas of quality, flexibility, market
response and customer satisfaction;
3. Appreciate product/process decisions;
4. Incorporate the management of technology
5. Understand productivity and its measurement in modern manufacturing and service industries.
6. Identify components of operations strategy;
7. Use analytical techniques;
8. Undertake the writings of Hayes, Meredith, Porter, Schroeder, Skinner and Wheelwright and Case
Studies
15
ECTS
Module
Code
Module Title
IE345
Logistics
Transportation
Taught/Examined in
Semester
Examination Arrangements
and
5
2
2 hour exam
The Business Logistics course will equip students with a solid foundation in logistics basics. It illustrates that
logistics is a major component of the supply chain process covering all the bases of logistics including
technology, customer service, packaging, transportation, warehousing, inventory, procurement,
controls, systems analysis, international issues, social responsibility etc. The course includes real-world
examples and cases are based on real business situations and include both national international
challenges.
Specific objectives include:
To develop an understanding of the state of the art strategic management thinking as it applies to firms
with global operations. To develop a capacity for analysing logistics problems on a functional, business,
and company-wide basis. To develop an awareness of the organisational structures used in logistics and
their strengths and weaknesses of those structures. To develop an understanding of the key criteria
utilised in multi-national location site selection, global scale facilities configurations, and international
sourcing networks development. To become acquainted with some of the realities of running different
types of production/distribution firms.
Minimization of Consequences
Cost reduction due to injuries and damage.
near misses, principles of such investigations
Module
Code
ME221
Module Title
ECTS
Fundamentals of
Operations
Engineering
5
Investigation and analysis of hazardous incidents and
Taught/Examined
Semester
2
in Examination Arrangements
2 hour exam & Continuous Assessment
Introduction to operations engineering, design of products & services, lean and JIT manufacturing
systems, facility design & layout, human resources in engineering, forecasting, capacity planning and
aggregate production planning, inventory management, enterprise resource planning, scheduling,
project planning/control and quality planning and control.
Module
Code
ME420
Module Title
ECTS
Project for Visiting
Students
5
Taught/Examined
Semester
2
in Examination Arrangements
Project
Each student is assigned an individual project at the start of the academic year based on work done
during industrial placement or topics assigned by staff members. Assessment is based on a
comprehensive final report and oral presentation of the project results to the class and staff.
Module
Code
ME426
ECTS
Module Title
Turbo machines and
Advanced
Fluid
Dynamics
5
Taught/Examined
in Semester
Examination Arrangements
2
Project & 2 hour exam
Fluid dynamics of turbo machinery. Classification, system characteristics, dimensionless parameters
and scaling laws, energy and angular momentum aspects, incompressible flow turbo machines
(pumps, fans, turbines), compressible flow turbo machines (compressors, turbines).
16
Module
Code
Module Title
ECTS
Taught/Examined
in Semester
Examination Arrangements
ME429
Polymer Engineering
5
2
2 hour exam& Continuous Assessment
Designing with polymers, viscoelastic phenomena, mathematical models for viscoelaticity, fracture,
fatigue and failure of polymers, polymer rheology, analysis of polymer processing, introduction to
polymer composites
This module analyses the mechanical and processing behaviour of polymers (plastics), from short-term
properties (stiffness, strength, fracture strength) to long-term, time-dependent properties (creep, stressrelaxation), as well as helping the student to develop an understanding of the effect of adding fibre
reinforcement to create polymer composites. Melt processing of polymers is also examined and their
important flow parameters investigate
Module
Code
ECTS
Module Title
Combustion Science
and Engineering
ME517
5
Taught/Examined
in Semester
Examination Arrangements
2
Continuous Assessment
The module introduces students to the fundamentals and applications of combustion. Students are
expected to have a background in either chemical or engineering thermodynamics. The module
covers: reaction stoichiometry, combustion thermodynamics, reaction kinetics and dynamics,
transport phenomena, liquid and solid combustion, pollutant formation, and computational methods.
Analytical and numerical problem-solving techniques are developed through homework assignments,
projects and computer labs.
Module
Code
ME522
ECTS
Module Title
Operations
Management
5
Taught/Examined
in Semester
Examination Arrangements
2
2 hour exam& Continuous Assessment
Introduction to operations management, design of products & services, lean and JIT manufacturing
systems, facility design & layout, human resources in engineering, forecasting, capacity planning and
aggregate production planning, inventory management, enterprise resource planning, scheduling,
project planning/control and quality planning and control.
ECTS
Module
Code
Module Title
ME572
Human Reliability
5
Taught/Examined
in Semester
Examination Arrangements
2
2 hour exam& Continuous Assessment
Nature of Human error. Studies of Human error. Human reliability in risk assessment. The Human
Reliability Assessment (HRA) process; task analysis, human-error analysis, human-error quantification,
impact assessment, assessing and reducing the human error risk. Quality Assurance (QA). Human
error data validation. Latent errors and system disasters. Future directions in HRA. Safety-related
accidents and incidents.
Health and Biomedical Sciences
17
Code
Module Title
Semester
ECTS
Examination Arrangements
AN223
Embryology and Development
2
5
Two hour examination
Study of embryonic and fetal development. The module will cover: fertilization, blastocyst
development and implantation, placenta, early embryonic events that accompany the formation of
the three germ layer and the folding of the embryo (gastrulation, neurulation, somitogenesis) and
provide the basis for the body plan, and finally with the specific development of: CNS, CVS,
Respiratory system, GIT, Urogenital tract, neck, and face.
Code
Module Title
Semester
ECTS
Examination Arrangements
AN226
Systems Histology
2
5
Two hour examination
This module describes the histological structure and function of various body systems. In particular the
module will focus on the skin, respiratory system, cardiovascular system, female and male reproductive
systems, endocrine system, lymphatic system, urinary system, gastrointestinal system and vascular
system.
Students will sit a 2 hour exam at the end of semester 1 based on cell biology. Continuous assessment
will be carried out in the form of practical exams. And end of semester practical exam will also be
carried out (departmental assessment).
Code
Module Title
Semester
ECTS
AN327*
Head and Neck Practical
2
5
Examination Arrangements
Practical Exam;
Departmental Assessment
This module is part of a package of modules which provide a three dimensional understanding of the
general organization of the of the central nervous system and human head and neck anatomical
structures through different methodological approaches. These approaches range from traditional
dissection of cadaveric specimens to surface anatomy, to interpretation of standard clinical images
(CT, standard and contrast radiographs, MRI) through topographical knowledge of the human body.
This module will comprise 72 practical hours and the learning objectives will be assessed through a final
practical exam using cadaveric specimens and regular continuous assesments. *These modules are
only open to medicine or dentistry students at year 2 or more
Code
Module Title
Semester
ECTS
AN3104*
Systems Anatomy Practical
2
5
Examination Arrangements
Practical Exam &
Continuous Assessment
This module forms part of a package of modules which provide a three dimensional understanding of
the general organization of the human cardiovascular, respiratory, digestive, urinary and reproductive
systems through different methodological approaches which range from traditional lecture delivery to
surface anatomy, to interpretation of standard clinical images (CT, standard and contrast
radiographs, MRI) and to understanding of common pathologies through topographical knowledge
of the human body. This module will comprise 72 practical hours and the learning objectives will be
assessed through a final practical exam using cadaveric specimens and regular continuous
assesments. *These modules are only open to medicine or dentistry students at year 2 or more
18
Code
BI206
Module Title
Gene Technologies
medicine
and
Semester
ECTS
Examination Arrangements
2
5
Two hour examination
molecular
This course provides a grounding in current concepts in molecular biology and recombinant DNA
technology and their applications in biomedicine.
It also incorporates technical training in
biochemical approaches to enzymology and in recombinant DNA work.
Code
Module Title
Semester
ECTS
Examination Arrangements
BI207
Metabolism and cell signalling
2
5
Two hour examination
The course addresses the question of how cells obtain and manage energy. It outlines various
pathways for the processing and use of energy in the cell and covers the integration of these
pathways in metabolism. Problems in these fundamental processes contribute to human diseases,
which are also covered in the course.
Code
Module Title
Semester
ECTS
Examination Arrangements
BI208
Protein Structure and Function
2
5
Two hour examination
This course will provide a comprehensive understanding of the fundamental concepts of the
biochemistry of proteins and their vital role as the molecular tools of living cells. Using examples, the
relationship between structure or biochemical function will be discussed. Students will be introduced to
the essential role of Enzymes as biocatalyst in living cells. The practical course will introduce students to
the main concepts and methodologies for bio molecule measurement in biochemistry.
On successful completion of this module the learner should be able to:
1. Describe fully the general molecular structure and function of proteins
2. Demonstrate the role of enzymes as nature's own bio catalysis at the molecular level from
studies of kinetics and molecular structure
3. Develop an understanding of the main experimental approaches and concepts for bio
molecule analysis
4. Manipulate biochemical reagents and perform biochemical assays
5. Perform core techniques for measuring properties and quantities of the four main classes of bio
molecules, including proteins
6. Demonstrate an ability to present and interpret scientific results
7. Draw scientifically grounded conclusions from observations and explain these in writing
8. Explain the main units of biochemical measurements and perform the basic calculations used
in biochemistry
Code
Module Title
Semester
ECTS
Examination Arrangements
BI309
Cell Biology
2
5
Two hour examination
Module Description: The course will provide students with a knowledge of the structure and function of
typical eukaryotic cells, the fundamental concepts of how cells communicate and how the cells of
the human immune system function. Practical classes will give students an understanding of laboratory
safety, good laboratory practices, solutions and buffers, eukaryotic cells, and antibodies as
biochemical reagents.
19
Code
Module Title
Semester
ECTS
Examination Arrangements
BI313
Cell Signalling
2
5
Two hour examination
This course will provide students an understanding of the biochemical basis of cellular signal
transduction pathways, including examples of neurotransmitters and the nervous system, loss of
regulation and control of the cell cycle in cancer, and apoptosis. The practical course will introduce
students to techniques used to study cell signalling. The practical course will introduce students to the
technique of sub-cellular fractionation, the glucose tolerance test with respect to insulin deficiency
(diabetes), and students will carry out a mini-project in biochemistry.
Code
Module Title
Semester
ECTS
Examination Arrangements
BI317
Human Molecular Genetics
2
5
Two hour examination
This course will provide a framework for understanding human molecular genetics. Students will
develop an understanding of the structure of human chromosomes, the human genome and human
genetic variation. They will also learn about chromosomal and genetic alterations associated with
disease states, and the techniques used to identify genetic disease associations. Finally, students will
develop an appreciation for the future impact of human molecular genetics on human health.
In
the post-genomic age, the importance of molecular genetics in human health is coming to the fore.
This course will provide students with a detailed understanding of this rapidly advancing area of
science and medicine
Code
Module Title
Semester
ECTS
Examination Arrangements
BI318
Human Nutrition
2
5
Two hour examination
The Human Nutrition module covers
a) Basic principles of healthy eating, historical aspects of the Irish Diet, aspects of food safety, food
technology, food labelling.
b) The relationship between diet and disease - heart disease, diabetes, obesity, eating disorders.
c) Specific nutritional needs of different population subgroups - infants, children, teenagers, older
people, ethnic groups, and sports people.
d) Clinical nutrition includes enteral and parenteral nutrition
e) Food Policy
On successful completion of this module the learner should be able to:
1. Demonstrate knowledge of the basic nutrients in food
2. Describe the relationship between diet and both prevention and treatment of disease
3. Explain the special nutritional needs of different population subgroups
4. Explain the importance of nutrition in a clinical setting
5. Describe nutrition policy both in Ireland and Internationally
Code
Module Title
Semester
ECTS
Examination Arrangements
BI319
Molecular Biology
2
5
Two hour examination
Module Description: This course will provide students with an understanding of the eukaryotic cell
cycle and DNA replication, the genomes of eukaryotic cells, regulation of eukaryotic gene expression,
and viruses. Practical aspects of the course will give experience of key fundamental techniques used
in molecular biology including plasmid DNA preparation, restriction endonuclease digestion,
polymerase chain reaction and agarose gel electrophoresis.
20
Code
Module Title
Semester
ECTS
Examination Arrangements
BI321
Protein Biochemistry
2
5
Two hour examination
This course will provide students an understanding of the synthesis and turnover of proteins in the
eukaryotic cell, the role of proteins as molecular tools with particular emphasis on enzymes, and the
structure and function of key protein glycoconjugates including glycoproteins and proteoglycans. The
practical course will include techniques for the purification of proteins, protein assays, protein gel
electrophoresis and enzyme assays including enzyme inhibition
Code
Module Title
Semester
ECTS
Examination Arrangements
CH205
Analytical & Environmental Chemistry
2
5
Two hour examination
This is an introductory course to environmental and analytical chemistry. Analytical chemistry is vital in
Industry, Environmental Monitoring, and Healthcare. Students need to understand the fundamental
principles behind the analytical techniques and get practical, hands-on experience of these methods.
The course comprises of lectures/practicals on: Atmospheric & Water Chemistry, Analytical Chemistry,
Electrochemistry, Applied Spectroscopy, Separation Science and Bio analytical techniques.
Code
Module Title
Semester
ECTS
Examination Arrangements
CH339
Validation in Enterprise
2
5
Two hour examination
This module covers pertinent topic concerning valedictory requirements within the biopharma-,
pharmaceutical and chemical industries.
Code
Course
Semester
ECTS
Examination
Arrangements
MI203
Laboratory Skills in Microbiology II
2
5
Continuous Assessment
The identification of newly isolated microbes often relies on conducting a series of biochemical tests.
Students will learn how to perform the key tests used for bacterial identification. They will also learn
how to transfer genetic material from one strain of bacteria to another using conjugation. To establish
the degree of sensitivity to an antibiotic, students will learn how to perform an MIC (Minimum Inhibitory
Concentration) test. The module will be supplemented by 6 lectures that will provide the theoretical
background necessary to understand the laboratory methodologies.
Code
Course
Semester
ECTS
Examination
Arrangements
MI204
Microbes and the Environment
2
5
Two hour examination
Microbes impact almost every aspect of life on the planet. They are found almost everywhere that we
have been able to look and underpin all the ecosystems that make the planet habitable for us. This
module will address some the main areas microbes that microbes impact our lives, either directly by
affecting our health, or indirectly by influencing the environment we live in. Organised as a series 24
one hour lectures it sets out to excite students about the hugely significant role that microbes have in
all our everyday lives.
21
Code
Course
Semester
ECTS
Examination
Arrangements
MI322
Environmental Microbiology
2
5
Two hour examination
Only a small proportion of the quintillion microbes living on Earth have been cultured - maybe 0.1% of
them. However, there is a staggering breath of diversity within the microbial world - from
photosynthesis, to methane-makers to rock-eaters. Students will learn about the strategies microbes
use to grow and make energy. They will also consider the application of these strategies in cycling
Nitrogen and Carbon. Next, they will consider the harnessing of those activities for environmental
biotechnologies, including wastewater treatment and bio mining gold. Finally, the need to link
ecology (identity) of yet-to-be-cultivated microbes in the environment with their physiology (activity)
will be discussed. In practical sessions, the microbes in environmental samples will be counted.
Code
Course
Semester
ECTS
Examination
Arrangements
MI325
Microbial Infectious Diseases
2
5
Two hour examination
Introduction to how bacterial and viral pathogens cause disease. Important virulence mechanisms in
representative pathogens. The clinical implications of microbial infections. Host responses to infection,
immunization, vaccines, antibiotics and antibiotic resistance.
Code
Course
MI437
Bacterial Pathogenesis
Semester
ECTS
2
5
Examination
Arrangements
Two hour examination
This module will explore the genetic basis of microbial pathogenicity, in representative gram-positive
and gram-negative pathogens. The module will address virulence mechanisms, host pathogen
interactions, immune evasion and microbial colonisation (biofilm) mechanisms. Specific topics that will
be covered include pathogenicity islands and plasmids, virulence factors, type III secretion systems,
infection strategies, resistance mechanisms and regulation of virulence gene expression.
Code
Course
MI439
The Meaning of Life
Semester
ECTS
2
5
Examination
Arrangements
Two hour examination
The module will cover a range of topics in the theory of Bioinformatics, ranging from fundamental
concepts on the Central Dogma of Biology, through sequencing technologies in genomics,
transcriptomics, proteomics and metabolomics. It will provide students with an insight into the potential
impact of bioinformatics data can have on our understanding of microbial phylogeny; microbial
community functioning; and microbial processes, including pathogenesis. It will also provide training
for students in the tools used to interpret DNA and amino acid sequence information, including
database interrogations; phylogenetic analyses; and interpretation of protein structural motifs.
Code
Course
MI440
Dynamics of Microbial Gene Regulation
Semester
ECTS
2
5
Examination
Arrangements
Two hour examination
Bacteria inhabit almost every environment on the planet and they respond to the different
environmental conditions they encounter. Bacteria can sometimes adapt to a single stressful condition
and at other times they respond to multiple stresses. In this module, we take an overview of multigene
regulation, at both the DNA and RNA level, in bacteria such as E. coli and Salmonella and explore
examples of microbial responses drawn primarily from different kinds of environmental stresses.
22
All OY modules below are available to Occupational Therapy students only
Code
Module Title
Semester
ECTS
Examination Arrangements
OY307
Research Methods
2
5
100% continuous assessment
The aim of the module is to introduce the student to research, to enable them to design their own
health-related research project proposal and to critically appraise the value of published research for
clinical practice. The module introduces students to a range of research methods – including
quantitative and qualitative methods
Code
Module Title
Semester
ECTS
Examination Arrangements
OY309
Neurology
2
5
2 hour written examination
This interdisciplinary module introduces students to the more common neurological conditions
encountered in practice. Together with the modules on neuropsychology, standardised testing and
evidence based practice students will be introduced to a co-ordinated concept of neurological
disorders presented from the aspects of pathology, impairment, activity limitation and lack of
participation and will be able to consider a variety of therapeutic approaches to address such issues.
Code
OY314
Module Title
Fundamentals Of Occupational
Therapy Iv (Occupational Science)
Semester
ECTS
Examination Arrangements
2
5
Continuous assessment
This module introduces students to the field of occupational science. It further develops their
understanding of people as occupational beings with an innate need for occupation. Primarily this
module will explore the impact of occupational imbalance, occupational deprivation and
occupational alienation and will examine global factors relating to occupational injustice. They will
also consider how occupation relates to health, quality of life, identity, human development, social
structures and policies.
Code
Module Title
Semester
ECTS
Examination Arrangements
OY404
Management
2
10
Continuous assessment
This module is run in conjugation with the fourth year Podiatry students. Students are introduced to the
basic concepts of leadership and personal and professional management relevant to their practice
as newly qualified therapists. They will learn about quality assurance and auditing, and also about how
to manage change and plan strategically. Professional documentation will be a core component of
this module. The module will also encompass career development, continued professional
development and preparation for employment. There is a professional development component
which includes assertiveness training and strategies for dealing with challenging people.
Code
Course
PH340
Biomedical Physics
Semester
ECTS
2
5
Examination
Arrangements
Two hour examination
This course is designed to demonstrate how imaging methods utilize physical principles to address
problems in clinical diagnosis, patient management and biomedical research. This module also
covers the physics of radiotherapy and future directions for imaging & therapy.
23
Code
Module Title
Semester
ECTS
Examination Arrangements
PH431
Medical Image Processing
2
5
Two hour examination
This module will provide students with an in-depth introduction to several aspects of modern Medical
Image processing. It will cover modern 3D imaging modalities including Computed Tomography and
Magnetic Resonance Imaging. The course will involve students carrying out sample image processing
tasks on medical images using relevant software packages.
Image formats, histogram operations, spatial filtering. Fourier filtering, deconvolution. Basic image
segmentation and object detection. Image registration, affine and other transforms. Principal
component analysis. Computed tomography, Magnetic resonance imaging.
Code
Module Title
Semester
ECTS
Examination Arrangements
SL126
Linguistics 1
2
5
Continuous assessment
Open to: Speech and Language Therapy, Linguistics students
Aims of the Module
This module will equip students with an understanding of a number of fundamental topics within the
field of linguistics. It provides an overview of linguistics as an independent discipline, including syntax,
semantics, morphology, pragmatics, bilingualism, psycholinguistics, and sociolinguistics. This course
also aims to introduce SLTs in training to the development of speech, language, fluency, and voice
across the lifespan and outlines communication changes across the lifespan.
Code
Module Title
Semester
ECTS
Examination Arrangements
SL223
Linguistics 2
2
5
100% continuous assessment
Open to: Speech and Language Therapy, Linguistics students
Aims of the Module
To build on knowledge and skills gained from Linguistics 1 and to focus specifically on the
morphological, syntactic, semantic, and pragmatic analyses of clinical data. This module will also
build on the knowledge and skills in phonology and phonetic transcription which are covered in the
Linguistics 1. This module aims to facilitate SLTs in training to develop systematic linguistic analytical skills
which they will use in clinical practice.
Code
Module Title
Semester
ECTS
Examination Arrangements
SI208
Cardiovascular Physiology
2
5
Two hour examination
The course develops fundamental understanding of human cardiovascular function. The heart and
blood vessels are described and their function discussed. The principles of the circulatory system are
detailed, as well as some of the control mechanisms in health and disease.
Code
Module Title
Semester
ECTS
Examination Arrangements
SI212
Respiratory Physiology
2
5
Two hour examination
The course develops fundamental understanding of human respiratory physiology. The lung organs
are described and their function discussed respectively. The principles of the respiratory system are
detailed, as well as some of the control mechanisms in health and disease.
24
Code
Module Title
Semester
ECTS
Examination Arrangements
SI312
Endocrinology
2
6
Two hour examination
Overview of endocrinology and reproduction. Growth and development. Male reproduction.
Adaptations at birth. Bone physiology. Calcium and phosphate metabolism. Growth hormone and
insulin-like growth factors. Hormonal control of intermediary metabolism. Islets of Langerhans. Fat
and protein metabolism. Stress. Adrenal medulla. Adrenal cortex. Physiological responses to stress.
Code
Course
SI328
Exercise Physiology
Semester
ECTS
2
5
Examination
Arrangements
Two hour examination
The Exercise Physiology module provides knowledge on the key cardiovascular, respiratory, and
muscular systems responses to acute and chronic exercise. Students will appreciate the key changes
that occur in the various physiological systems at rest and during exercise. The module will also
investigate the measurement techniques used to assess the physiological and metabolic responses to
exercise.
Code
Course
Semester
ECTS
Examination
Arrangements
SI331
Renal Physiology
2
5
Two hour examination
The Renal Physiology module will provide students with a knowledge of the normal physiology of the
mammalian renal system. Topics covered will include nephron organisation, clearance, filtration,
reabsorption, secretion, salt, water and acid base balance and micturitation. Theoretical learning and
understanding of will be aided by laboratory practicals investigating the physiology of osmoregulation
and clearance.
Information and Communication Technologies (ICTs)
Code
Module Title
Semester
ECTS
Examination Arrangements
CS211
Programming and Operating Systems
2
5
Two hour examination
This course introduces operating systems, the most fundamental piece of software running on any
computer.
On successful completion of this module the learner should be able to:
1.
2.
3.
4.
5.
6.
7.
8.
Name and describe the main tasks of an operating system;
Explain the concept and purpose of a process in an operating system;
Represent the life cycle of a process in a diagrammatical fashion;
Describe and compare various scheduling strategies;
Explain and implement a queue data structure;
Apply a semaphore as a tool in concurrent programming;
Explain the necessary conditions for deadlock;
Describe and apply an algorithmic strategy for deadlock detection.
25
*****Students must have been enrolled on Year Long Modules in Semester 1*****
Module
Code
Module Title
CT101
Computing Systems
ECTS
10
Taught/Examined
in Semester
Examination Arrangements
Year Long
2 hour exam
The course is an introductory presentation of computing systems architecture and components:
software, hardware and data that is being manipulated.
Data representation in computing systems (numbers, audio, graphics, video); Introduction to
Computing Systems Organization (CPU, Memory, Buses, I/O Devices); Introduction to Operating
Systems; Introduction to Data Communications; Introduction to Networking; Introduction to Electronic
Circuits; Digital logic fundamentals (CLC and FSM design); Principles of operation for main computing
systems elements: CPU, Memory Subsystem (Primary and Secondary), I/O Subsystem and Devices
*****Students must have been enrolled on Year Long Modules in Semester 1*****
Module
Code
Module Title
Algorithms & Information
CT102
Systems
ECTS
10
Taught/Examined
in Semester
Examination Arrangements
Year Long
2 hour exam
An introduction to algorithms, data structures and information systems
Fundamentals of Data, Evaluation and Control
Fundamentals of Problem Solving
Data Structures
Algorithms for searching
Algorithms for sorting
“Big Oh” notation
Algorithms for compression
Finite state machines
Information systems
Database systems
Social networks
Logic and Sets
Functions and relations
Google's page rank algorithm
*****Students must have been enrolled on Year Long Modules in Semester 1*****
ECTS
Module
Code
Module Title
CT103
Programming
10
Taught/Examined
in Semester
Examination Arrangements
Year Long
2 hour exam
Program Design and Flowcharting; Data input / output and
formatting; Mathematical library
functions; Relational and Conditional Operators; Arrays and Strings; While and For loops; Functions; Use
of the Debugger; Functions; Data Structures; Referencing by address and Pointers; File input and
output; Dynamical Memory Allocation
26
*****Students must have been enrolled on Year Long Modules in Semester 1*****
Module
Code
CT108
ECTS
Module Title
Next
Generation
Technologies I
10
Taught/Examined
in Semester
Examination Arrangements
Year Long
2 hour exam
This is an introductory course into energy, environmental, medical informatics, digital media and Arts in
Action.
Introduction to Next-Generation Technologies including Digital Media and Gaming, Multimedia Web
Development, Medical Informatics Informatics, Energy & Environmental Informatics, Computational
Informatics and Enterprise Systems.
The primary goal is to engage the students in software development at an early stage by using a
team-based, problem-based learning approach focused on these thematic areas. Students will work
on medium-sized group-based problems in these diverse domains that are specifically aimed at
strengthening their grasp of context, core concepts as well as programming and algorithm
development. Students will participate on the College of Engineering and Informatics Arts in Action
Programme, and thereby gain an appreciation for the role of performance arts and sound creation
on the software development process
Module
Code
Module Title
CT213
ECTS
Computer Systems & Organization
5
Taught/Examined
in Semester
Examination Arrangements
2
2 hour exam
Computer Systems History and Architecture Development; Von Neumann machine; memory systems;
storage media; virtual and cache memory; interrupts; concurrency and pipelining; processes;
scheduling; critical regions and synchronisation; file systems and management; distributed operating
systems and parallel processing; case studies; UNIX, MSDOS and Windows NT.
*****Students must have been enrolled on Year Long Modules in Semester 1*****
Module
Code
Module Title
CT216
Software Engineering 1
ECTS
10
Taught/Examined
in Semester
Examination Arrangements
Year Long
2 hour exam
Introduction to Software Engineering. Structured Programming and Structured Design. Modularity:
The Structure Chart and Module Specification Methods. Quality Module Design: Coupling, Cohesion
and Factoring. Structured Analysis: Data Flow Diagrams, Event Partitioning, Functional
Decomposition. Transaction and Transform Analysis. Real time design issues in software development.
State Transition diagrams and Petri Nets. Introduction to Formal Methods and Formal Design
Specifications using the Z notation.
*****Students must have been enrolled on Year Long Modules in Semester 1*****
Module
Code
Module Title
CT229
Programming II
ECTS
5
Taught/Examined
in Semester
Examination Arrangements
Year Long
2 hour exam
Techniques to analyse algorithms. Abstract Data Types. Modularity. Queues. Stacks. Lists. Arrays.
Sorting Techniques: Bubble, Selection, Insertion, Quick, Merge and Shell. Searching: Linear and Binary.
Trees: Binary trees, Tree Algorithms, depth first, breadth-first searching. Balanced Trees, AVL Trees.
Hashing. Priority queues and heaps. Introduction to Graphs.
27
*****Students must have been enrolled on Year Long Modules in Semester 1*****
Module
Code
Module Title
CT231
Professional Skills I
ECTS
5
Taught/Examined
in Semester
Examination Arrangements
Year Long
Continuous Assessment
Effective communication and presentation skills for a work environment. Preparation: defining the
purpose, identifying the context, identifying the content, structuring the process, planning for time.
Presentation skills for a software developer: code walkthroughs, peer reviews. Students will also be
assessed by continuous assessment, including a sizeable project presentation.
Module
Code
Module Title
CT248
Introduction to Modelling
ECTS
5
Taught/Examined
in Semester
Examination Arrangements
2
2 hour exam
Introduction to Matlab: Data input & output, Manipulating Matrices, Data Visualisation, Programming
constructs, Matlab functions and scripts, Introduction to Matlab OO classes. Introduction to Simulink,
Basic Model Design & Implementation, Modelling Dynamic Control Systems, Strong emphasis on
Energy Systems Case Studies both in lectures and associated lab work.
*****Students must have been enrolled on Year Long Modules in Semester 1*****
Module
Code
Module Title
Next Generation
CT255
Technologies II
ECTS
5
Taught/Examined
in Semester
Examination Arrangements
Year Long
2 hour exam
This module consists of 2 parts, Informations Systems in Healthcare and Games Design and
Programming. Information Systems in Healthcare provides students with an introduction into IT systems
that are used in primary, secondary and tertiary care. Games Design and Programming provides an
introduction to the production of 3D models for games, as well as an introduction to the programming
of simple games/animation applications.
*****Students must have been enrolled on Year Long Modules in Semester 1*****
Module
Code
Module Title
Networks and
CT303
Communications
ECTS
10
Taught/Examined
in Semester
Examination Arrangements
Year Long
2 hour exam
ISO / OSI Reference Model. Basic Data Communications, Physical Layer. Data Link Layer, Example
Protocols. LAN Technology Standards, Virtual LANs. Network Layer, Internet Protocol, ATM. Transport
Layer, TCP and UDP. Use of Higher OSI Layers. Client / Server Architectures. Network Programming
using Sockets API.
28
*****Students must have been enrolled on Year Long Modules in Semester 1*****
Module
Code
Module Title
CT326
Programming III
ECTS
10
Taught/Examined
in Semester
Examination Arrangements
Year Long
2 hour exam
Fundamentals of OO Analysis and Design. Encapsulation, Inheritance, Polymorphism. Function
Overloading. Constructor Functions, Overloading Constructors. Controlling Fonts. String Classes. HTML
Applet Attributes. Graphics. Event Handling. Exception Handling. Multithreaded Programming and
Synchronisation. Abstract Classes and Interfaces. Packages. Input / Output Streams and Object
Serialisation, Customising Serialisation. Random File Access. Socket Classes. Applet Security. Large
Scale Design, Open / Closed Principle, Dependency Inversion Principle. Design Patterns, Observer
Pattern, Abstract Factory Pattern. Component Design and Testing. Software Reflection. Collections
Framework, Interfaces, Implementation Classes and Algorithms.
*****Students must have been enrolled on Year Long Modules in Semester 1*****
Course
Module Title
ECTS
Taught/Examined
in Semester
Duration of exam (hours)
CT327
Humanities Applications
5
Year Long
Continuous Assessment
The objective of this module is to enable students to carry out a piece of independent research and
produce a paper for an academic conference. The research topic is one of their own choice, within
the area of IT and the Humanities. During the academic year students produce an abstract, and after
receiving constructive feedback, write an outline of their paper. They again receive feedback before
producing a full version of their paper. Students also review other papers and respond with a critical
evaluation of the work they read. They are supported by a series of tailored seminar session.
*****Students must have been enrolled on Year Long Modules in Semester 1*****
Module
Code
Module Title
CT332
Database Systems II
ECTS
10
Taught/Examined
in Semester
Examination Arrangements
Year Long
2 hour exam
Database Design: ER Modelling, EER modelling, mapping to relational schema. Normalisation - 1st,
2nd, 3rd, BCNF. Design Issues Choice of keys, denormalisation, indexing strategies. Concurrency
Control Lost Update, Temporary Update, Incorrect Summary Problems Locking Mechanisms, Binary
Locks, Shared and Exclusive Locks, 2 Phase Locking Protocol, Timestamping approaches. Multiversion
approaches. Recovery Mechanism Motivations, Transactions, System Log, Commit Points,
Checkpoints, Immediate & Deferred Update Protocols. Shadow paging. Distributed Databases
Introduction, Fragmentation policies, Distributed Database Architectures, Distributed Query Execution
and Optimisation, Distributed Recovery, Distributed Concurrency Control Object-Oriented Databases
Mapping EER models to Object Oriented Schemas. OQL.
29
Course
Module Title
ECTS
Taught/Examined
in Semester
Duration of exam (hours)
CT337+
Technical Writing
5
2
Continuous Assessment
This course aims to teach both the technical writing and editing skills needed to create specifications,
design documents, and user or programming guides. Specific topics include:
- The writing process: Gathering, writing, reviewing, rewriting, editing, indexing, testing, production and
printing, distribution, maintaining and managing releases and soliciting and using customer feedback.
- Different types of writing: Marketing, business overviews, user guides, reference guides, programming
guides, online help and web sites.
- The diplomacy of technical writing: Handling sticky work situations, how to approach a busy
engineer, working with a group / on your own / in a large company or small start-up, and role playing.
- Online documentation and the production of Web sites: Discussion, description, examples and
exercises in the techniques needed when producing Web sites.
+These modules are options chosen by NUI Galway undergraduates. Some of these options may not
be available in any particular year.
*****Students must have been enrolled on Year Long Modules in Semester 1*****
Module
Code
Module Title
Software Engineering
and Project
CT338
Management
ECTS
10
Taught/Examined
in Semester
Examination Arrangements
Year Long
2 hour exam
The Software Development Life Cycle. Waterfall, prototype and spiral models of software product
development. Object-Oriented analysis and design. Detailed instruction in one particular objectoriented methodology. CASE tool. Introduction to software testing: Black and White Box approaches.
Complexity and metrics analysis. Transaction Flow Testing. Logic-Based Testing. The V-model of
software development. The practice of project management, Group based exercises in project
management.
*****Students must have been enrolled on Year Long Modules in Semester 1*****
Module
Code
Module Title
Next-Generation
CT360
Technologies III
ECTS
10
Taught/Examined
in Semester
Examination Arrangements
Year Long
2 hour exam
More advanced coverage of Next Generation Technology topics including: Digital Media and Games
Development. Medical and Bioinformatics. Acquisition of Biosignals, Lossy and Lossless Data
Compression Techniques, Analysis and Classification of Biosignals. Biostatistical Methods. Energy
Informatics. Computational Informatics. Enterprise Systems.
30
Course
Module Title
ECTS
Taught/Examined
in Semester
Duration of exam (hours)
CT345
Introduction to
Modelling
3
2
2 hour exam
This module introduces students to key concepts required to build simple system models using the
Matlab/Simulink environment. Starting from basics, it covers essentials of Matlab : Data input & output,
Manipulating Matrices, Data Visualisation, Programming constructs, Matlab functions and scripts, Basic
statistical analysis, Introduction to Matlab OO classes. It then uses this to introduce Simulink covering
following: Basic Model Design & Implementation, Modelling Dynamic Control Systems. There is a strong
emphasis on Energy /Environmental Systems Case Studies both in lectures and associated labwork.
Course
Module Title
ECTS
Taught/Examined
in Semester
Duration of exam (hours)
CT411+
Multimedia
Development
5
2
2 hour exam
This course concerns the area of media technologies covering design, development and integration
of media elements into interactive systems.
+These modules are options chosen by NUI Galway undergraduates. Some of these options may not
be available in any particular year.
Course
CT866+
Module Title
Networks
Computer
Communication
ECTS
Taught/Examined
in Semester
Duration of exam (hours)
5
2
2 hour exam & assignment
and
Basic data communication. Transmission. Protocols. Networking. Distributed Systems.
+These modules are options chosen by NUI Galway undergraduates. Some of these options may not
be available in any particular year.
Module
Code
Module Title
CT420
Real Time Systems
ECTS
5
Taught/Examined
Semester
2
in
Examination Arrangements
2 hour exam
Real-time operating systems: Multi-tasking; co-ordination – semaphores, mutexes and signals; process
message passing and task communication; concurrency; real-time scheduling; real-time system
design; Petri nets; Standards POSIX; Operating systems QNX; developing real-time systems; debugging
and testing real-time systems; verification of real-time system performance.
Module
Code
Module Title
Advanced
Professional
CT436
Skills
ECTS
5
Taught/Examined
in Semester
Examination Arrangements
2
Continuous Assessment
Developing good interpersonal and group skills, whilst examining the role of professional software
engineers in society. A primary objective is to integrate and expand upon IT and Business skills. Support
is provided in the areas of creativity and innovation, funding and planning. The module also examines
ethical issues and the social impact of computing, with an emphasis on the responsibilities of the
professional software engineer in maintaining good practice in systems development.
31
Module
Code
Module Title
Computer Security and
CT437
Forensic Computing
ECTS
5
Taught/Examined in
Semester
Examination Arrangements
2
2 hour exam
Computer security. Risk assessment. Policies, procedures. Audit. Incident handling. Intrusion detection.
Honeynets. Firewalls. Filters. Phishing. Cryptography. Steganography. Information visualisation.
Computer forensics and computer crime. Evidence: acquiring, analysing, reporting. Forensic toolkits.
Module
Code
Module Title
Machine Learning and Data
CT475 Mining
ECTS
5
Taught/Examined in
Semester
Examination Arrangements
2
2 hour exam
Machine Learning is concerned with developing algorithms that improve their performance over time,
as they are exposed to new data. Data mining is concerned with the related task of extracting
interesting information from large, unstructured data sources. This module introduces learners to the
different categories of machine learning task and important algorithms for tackling them. The learners
get practice in selecting and applying these algorithms in practical data mining problems, evaluating.
Definitions of Machine Learning, Data Mining and the relationship between them; the CRISP Data
Mining process model; major tasks including classification, regression, clustering, association learning,
feature selection, and reinforcement learning; algorithms for these tasks including decision tree
learning, instance-based learning, probabilistic learning, support vector machines, neural networks,
association rule mining, and Q-learning; open-source software tools for data mining; practical
applications such as object recognition, healthcare data analysis, and text mining to identify spam
email; ethical issues and emerging trends in data mining and machine learning
Module
Code
CT866
ECTS
Module Title
Computer
Communications
5
Taught/Examined in
Semester
Examination Arrangements
2
Continuous Assessment
Data Communications, Transmission Media, POTS, Asynchronous / Synchronous Transmission.
Circuit/Packet Networks. ISO OSI Reference Model / TCP/IP Model/ ATM Model. LAN/WAN
Technologies. High Speed Networks, Network Timing. Internet Protocols & Technologies. Developing
Wireless Technologies
Module
Code
CT2102
ECTS
Module Title
Object
Oriented
Programming II
5
Taught/Examined in
Semester
Examination Arrangements
2
Continuous Assessment
This module builds upon Object Oriented Programming I and covers topics such as Interfaces,
Collections, Sorting & Searching, Recursion, GUI and Event-Driven programming
32
Module
Code
CT2104
ECTS
Module Title
Web Application
Development
Taught/Examined in
Semester
Examination Arrangements
Continuous Assessment & 2
2
Hour Exam
5
This module teaches the students how to create modern client-server browser-based web
applications. The module builds on introductory web technology and programming introduced in
Years 1 and 2, as well as integrating with the database design and development concepts learned in
Year 2. The core technologies learned will be client programming and server side programming. A
group development project will form a major part of the workload.
Module
Code
CT2105
ECTS
Taught/Examined in
Semester
Examination Arrangements
Module Title
Web
Based
Information Systems
5
2
2 Hour Exam
This module introduces the concepts and techniques associated with web-based Information systems.
In particular, search engines, recommender systems, social networks and document filtering are
studied.
Code
Course
Semester
ECTS
Examination
Arrangements
PH336
Signal Analysis
2
5
Two hour examination
This module introduces students to the concept of signals as information sources that are encountered
throughout nature, mathematics, experimental science, and culture. We explore the various subclassifications of signals (continuous/discrete; linear/non-linear; time invariant/variant; etc.), and their
dimensionality (e.g., 1-d time-series, 2-d images). Methods are presented for the analysis of signals in
Continuous Time, and Discrete Time; by decomposition into their frequency components in Fourier
Series, and Fourier Transforms; by employing Laplace Transforms, and State Equations.
Code
Module
Semester
ECTS
Examination Arrangements
TI223
Introduction to GIS
2
5
Continuous Assessment
Aims and Objectives
Basic concepts of GIS
Applications of GIS
Computer skills
This course covers the basic concepts and applications of a geographic information system (GIS). The
topics of GIS data concept, modelling, attribute management, input and analysis are explained. GIS
software ArcView is selected as the main training software package for computer practical in this
course. Students will get general knowledge of a GIS and acquire the basic techniques of GIS software
to independently produce professional maps and carry out queries and basic analyses.
General Course Outline
o Introduction: overview, definition
o Spatial data concept
o Spatial data modelling
o Attribute data management
o Data input
o Data analysis
33
Marine Sciences
Code
Module Title
Semester
ECTS
Examination Arrangements
BPS306
Applied Aquatic Plant Science
2
5
Two hour examination
Introduction to Algal Biotechnology including sustainable utilisation of natural resources and algal
cultivation. Biological features of key species; Applications of algae and algal compounds; Species
specific distribution of algal compounds, their metabolism, structure and important properties; Irish and
international case studies.
Code
Course
Semester
ECTS
Examination
Arrangements
EOS303
Ocean Dynamics
2
5
Two hour examination
Introduction to dynamical oceanography, Newtons Laws of motion, scales and dimensions
Basic forces that drive and control ocean currents, turbulence, viscosity and diffusion
Scaling the equation of motions;- case studies theoretical and practical
Frictionless flows, geostrophic currents, estimating currents from density measurements
Wind driven circulation, Vorticity, Ekman pumping,
Large scale geochemical cycling, nutrient fluxes and transport
Shelf sea physics - heating/cooling effects, tides and coastal processes
Plankton dynamics
Code
Course
Semester
ECTS
Examination
Arrangements
EOS304
Aquatic Geochemistry
2
5
Two hour examination
This course introduces students to the quantitative treatment of chemical processes in aquatic
systems. It includes a brief review of chemical thermodynamics and photochemistry as it applies to
natural waters. Specific topics covered include acid-base chemistry, precipitation-dissolution,
coordination, and redox reactions. Emphasis is on equilibrium calculations as a tool for understanding
the variables that govern the chemical composition of aquatic systems and the fate of pollutants.
Code
Course
MI438
Marine Microbiology and Nutrient Cycling
Semester
ECTS
2
5
Examination
Arrangements
Two hour examination
This module will introduce students to the fundamentals of molecular microbial ecology and the
advances such approaches have bought about in the field. Students will be introduced to, and will
critically assess, the techniques employed in molecular microbial ecology. Students will then focus on
microbial mediation of nitrogen (N) and carbon (C) cycling in the marine environment. Finally, future
perspectives in molecular microbial ecology linking community structure and function will be
addressed.
34
Mathematics
Code
MA203
Module Title
Linear Algebra
Semester
2
ECTS
5
Examination Arrangements
Two hour examination
An introduction to the theory and application of linear algebra. Topics covered include:
1.
2.
3.
4.
5.
6.
7.
Algebra and geometry of Rn . Vector addition, scalar multiplication. Lines and planes in 2 and 3
dimensions. Parametric equations of lines and planes.
Matrix algebra. Addition, scalar multiplication, matrix product, transpose. Matrix inverses.
Systems of Linear Equations and Gaussian Elimination. Elementary operations, echelon form, over
and underdetermined systems, homogeneous systems. Computing matrix inverses.
Dot product on Rn . Perpendicular and parallel components, distance, angle, orthogonal
matrices.
Determinants. Minors and cofactors, area and volume. Properties of determinants. Matrix inverses.
Eigen values and Eigenvectors. Characteristic equation, eigenvalues, eigenvectors,
diagonalisation. Orthogonal diagonalisation of symmetric matrices.
Applications.
Code
MA212
Module Title
Calculus II
Semester
2
ECTS
5
Examination Arrangements
Two hour examination
An introduction to the calculus of functions of two variables, and vector valued functions. The topics
include: Vectors; Multivariate Calculus; Optimization of elementary multivariate functions; Integration
of elementary multivariate functions over polygons.
This course introduces the calculus of functions of two variables, and vector valued functions. The
topics include:
1.
2.
3.
4.
Vectors, scalar product, cross product in R3, equations of lines and planes in parametric form.
Functions of several variables, vector-valued functions (in R2 and R3), partial derivatives,
gradients, tangent planes, the chain rule.
Maxima and minima of functions of 2 variables, Lagrange multipliers.
Integration of functions of 2 variables and the computation of volumes.
Code
MA216
Module Title
Mathematical Molecular Biology II
Semester
2
ECTS
5
Examination Arrangements
Two hour examination
This module is intended to give students an understanding and knowledge of the application of
mathematical or algorithmic methods to defined problems in molecular biology. The focus is primarily
on problems involving mutation discovery and evolutionary inference to predict mutation frequencies
in a population as they change over time, and how to detect mutations of interest.
This course introduces aspects of population and evolutionary genetics and includes:
(1) Detecting mutation, mixing and linkage in DNA sequences.
(2) Genotype inference across genes in a population.
(3) How genome assembly algorithms affect mutation screening.
(4) Inferring population history and coalescence from genetic linkage patterns.
(5) Estimating population structure and admixture from DNA changes.
(6) The neutral theory of molecular evolution.
(7) Testing for adaptive evolution in a population.
(8) Linking genotype and phenotype data using hierarchical clustering and prediction models.
35
Code
MA218
Module Title
Advanced Statistical Methods for
Business
Semester
2
ECTS
5
Examination Arrangements
Two hour examination
This module demonstrates further applications in inferential statistics with applications in Economics,
Business, Marketing and Finance.
Students are required to have completed an introductory course in Descriptive Statistics and
Probability equivalent to MA109 Statistics for Business and an introductory course in Inferential Statistics,
equivalent to MA217 Statistical Methods for Business.
Lectures will be used to present the ideas of statistical theory and practice, these will include
demonstrations of real-life statistical analyses based on business oriented problems. Students will be
required to apply the methodology to example datasets using suitable statistical software, SPSS. The
tutorials and practical sessions will give support for this aspect of the course.
On successful completion of this module the learner should be able to:
1. Describe the conditions when a parametric test or a non-parametric test alternative is more
suitable in certain problems and complete non-parametric testing procedures: the Sign Test, the
Wilcoxon Rank Sum Test, the Wilcoxon Signed Rank Test.
2. Complete advanced analysis of simple linear regression models, including analysis if variance
(ANOVA) in the response variable, calculation of R-squared and completion of the ANOVA table,
further exploration into inference for regression model parameters, including individual t-tests for model
parameters and the F-test through calculation of ANOVA table, check assumptions, diagnostic and
model checking, apply transformations, using the model for prediction, prediction intervals and
confidence intervals.
3. Carry out analysis for problems requiring a multiple regression model, i.e. many candidate
predictors may be used to explain the variability in the response variable. This includes, interpretation
of regression coefficients, constructing confidence intervals and carrying out hypothesis tests for
regression parameters through individual t-tests and the ANOVA F-test, using the model for prediction,
prediction intervals and confidence intervals, model -building, variable selection procedures, adjusted
R-squared.
4. Extend knowledge of multiple regression to interpretation of model coefficients for models with
qualitative/categorical predictors and analysis of covariance, ANCOVA.
5. Complete basic time series analysis, including descriptive analysis via calculation of various index
numbers, recognise time series components, apply smoothing models such as Moving-average
models, Exponential Smoothing, and Holt-Winters Smoothing, apply seasonal regression models using
additive models with indicator variables, describe autocorrelation and carry out the Durbin-Watson
test, use models to forecasting trends and seasonality, measure Forecasting accuracy using MAD,
MAPE, and RMSE.
6. Apply methods in Quality Control including compilation and interpretation of statistical control
charts for monitoring the mean of a process, monitoring the variation of a process, and for monitoring
the proportion of defectives generated by a process, diagnosing the cause of variation and
capability analysis.
7.
To communicate results of analyses in clear, structured reports.
36
Code
MA283
Module Title
Linear Algebra
Semester
2
ECTS
5
Examination Arrangements
Two hour examination
This course covers the theory and practice of Linear Algebra.
Topics covered include:
1. Linear Systems and Matrices: Gaussian Elimination. Elementary row operations. Invertible and
singular matrices. Finding the inverse of a matrix by Gauss-Jordan Elimination. Elementary matrices.
Determinants. Applications to traffic flow, networks and graphs.
2. Vector Spaces and Linear Transformations: Vector spaces and subspaces. Linear combinations,
spanning sets, linear independence. Bases. Finding bases for subspaces of Rn. The kernel and image of
a linear transformation and their dimensions. Finding the kernel (nullspace), image (column space)
and the rank of a matrix. Fundamental Theorem of Linear Algebra. Applications to coding.
3. Eigen values and Eigenvectors: Matrix representations. Eigen values and eigenvectors of a linear
transformation. The characteristic polynomial. Diagonalization of square matrices and applications to
coupled systems of linear differential equations and to page rank algorithms.
4. Inner products: Inner product spaces. Orthogonality. The Cauchy-Schwarz Inequality. Orthogonal
projections. Orthogonal diagonalization of symmetric matrices. The Spectral Theorem. Applications to
least squares solution of over determined systems and regression.
Code
MA287
Module Title
Analysis II
Semester
2
ECTS
5
Examination Arrangements
Two hour examination
This module introduces the theory of functions of a complex variable, starting with an introduction to
complex numbers and ending with applications of the Residue Theorem and conformal
transformations.
Topics covered include:
1. Complex numbers. Complex numbers and their representation. Modulus and argument. Polar
form. Roots.
2. Derivates. Complex functions. Cauchy-Riemann equations. Harmonic functions and harmonic
conjugates. Elementary functions.
3. Integrals. Line integrals: the Fundamental Theorem of Calculus. Cauchy's Theorem and its
consequences. Cauchy's Integral Formula. Applications: Liouville's Theorem and the Fundamental
Theorem of Algebra.
4. Series. Applications to real analysis. Taylor series. Laurent series. The Residues Theorem.
Applications to improper integral.
37
Code
CS319
Module Title
Scientific Computing
Semester
2
ECTS
5
Examination Arrangements
Two hour examination
This module introduces the key concepts of object oriented programming in the context of scientific
computing. By studying classic computational problems from mathematics and applied science, the
need for reliable, reusable and robust object oriented code is motivated.
By studying the implementation of solutions to these problems, students gain experience in
programming in a high-level, object oriented language. Emphasis is paid to the development of
reliable and efficient code.
Code
MA302
Module Title
Complex Variables
Semester
2
ECTS
5
Examination Arrangements
Two hour examination
This course introduces complex variable theory. Topics covered include: Cauchy-Riemann equations,
Laplace's equation, complex numbers to the power of complex numbers, Integral evaluation in the
complex plane, Cauchy's integral theorem, Cauchy's integral formula and Cauchy's integral formulae
for derivatives, residues and the residue theorem.
This course introduces the theory of complex variables. The material covered includes:
1. Complex functions: simplification of complex functions, terminology used in connection with
complex numbers, differentiation of complex functions, Cauchy-Riemann equations, evaluation of
derivatives, Laplace's equation, harmonic functions, harmonic conjugate.
2. Powers of complex numbers: polar form, roots of complex numbers, complex powers of complex
numbers, plotting in the Argand diagram, inverse trigonometrical functions and their evaluation.
3. Integral evaluation: parameterisation, analytical and non-analytical integrands, Cauchy's integral
theorem.
4. Integral evaluation: Cauchy's integral formula and Cauchy's integral formula for derivatives.
5. Residues: classification of singularities, computation of residues, residue theorem, computation of
integrals using the residue theorem.
Code
Module Title
Semester
ECTS
Examination Arrangements
MA334
Geometry
2
5
Two hour examination
This module is an introduction to the ideas and methods of classical and modern geometry.
On successful completion of this module the learner should be able to:
1. Perform basic calculations of distance, angle measure and area in the Euclidean plane.
2. Describe, with reference to appropriate examples, the difference between the synthetic and
algebraic approaches to Euclidean geometry.
3. State and prove some of the basic propositions of plane Euclidean geometry.
4. Use diagrams to aid in constructing proofs and solving problems.
5. Apply deductive reasoning to solve geometric problems.
6. Explain the classification of isometries of the Euclidean plane.
7. Describe the symmetries of some simple shapes such as regular polygons.
8. Calculate spherical distance, angle measure and area.
9. Compare and contrast the geometry of the plane with that of the sphere.
Students will study plane Euclidean geometry in a rigorous fashion and will also see some examples of
non Euclidean geometries. The course is particularly well suited to students considering a career as a
mathematics teacher but should be of interest to any student of mathematics.
38
Code
Module Title
Semester
ECTS
Examination Arrangements
MA335
Algebraic Structures
2
5
Two hour examination
An introduction to the theory and application of modern abstract algebra. Syllabus Outline:
1. Groups, Rings and Fields, Permutation groups, Symmetry groups, Units of the integers modulo n ,
group axioms, Quaternions, Polynomial rings, Gaussian integers, Finite fields, ring and field axioms,
Applications.
2. Lattices and Lattice Points in Euclidean Space Fundamental regions and their volumes,
Minkowski's Theorem, primes that are sums of two squares, non-negative integers as sums of four
squares.
3. Fermat’s Last Theorem Pythagorean triples and their classification, Fermat (The Story) and his Last
Theorem (n=4), outline of modern developments via Geometry.
Code
MA342
Module Title
Topology
Semester
2
ECTS
5
Examination Arrangements
Two hour examination
An introduction to the theory and application of topology. Syllabus Outline
1.
2.
3.
4.
5.
6.
The basic algebra of set theory, unions, intersections, complements, De Morgan's Laws.
Topological spaces - definitions and basic examples.
Continuity and Homeomorphism.
New spaces from old. Subspaces, quotient spaces, products.
Compactness and connectedness.
Applications: Using topological ideas to solve problems from other areas of mathematics.
Code
MA344
Module Title
Groups II
Semester
2
ECTS
5
Examination Arrangements
Two hour examination
The course covers monoids and groups and their actions. Topics covered include finite state
machines, orbits and stabilizers, applications in combinatorics (e.g. vertex colourings), Sylow theory,
finite simple groups.
Code
MA378
Module Title
Numerical Analysis II
Semester
2
ECTS
5
Examination Arrangements
Two hour examination
Polynomial interpolation and its applications in numerical integration, numerical differentiation, splines,
and finite element methods for ODEs. Topics covered include:
Polynomial interpolation and its applications:
1.
2.
3.
4.
5.
6.
Lagrange and Hermite interpolation with error formulas. Runge's example.
Linear and cubic splines (natural and variations).
Newton- Cotes quadrature with error formulas.
Orthogonal polynomials.
Gaussian Quadrature.
Finite element methods for ODEs.
39
Code
CS402
MA492
/
Module Title
Cryptography
Semester
2
ECTS
5
Examination Arrangements
Two hour examination
This course develops basic concepts in private and public key cryptosystems, explores some of the
associated algorithmic number theory, and introduces more advanced topics such as the use of
elliptic curves in cryptography.
Code
CS423
Module Title
Neural Networks
Semester
2
ECTS
5
Examination Arrangements
Two hour examination
An introductory course in Neural Networks. Topics include learning algorithms, memory, the Rosenblatt
perception, back-propagation multilayer perceptrons, and the Hopfield network.
Code
MA461
Module Title
Semester
ECTS
Examination Arrangements
Probabilistic models for molecular
biology
2
5
Two hour examination
This course will cover the application of probabilistic modelling to several important problems in
molecular biology and/or systems biology. We will begin with a review of Markov chains, including
continuous-time chains and hidden Markov models. Applications of models such as these to key
problems in molecular biology include the alignment of molecular sequences, the identification of
genes in genomic sequences (gene-finding), finding genomic regions with shared epigenetic features,
molecular phylogenetics, and the analysis of genome-wide genotype data (including the inference of
population structure and the haplotype phasing problem). We will consider several such applications,
moving from textbook examples to more recent developments from the current bioinformatics
literature.
Code
MA482
Module Title
Functional Analysis
Semester
2
ECTS
5
Examination Arrangements
Two hour examination
This course introduces the theory of Linear Functional Analysis. The material covered includes Normed
Spaces, Continuous Linear Operators, Normed Spaces of Operators, Dual Spaces, Inner Product
Spaces, Orthogonal Complements and Direct Sums, Orthonormal Sets and Sequences, Representation
of Linear Functionals on Hilbert Spaces and the Hilbert-Adjoint Operator.
Code
MA491
Module Title
Field Theory
Semester
2
ECTS
5
Examination Arrangements
Two hour examination
This course together with Ring Theory forms the basis of modern Abstract Algebra, and as such is part
of the indispensible knowledge of an honours graduate in Mathematics, regardless of whether or not
further mathematical studies are pursued. In particular Field Theory and Galois Theory provide answers
for questions in mathematics which originate 2,000 years earlier in the case of Greek Geometry, and
some 450 years ago relating to formulas for the roots of polynomials of degree 5 and higher. The notion
of Galois correspondence occurs in other branches of modern and abstract algebra. More recently,
with the wide applicability of Coding Theory and the search for optimal codes, the use of finite
(Galois) fields has assumed a critical importance.
40
Code
MP232
Module Title
Numerical Analysis II
Semester
2
ECTS
5
Examination Arrangements
Two hour examination
This is a mathematical methods course that considers the following topics: Laplace transforms, vector
calculus, multiple integration and integral theorems. Topics covered include:
1. Laplace transforms: Laplace transforms of elementary functions, the shift theorems, inverse
Laplace transforms, Laplace transforms of derivatives, the convolution theorem, solving initial value
problems for ordinary differential equations using Laplace transforms.
2. Curves and line integrals.
3. The divergence, the gradient and the curl, conservative vector fields.
4. Parametrisation of surfaces, normal to a surface, tangent plane to a surface, surface integrals.
5. Volume integrals, the divergence theorem, examples.
6. Stoke's theorem, examples.
Code
MP237
Module Title
Mechanics II
Semester
2
ECTS
5
Examination Arrangements
Two hour examination
This course consists principally of an introduction to the theory and applications of partial differential
equations. Topics covered include the heat equation, the wave equation, Laplace's equation, and a
brief introduction to the special theory of relativity. Content includes:
1. An introduction to partial differential equations, the heat equation as a model for heat flow,
boundary conditions, initial conditions, well-posed problems, separable variable solutions of the
heat equation.
2. The wave equation as a model for the vibrations of a string, characteristic variables for the wave
equation, the general solution of the one-dimensional wave equation, D'Alembert's solution,
solution of the wave equation on a semi-infinite domain using characteristic variables, solution of
the wave equation on a finite domain using the method of separation of variables.
3. Laplace's equation in two dimensions, solutions to Laplace's equation in rectangular domains using
the method of separation of variables.
4. Introduction to the theory of special relativity, Einstein's two postulates of special relativity, the
Lorentz transformation, length contraction, time dilation, the velocity transformation, relativistic
mass, momentum and energy, the transformation law for momentum and energy.
Code
MP307
Module Title
Modelling II
Semester
2
ECTS
5
Examination Arrangements
Two hour examination
This course introduces the student to modelling techniques for three different real-world problem
areas: queuing theory, population dynamics and control theory. The topics covered include:
1. Queuing theory: Markov processes, ergodic systems and nearest-neighbourhood models.
2. Population dynamics: Fibonacci numbers, age-cohort models, Verhulst predator satiation,
competitive species, Lotka-Volterra model, Ricker model and the Kermac-McKendrick model.
3. Control theory: stability analysis and pole-placing methods
41
Code
MP357
Module Title
Quantum Mechanics II
Semester
2
ECTS
5
Examination Arrangements
Two hour examination
This is a follow-on to the introductory Semester 1 course in quantum mechanics MP356. Topics covered
include:
1.
2.
3.
4.
5.
6.
7.
8.
Introduction to the 2 and 3- d Schrodinger equation and wave functions.
Spherically symmetric potentials and derivation of spherical harmonic functions.
Derivation of the energy eigenvalues and eigenvectors for the hydrogen atom.
Angular momentum in quantum mechanics. Algebraic computation of the angular momentum
eigenvalues and eigenvectors. Relationship to spherical harmonics.
Spin in quantum mechanics. Spinors and spin-statistics.
Rotation of spinors.
Measurement in quantum mechanics and hidden variables theory, the EPR paradox.
Bell's theorem and inconsistency of hidden variables theory and quantum mechanics.
Code
MP403
Module Title
Cosmology and General Relativity
Semester
2
ECTS
5
Examination Arrangements
Two hour examination
In the study of cosmology where gravitation is the dominant force over the large scales considered,
general relativity is the basic component. This course introduces general relativity. Topics covered
include geometry, geodesics, black holes, different model universes and cosmogony. Topics covered
include:
1. Review of Newtonian mechanics and Special Relativity.
2. Geometry: intrinsic and extrinsic definitions of curvature, the metric tensor, Gauss curvature
formula.
3. Geodesics: the variational method, using the Euler-Lagrange equations to calculate geodesics.
4. General Relativity: the postulates of General Relativity; Einstein's field equations, derivation of the
Schwarzschild solution of Einstein's field equations using physical arguments.
5. Cosmology: the cosmological principle, derivation of the Robertson-Walker line element, object
and event horizons, the Friedman equation, cosmogony.
Code
MP491
Module Title
Nonlinear Systems
Semester
2
ECTS
5
Examination Arrangements
Two hour examination
This course is an introduction to the analysis of systems of nonlinear Ordinary Differential Equations
(ODEs) and Maps. Topics covered include:
1. 1-dimensional differential equations: equilibria, stability, bifurcations.
2. 2-dimensional linear systems of ODEs: equilibria, stability, phase-plane portraits.
3. 2-dimensional nonlinear systems of ODEs: equilibria, linearisation, linear stability, phase-plane
portraits.
4. 2-dimensional Hamiltonian systems: equilibria, stability, phase-plane portraits.
5. Limit cycles: Hopf bifurcations, stability.
6. 1- Dimensional difference equations and maps cycles: fixed points, periodic orbits, stability,
bifurcations.
42
Code
ST236
Module Title
Statistical Inference
Semester
2
ECTS
5
Examination Arrangements
Two hour examination
This course provides and introduction to the ideas and mathematics of statistical inference. Topics
covered include:
1.
2.
3.
Basic notions: populations and samples, sampling distributions, estimates and estimators, the
likelihood function.
Point estimation: general concepts, criteria including consistency, unbiasedness, minimum
variance; methods of constructing estimators, unbiased estimation and MVUE, method of
moments, maximum likelihood.
Hypothesis testing: simple and composite hypotheses, type I and type II error, size and power,
most-powerful tests, Neyman Pearson Lemma, uniformly most powerful tests, Likelihood ratio tests.
Code
ST238
Module Title
Introduction to Statistical Inference
Semester
2
ECTS
5
Examination Arrangements
Two hour examination
This module provides a basic introduction to statistical inference, capitalising on students' prior
knowledge of descriptive statistics and basic probability.
Topics covered are:
1. Difference between Probability and Statistics and the role of Probability in solving statistical
inference problems.
2. Explanation of statistics through practical examples of its applications.
3. Review of normal distributions and the sampling distribution of the mean.
4. Concepts of point and interval estimation; concepts in hypothesis testing including Type I and
Type II errors, p-value and power.
5. Confidence intervals and hypothesis tests about a single population mean, a single population
proportion, the difference between two population means and a single population variance.
6. The analysis of enumerative data, including chi-squared goodness-of-fit and contingency table
tests.
7. Correlation and linear regression analysis, including least squares estimation of the parameters of
the simple linear regression model, inferences about these parameters, and prediction.
8. Some survey and experimental designs.
Code
ST312
Module Title
Applied Statistics II
Semester
2
ECTS
5
Examination Arrangements
Two hour examination
This module continues with demonstration in applied statistics with applications in experiment design,
modelling techniques for a qualitative response and methods in the analysis of a multivariate
response. The analysis is demonstrated with the use of statistical software, MINITAB. Topics discussed in
experiment design include confounding of variables, randomization and blocking, and the analysis of
data produced from experiments with a completely randomized design, a randomized block design
and two-factor studies with interaction effects. Modelling techniques for a qualitative response include
logistic regression and generalized linear models. Methods in the analysis of a multivariate response
include topics from, principal components analysis, cluster analysis, time series analysis.
43
Nanotechnology and New Materials
Code
Module Title
Semester
ECTS
Examination Arrangements
CH307
Inorganic Chemistry
2
5
Two hour examination
Insights into the specific roles of metals and ligands in the broad fields of coordination chemistry,
material science and biochemistry are given. Specific areas to be discussed include organometallic
complexes, inorganic kinetics and bioinorganic chemistry. Practicals related to this course are
available in Experimental Chemistry II.
Code
Course
Semester
ECTS
Examination
Arrangements
PH338
Properties of Materials
2
5
Two hour examination
This course provides a comprehensive introduction to the physics of materials. The mechanical,
thermal, electronic, and optical properties of “hard” and “soft” condensed matter are introduced
using concepts primarily based on classical physics with some quantum concepts where appropriate.
Code
Module Title
Semester
ECTS
Examination Arrangements
PH429
Nanotechnology
2
5
Two hour examination
This course provides a comprehensive review of the electronic and optical properties of
nanostructures. The course describes the physics of low-dimensional structures using concepts based
on quantum mechanics. The course also provides a comprehensive review of the bottom-up and
top-down processing techniques used to fabricate nanostructures.
Structure of nanoscale materials: surface to volume atomic ratio, important length scales,
confinement regimes, types of nanostructures. Optical absorption & emission in nanostructures.
Quantum mechanical review for nanostructures. Application of quantum mechanics for problems
involving for quantum wells, nanowires, and quantum dots using Cartesian, polar, and spherical
coordinates. Application of non-degenerate, time independent, perturbation theory to a particle in a
modified box. Density of states for nano-scale structures. Time-dependent perturbation theory, Fermi’s
golden rule. Two-level system. Optical transitions in nano-scale structures
Synthesis and characterisation: Top-down: Nanoelectronics, semiconductor wafers, dopant diffusion,
ion implantation, and epitaxy, thin film dielectrics, lithography. Fabrication of bipolar and field effect
integrated circuits. Nanophotonics Description of heterogeneous vapour phase epitaxy. Description
of surface diffusion, surface alloys, strained epitaxy and self-assembled structures. Bottom-up: Nanobio
synthesis and functionalisation of colloidal nanoparticles. Nanometrology: Scanning-probe, and
electron microscopies, atomic-force microscopy and X-ray diffraction for atomic-scale metrology.
44
Marine Sciences
Code
Module Title
Semester
ECTS
Examination Arrangements
BPS202
Fundamentals in Aquatic Plant Science
2
5
Two hour examination
This module will introduce key aspects of the biology of aquatic photosynthetic organisms including
seaweeds, microalgae and other aquatic plants. In particular it explores the aquatic environments
including lakes and marine systems as habitats for aquatic plant and algal growth and provides
fundamentals of algal diversity, functionality and ecology, and plant/algal environment interactions.
On successful completion of this module the learner should be able to:

Outline and appreciate the importance of different algal groups (including both microalgae
and macroalgae) in ecology and their applications in biotechnology

Describe and characterise environments (terrestrial, freshwater, marine) suitable for algal
growth, with particular detail on growth requirements and controlling factors regarding
seaweeds and phytoplankton

Appreciate the diversity of different algal groups, their distinguishing biological features
including morphological growth forms, and identify common representatives of native Irish
algal groups

Describe and appreciate the different interactions between algae and their abiotic (physical,
chemical) and biotic (living) environments

Describe the origin and relationships between different photosynthetic organisms

Understand key physiological processes in algae and their modifications to different
environmental challenges
Minerals
Code
Course
Semester
ECTS
Examination
Arrangements
EOS225
Optical Microscopy of Minerals and Rocks
2
5
Two hour examination
This module demonstrates how the petrographic microscope is used to identify minerals and study the
textures of igneous, metamorphic and sedimentary rocks in thin section. It uses the wave theory of light
to explain how polarised light interacts with the crystal structure of rock forming minerals. Optical
properties of minerals and rock textures are studied and recorded during practicals.
45
Pharmaceuticals
Code
Module Title
Semester
ECTS
Examination Arrangements
CH202
Organic Chemistry
2
5
Two hour examination
In this module the students will learn about organic chemical functional groups and their reactions &
reactivity, building on the knowledge gained in year one. There will be a theory and practical
component. The theory component will deal with mechanism, reactions, reactivity and structure. In
the practical component basic synthetic and analytical techniques used in the organic chemistry
laboratory will be introduced.
Pure and Natural Sciences
Code
Module Title
Semester
ECTS
Examination Arrangements
CH313
Physical Chemistry
2
5
Two hour examination
This course comprises lectures and tutorials, and expands upon the fundamentals of physical chemistry
covered in years 1 and 2. Chemistry of molecular interactions, gas-solid interactions, thermodynamics
of phase transitions, chemical kinetics, basic principles of electrode kinetics, spectroscopy and
quantum chemistry are covered. The course emphasizes chemistry of interest to modern day chemists.
Code
Module Title
CH335
Industrial Chemistry
Semester
ECTS
2
5
Examination Arrangements
Two hour examination
Detailed insights into the inner workings of the chemical and pharmaceutical industry are given,
including specific exampls of chemistry carried out in industry.
Code
Module Title
CH432
Physical Chemistry 2
Semester
ECTS
2
5
Examination Arrangements
Two hour examination
This module deals with some topics in physical chemistry which include: statistical thermodynamics,
fluorescence spectroscopy, surface analysis and heterogeneous catalysis.
Code
CH439
Module Title
Mechanisms, Polymer Chemistry and
Photochemistry
Semester
ECTS
2
5
Examination Arrangements
Two hour examination
The module deals with the structure and reactivity of radicals and their use in modern organic and
polymer synthesis. The other major classes of polymerization are also considered. The module
discusses the basic photophysics of organic molecules and the synthetic photochemistry of a range of
functional groups. The use of frontier orbitals in predicting the outcome of radical and pericyclic
reactions is described.
46
Code
CH448
Module Title
Spectroscopic & Physical Methods and
Application
Semester
ECTS
2
5
Examination Arrangements
Two hour examination
A course on the use of spectroscopy and (bio)physical methods in Chemistry and Biopharmaceutical
Chemistry. The topics include applications of fluorescence microscopy, NMR, mass spectrometry and
other spectroscopies and methods in analysis of a range of different molecule types, including their
structure and interactions.
Code
Module Title
Semester
ECTS
Examination Arrangements
CS428
Advanced Operating Systems
2
5
Two hour examination
This course introduces the basics of parallel computing. Topics covered include parallel computing
platforms and networks; parallel algorithm design and parallel programming in both homogeneous
and heterogeneous systems.
On successful completion of this module the learner should be able to:
1.
2.
3.
4.
5.
6.
7.
Reason about different logical and physical organisation of parallel platforms;
Apply decomposition techniques to parallelise serial algorithms;
Implement fundamental algorithms in MPI;
Calculate speedup, and derive Amdahl's law;
Describe and use parallel algorithms for dense matrix multiplication;
Describe and use parallel algorithms for sorting;
Implement matrix algorithms with CUDA.
Code
Course
EOS104.II
Introduction
Sciences B
to
Earth
and
Ocean
ECTS
Examination Arrangements
5
Two hour examination
This module will introduce students to the breadth of topics covered in Earth & Ocean Sciences. It
assumes no previous knowledge of subjects such as geography. It will outline the following: The Solar
System; Earth’s Structure; Oceanography; Hydrogeology; Earth’s Crust; Tectonics; The Biosphere; Geoenvironments and Natural Hazards. The lecture course will be linked to practical sessions in a choice of
one out of four time-slots per week.
Structure
 Solar system, galaxies and stars, the Sun, the planets.
 Gravity and Earth rotation, seismic structure, magnetic field.
 Evolution of atmosphere, chemical and physical oceanography.
 Hydrogeology, the water cycle, ground water and its protection.
 Minerals and rocks, Geological time, surface processes.
 Seafloor spreading, plate tectonics, dating of rocks
 Evolution of organisms, fossils.
 Energy resources, Irish ore deposits, natural hazards.
47
Code
Course
Semester
ECTS
EOS108
Geology of Ireland
2
5
Examination
Arrangements
Continuous
practical
assessment (40%) and 2
hour examination (60%)
This module investigates the geological history of Ireland, relating past plate tectonic settings to
modern analogues. The practical component of the module will integrate geological maps from
Ireland with the identification of rocks and minerals. Students may attend a (2 day, weekend) field trip
as part of this module.
Lecturer:
Delivery:
Assessment:
Venue:
Weighting:
Dr Sadhbh Baxter
Lectures and practical: Geological Case studies
Continuous practical assessment (40%) and examination in semester 2
(60%).
A206, Quadrangle
5 ECTS
NOTE: this is a module that is part of an evening Diploma course. Classes take place at 6.30-9.30 on
Thursday evenings. Coffee break included!
Code
Course
Semester
ECTS
EOS205
Gemstones and the Commercial World
2
5
Examination
Arrangements
Continuous
practical
assessment (40%) and 2
hour examination (60%)
This module investigates Gemstones and Jewellery and examines aspect linked to the commercial
world. Diamond and its simulants (e.g. cubic zirconia), Diamond Grading, Treated Gemstones, Artificial
and Synthetic Gems are studied. The main principles of Valuation Science are also considered. The
practical component of the module will include observation of rough and cut gemstones.
Lecturer:
Delivery:
Assessment:
Venue:
Weighting:
Dr Alessandra Costanzo
Lectures and practical
Continuous practical assessment (40%) and examination in semester 2
(60%).
A206, Quadrangle
5 ECTS
NOTE: this is a module that is part of an evening Diploma course. Classes take place at 6.30-9.30 on
Wednesday evenings. Coffee break included!
Code
Course
Semester
ECTS
Examination
Arrangements
EOS222
Ancient Earth Environments
2
5
Two hour examination
The course will cover: the principles of stratigraphy; origin of sediment; classification of sedimentary
rocks; texture and composition of sandstones; transport of sediment; interpretation of depositional
environments; Irish geological history; fluvial, shallow and deep marine environments; modern and
ancient glaciations; extra planetary sedimentology; biochemical sediments
48
Code
Course
Semester
ECTS
Examination
Arrangements
EOS223
Introductory Palaeontology and Evolution
2
5
Two hour examination
This module will introduce students to the science of palaeontology and will examine all of the major
animal groups, who have left their mark in the fossil record.
Code
Course
EOS224
Crystallography and Mineralogy
Semester
ECTS
2
5
Examination
Arrangements
Two hour examination
This module explores the morphology of crystals and the chemistry and atomic structures of the main
rock forming minerals. A detailed study of forms and symmetry across the seven crystal systems is
linked to the chemistry and structure of the major rock forming minerals in particular the members of
Silicate group.
Code
Course
Semester
ECTS
Examination
Arrangements
EOS406
Natural and Manmade Hazards
2
5
Two hour examination
This course examines the science of natural hazards such as earthquakes, tsunamis and hurricanes.
Presentations investigate the causes and effects of these phenomena, discusses their predictability
and the potential risks to human activity, and how this knowledge influences policy making. A
particular focus is on how human activities and Manmade hazards (e.g. Radioactivity, Pollution) can
increase the risk associated with natural hazards
Code
Course
Semester
ECTS
Examination
Arrangements
EOS417
Petrotectonics
2
5
Two hour examination
This module explores linkages between petrology (igneous, metamorphic and sedimentary rocks) and
plate tectonics (i.e. petrotectonics). It interrogates the evolutionary history of the Earth’s lithosphere
with emphasis on cratons. It tracks plate tectonics with time by investigating well documented
petrotectonic assemblages in the geological record. It will address the question: how far back in time
are the same petrotectonic assemblages found today, and are their time/space relationships,
tectonic histories and chemical compositions similar to modern assemblages. Data, linked to
quantitative modeling sessions, taken from geochronology, geothermobarometry and pressuretemperature–time (P-T-t) paths will be used to understand petrotectonic processes.
Code
Course
Semester
ECTS
Examination
Arrangements
EOS418
Applied Field Hydrology
2
5
Two hour examination
Groundwater is one of our key water resources, yet it also one that is stressed by natural processes and
human activities. Managing groundwater is a mix of science, regulation and politics. This course
focuses on understanding groundwater in its geological setting and explores the ways in which
groundwater affects and is affected by the medium in and through which it flows
49
Code
Course
Semester
ECTS
Examination
Arrangements
EOS419
Applied and Marine Geophysics
2
5
Two hour examination
This module will introduce students to a series of passive geophysical remote sensing techniques for
exploring the near-surface of the Earth and the active and passive geophysical methods methods for
the monitoring the Seabed. The results will be used to explain the physical processes beneath the
surface and how these can aid the monitoring of geo-hazards and management of near-surface
resources for example mineral exploration and seabed habitate mapping.
Code
Course
Semester
ECTS
Examination
Arrangements
EOS422
Sedimentary Basins
2
5
Two hour examination
Sedimentary basins comprise a long time-scale record of environmental change on the earth’s
surface and are also hugely economically important. Almost all commercial hydrocarbons are
contained within sedimentary basins – they also comprise groundwater aquifers and potential sites for
sequestered carbon dioxide. This module will investigate the origin, evolution and architecture of
sedimentary basins, and examine in detail the variety of techniques which are used in basin analysis.
Code
Course
ECTS
Examination Arrangements
MP232
Mathematical Methods II
5
Two hour examination
This course is a continuation of “MP231-Mathematical Methods I”
Topics covered include:
1.
2.
3.
4.
5.
Laplace Transforms;
Applications of Laplace transforms to the solution of Linear Ordinary Differential Equations;
Vector calculus; grad, div and curl;
Line integrals, conservative vector fields, surface integrals, triple integrals;
Integral theorems: Divergence theorem, Stokes’ theorem.
Code
Course
ECTS
Examination Arrangements
MP237
Mechanics II
5
Two hour examination
1.
An introduction to partial differential equations, the heat equation as a model for heat flow,
boundary conditions, initial conditions, well-posed problems, separable variable solutions of the
heat equation.
2.
The wave equation as a model for the vibrations of a string, characteristic variables for the wave
equation, the general solution of the one-dimensional wave equation, D’Alembert’s solution,
solution of the wave equation on a semi-infinite domain using characteristic variables, solution of
the wave equation on a finite domain using the method of separation of variables.
3.
Laplace's equation in two dimensions, solutions to Laplace's equation in rectangular domains
using the method of separation of variables.
4.
Introduction to the theory of special relativity, Einstein's two postulates of special relativity, the
Lorentz transformation, length contraction, time dilation, the velocity transformation, relativistic
mass, momentum and energy, the transformation law for momentum and energy.
50
Code
Course
ECTS
Examination Arrangements
MP307
Modelling II
5
Two hour examination
This course introduces the student to modelling techniques for three different real-world problem
areas. The problems cover the topics queuing theory, population dynamics and control theory.
This is a course on mathematical modelling of some real-world systems. The topics covered include:
1) Queuing theory: Markov processes, ergodic systems and nearest-neighbourhood models.
2) Population dynamics: Fibonacci numbers, age-cohort models, Verhulst predator satiation,
competitive species, Lotka-Volterra model, Ricker model and the Kermac-McKendrick model.
3) Control theory: stability analysis and pole-placing methods.
Code
Module Title
Semester
ECTS
Examination Arrangements
MP346
Mathematical Methods II
2
5
Two hour examination
This is a mathematical methods course, and amongst the topics considered are the heat equation,
Laplace's equation, Sturm-Liouville theory, the Fourier transform, and the numerical solution of partial
differential equations using finite difference techniques.
This is a follow on to the course Mathematical Methods MP345. Topics covered include:
I.
II.
III.
IV.
V.
The 1-dimensional heat equation. Introduction to Initial Value Boundary Value Problems.
Solution for various boundary conditions and initial conditions.
Sturm-Liouville Systems. General properties and application to simple systems.
The 2-dimensional Laplace equation. Solution for various boundary conditions on a rectangular
or rotationally symmetric region.
The Fourier Transform. Properties, the inverse transform. Application to solving the 1-dimensional
heat equation on an infinite region.
Finite difference methods. Application to numerically solving the 1-dimensional heat equation.
Stability of numerical method.
Code
Module Title
Semester
ECTS
Examination Arrangements
MP403
Cosmology & General Relativity
2
5
Two hour examination
In the study of cosmology where gravitation is the dominant force over the large scales considered,
general relativity is the basic component. This course introduces general relativity. Topics covered
include geometry, geodesics, black holes, different model universes and cosmogony.
I.
II.
III.
IV.
V.
Introduction: review of Newtonian mechanics and Special Relativity;
Geometry: intrinsic and extrinsic definitions of curvature, the metric tensor, Gauss curvature
formula;
Geodesics: the variational method, using the Euler-Lagrange equations to calculate
geodesics;
General Relativity: the postulates of General Relativity; Einstein’s field equations, derivation of
the Schwarzschild solution of Einstein’s field equations using physical arguments;
Cosmology: the cosmological principle, derivation of the Robertson-Walker line element,
object and event horizons, the Friedman equation, cosmogony.
51
Code
Module Title
Semester
ECTS
Examination Arrangements
MP491
Nonlinear Systems
2
5
Two hour examination
This course is an introduction to the analysis of systems of nonlinear Ordinary Differential Equations
(ODEs) and Maps.
This course is concerned with systems of nonlinear Ordinary Differential Equations (ODEs) and Maps.
Topics covered include:
1. 1.1-dimensional differential equations: equilibria, stability, bifurcations;
2. 2-dimensional linear systems of ODEs: equilibria, stability, phase-plane portraits;
3. 2-dimensional nonlinear systems of ODEs: equilibria, linearisation, linear stability, phase-plane
portraits;
4. 2-dimensional Hamiltonian systems: equilibria, stability, phase-plane portraits;
5. Limit cycles: Hopf bifurcations, stability;
6. 1-dimensional difference equations and maps cycles: fixed points, periodic orbits, stability,
bifurcations.
Code
Module Title
Semester
ECTS
Examination Arrangements
PH108
Physics
2
5
Two hour examination
MECHANICS [7]: Introduction; Displacement; Speed and Velocity; Acceleration; Kinematics; Free fall;
Force and Mass; Newton’s Laws; Gravitation; Work; Energy; Energy; Power
FLUIDS [3]: Density; Pressure; Pascal’s Principle; Archimedes’ Principle; Fluids in Motion; Equation of
continuity; Bernoulli’s Equation; Viscous Flow
TEMPERATURE AND HEAT [3]: Specific Heat Capacity; Phase Change; Humidity; Convection;
Conduction; Radiation
WAVE AND SOUND [3]: Nature of Waves; Sound; Intensity; Doppler Effect
ELECTRICITY AND MAGNETISM [7]: Electric Charge; Insulators and Conductors; Coulombs Law; Electric
Fields; Electric Current; Resistance; Electric Power; Direct Current; Alternating Current; Circuits, Electric
circuits; Magnetism
OPTICS [5]: Nature of Light; Electromagnetic Waves; Reflection; Mirrors; Image Formation; Refraction of
Light; Lenses; Interference; Young’s Double Slit Experiment; Diffraction
ATOMIC AND NUCLEAR [5]: Wave-particle Duality; Blackbody Radiation; The Photoelectric Effect;
Models of the Atom; Photon Absorption and Emission; X-rays; Lasers; The Nucleus; Radioactivity
Code
Module Title
Semester
ECTS
Examination Arrangements
PH140
Engineering Physics
2
5
Two hour examination
The aim of this module is to equip the learner with basic
knowledge, skills and
associated with the fundamentals of a range of topics in engineering physics.
The Experimental Method:
Units, measurement, experimentation, units, significant figures
Heat and Temperature
Acoustics and Optics:
Waves, ultrasound
Electromagnetic waves: EM spectrum, Doppler effect, polarisation
Geometrical optics: reflection and refraction, mirrors, thin lenses, optical instruments
competences
52
Diffraction
Interference
Applications
Electricity and Magnetism:
Electric potential, current, energy, electric forces and fields
Ohm's Law
Insulators, conductors, semiconductors: diode: structure, behaviour
Applications
Atomic and Nuclear Physics:
Photoelectric effect, quantum theory
Line spectra
X-rays
Lasers
Nucleus, nuclear energy
Radioactivity
Applications
Assumptions:
Bohr atomic model (Chemistry)
Pre-requisite: mechanics is taught in SE 1 or early SEM 2 (applied Maths)
Code
Module Title
PH150
Introduction to Physics
Semester
ECTS
2
5
Examination Arrangements
Two hour examination
The aim of this module is to equip the learner with an overview of some of the basic rules of nature
that physical systems follow. The student will learn how to express these rules in simple mathematical
form and to apply these rules to solve simple problems. They will also learn how to make
measurements in the physics laboratory. They will acquire transferable skills in measurement,
numeracy and analysis.
Code
Course
Semester
ECTS
Examination
Arrangements
PH217
Light, Atomic and Nuclear Physics
2
5
Two hour examination
This module builds on content delivered in the general PH101 Physics course, given in First Year, to
provide a more in-depth look at Light, Atomic Physics and Nuclear Physics. Students will learn to solve
problems on various concepts (homework assignments), with tutorials and in-class problem solving
examples.
Code
Course
Semester
ECTS
Examination
Arrangements
PH218
Thermodynamics
2
5
Two hour examination
This module provides a thorough review of thermodynamics based on classical physics. It includes
topics such as temperature & heat, thermal properties of matter, and first and second laws of
thermodynamics. The module will also consider some computational methods with applications to
thermodynamics problems.
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Code
Module Title
Semester
ECTS
Examination Arrangements
PH223
Observational Astronomy
2
5
Two hour examination
This module provides a broad survey of how astronomers make observations of the universe. It
addresses the telescopes, optical designs, instruments, detectors, observable quantities, natural
limiting factors, and techniques of observational astronomy. It covers the full electromagnetic
spectrum of wavelength regimes, from radio waves through to gamma rays, plus neutrino particles. It
investigates what can we learn by observation in each of the main information domains – imaging
(spatial), spectroscopy (energy), and time-resolved (temporal).
Telescope Systems: Telescope Optical Principles; Telescope designs; Telescope Mountings.
Light Detection & Detectors: Poisson statistics; Noise sources; Signal to Noise; Charged-Coupled
Devices (CCDs) Stellar Photometry: Magnitude system; Photometric Systems & Colour Indices;
Interstellar and Atmospheric effects.
Spectroscopy: Spectrograph designs; Spectral Resolution & Range; Calibration.
Observing Practice: Planning & Making observations; Image Processing basics.
Observing in the Infra-Red; IR Spectral Bands & Filters; IR Instruments; Adaptive Optics.
Observing in X-rays: X-ray Telescopes and Detectors; X-ray Emission Processes.
Radio Astronomy: Radio telescopes; Radio Interferometry.
Other Regimes:
Ultraviolet (UV) Astronomy; Millimetre/Sub-Millimetre Astronomy; Gamma-ray
and Cosmic Ray Astronomy; Neutrino Astronomy.
Code
Module Title
Semester
ECTS
Examination Arrangements
PH329
Physics of the Environment II
2
5
Two hour examination
This course responds to the need to understand the physics behind environmental challenges such as
fossil fuel combustion and its associated atmospheric pollution burden, renewable energy technology,
nuclear power, nuclear accidents and radiation protection.
Code
Course
Semester
ECTS
Examination
Arrangements
PH335
Nuclear and Particle Physics
2
5
Two hour examination
In this module students learn how subatomic particles form nuclei, study nuclear properties, and
radioactive decay, and see how nuclear energy may be released in fission and fusion processes.
Students also study fundamental particles, which are the building blocks of nature, and consider the
ways in which these particles interact with each other. Prior knowledge is assumed to the level of
material covered in PH2X3 Light, Atomic & Nuclear Physics and PH3X3 Quantum Physics.
Code
Course
Semester
ECTS
Examination
Arrangements
PH337
Thermal Physics
2
5
Two hour examination
This module provides a comprehensive microscopic interpretation of the laws of thermodynamics
based on statistical mechanics and probability theory. Some principles of quantum physics are
included.
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Code
Course
Semester
ECTS
Examination
Arrangements
PH362
Stellar Astrophysics
2
5
Two hour examination
A comprehensive model for stellar structure and evolution is developed and used to understand star
formation, evolution and destruction and the properties of extra solar planets.
Code
PH424
Module Title
Electromagnetism
Relativity
and
Semester
ECTS
Examination Arrangements
2
5
Two hour examination
Special
This module will be an in-depth course on Electromagnetism and Relativity, building on previous
courses, in particular PH2X1 Electricity, Magnetism & Circuits and PH2X3 Light, Atomic & Nuclear
Physics. The course will include continuous assessment (MCQ), with short problems involving basic
concepts. Students will also learn to solve advanced problems on both electromagnetism and
relativity (homework assignments), featuring more advanced and lengthy problems from David
Griffiths’ book “Electrodynamics”.
Code
Module Title
Semester
ECTS
Examination Arrangements
PH425
Lasers and Spectroscopy
2
5
Two hour examination
This module will provide students with an in-depth introduction to several aspects of Photonics.
Particular emphasis will be placed on atomic spectroscopy and the interaction of radiation with
atoms. The operation of lasers and conditioning of laser radiation will also be developed.
Optical Spectroscopy of atoms, molecules and solids. Interaction of radiation and atoms. Stimulated
and spontaneous processes. Line broadening. Optical modulation. Optical resonators and
conditions for optical gain & laser action. Properties of typical gas, liquid & solid-state lasers.
Code
ST412
Module Title
Stochastic Processes
Semester
2
ECTS
5
Examination Arrangements
Two hour examination
The goal of the course is to introduce the main ideas and methods of stochastic processes with the
focus on Markov chains (processes with discrete time index and finite state space).
The topics include:
1.
A review of probability theory: Discrete and continuous random variables (r.v.), joint and
conditional distributions, expectations, variance, sums of iid r.v.-s, conditional expectation.
2. Probability generating functions, moment generating functions
3. Random sums of r.v.-s.
4. Branching processes.
5. Markov property and Markov chains (MC): Random walk with absorbing barriers (Gambler’s ruin);
Classification of states for a finite discrete Markov chain; Stationary and limiting prob. distribution of
Markov chains; Random walk in 2 and more dimensions; Mean first passage times.
6. Poisson process (independent increments formulation; inter-arrival times formulation).
7. Applications of stochastic processes in finance, bioinformatics, computer science.
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Code
ST417
Module Title
Introduction to Bayesian Modeling
Semester
2
ECTS
5
Examination Arrangements
Continuous Assessment, Two
hour examination
This is an introductory course to statistical modelling focusing in part on simulation based
inference and Bayesian methods. A prerequisite for this course is basic knowledge
of probability and a year of calculus. Helpful but not necessary for successful study
would be if students have already taken an introductory course in statistics or regression
analysis. As a programming tool we shall use and learn statistical package R.
Topics will include: Review of basic probability concepts (events, sample spaces, concept
of random variable, distributions, expectation and variance, central limit theorem);
Likelihood based inference; Priors, posteriors, predictive models. Bayesian inference in
simple hierarchical models; Basic sampling techniques; Markov Chain Monte Carlo and
Gibbs sampling; Bayesian hierarchical models for regression analysis.
Code
Module
Semester
ECTS
Examination Arrangements
TI255
Earth Surface Landforms
and Processes
2
5
Continuous assessment
This course covers the fundamentals of geomorphology. It will look at landscape form and function,
working through from the theoretical understanding of the landscape to hands-on practical field work.
A core aspect of the course will be the systems approach, emphasising the interconnectedness of the
physical and biological components of our environment and the role humans play in shaping these
systems.
Code
Module
Semester
ECTS
Examination Arrangements
TI308
Quaternary Environments
2
5
Continuous Assessment
hour examination
&
2
Earth’s climate has rarely been stable, and is generally in a dynamic state of change. This variability
occurs at many different spatial and temporal scales, but we generally lack long enough scientific or
historical records to directly measure most long-term patterns of climate change. Quaternary Studies
fills this void by offering evidence of climate conditions during the last ~2 million years (the most recent
geologic period), providing a broader context for studying modern environmental phenomena.
This course offers an overview of the Quaternary in three phases. The first section of the course situates
the Quaternary within a broad history of Earth’s climate, discussing Quaternary glaciations and
conditions during and since the last Ice Age in detail. The second section of this course reviews the
myriad of methodologies that are utilized to reconstruct past conditions, focusing on how these
methods are used as windows into the past. Finally, as climate variability has impacted past and
present human societies (and vice-versa), we will assess human/environment relationships during the
Quaternary and explore modern anthropogenic climate change using a palaeoclimatological
perspective.
Field Trip – We will spend a day viewing evidence of Quaternary processes and Quaternary climate
change in Connemara on Friday 1st March. Students will write a short essay (~1000 words) using field
evidence, hand-out and supplementary readings provided on the field trip. Field Trip Essays are due
by Thursday 14th March.
Group Lab Report – I will extract a sediment core from a marsh site near Corrib Village during lecture
at 2:00 pm on 11h March. The core will be displayed in the School of Geography and Archaeology
Teaching Lab (AC 117) on 12th March. All students will observe core extraction, and will work in groups
to measure, describe and attempt to interpret the sediment core stratigraphy. Groups of four will be
assigned alphabetically, and students will sign up for lab time slots during week 9. Lab reports will be
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written as short scientific papers (~1000 words plus figures/tables) and consist of Introduction, Methods,
Results and Discussion sections. Group Lab Reports are due by Thursday 28th March.
Code
Module Title
Semester
ECTS
Examination Arrangements
PH432
Project
2
10
Continuous Assessment
In this module, a student is assigned a research project, and carries out supervised research in the
assigned topic over Semester 2. Each student prepares a detailed report, and makes a short
presentation, on their project work. The report and presentation should be at a level corresponding to
the presentation and publication of results at a scientific conference.
Renewable Energy
Code
Module
TI226
Environment
Planning
and
Semester
ECTS
Examination Arrangements
2
5
Continuous Assessment & 2
hour examination
Tourism is a phenomenon that is inherently geographical. It involves movement of people between
places and multi dimensional environmental resource uses which incorporate cultural, economic,
physical and social elements. Significant reductions in the cost of international travel and increased
leisure time, particularly in contemporary western societies, have contributed to increased tourism
activity nationally and internationally and the demand for recreational experiences. This module
discusses key concepts relating to the geographies of contemporary tourism. The concepts and
examples are explored through issues such as the relationships between tourism and recreation; the
demand for tourism; the supply of tourism facilities; commodification for tourism and recreation; issues
of sustainability; policy and planning issues.
Objectives
The course has three main objectives:
 To examine key features of contemporary tourism, and to locate them within broader
processes of local-global interaction;

achieve a more advanced level of understanding of the spatial processes at work;

To support individual study and research by providing a knowledge base and understanding of
the role of theory and concepts in the context of the geography of tourism.
Learning outcomes
 Critical awareness of tourism as a spatial practice

Critical awareness of the role of theory in providing understanding of the spatial dimensions of
tourism
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Sustainable Agricultural Production
Code
Course
Semester
ECTS
Examination Arrangements
BPS204
Genetics and AgriBiosciences
2
5
Two hour examination
Since the origin of agriculture ten thousand years ago, innovations in genetics and agricultural (plant
& livestock) biosciences have continued to play a critical role in ensuring future food security and
sustainable development on our planet. This module provides cutting-edge training in genetics (plants,
animals) and in agricultural biosciences, using case studies of major scientific advances and biochallenges.
This module provides the student with training on the latest cutting-edge science regarding artificial vs.
natural selection; origins of agriculture; crop and livestock domestication genetics; evolution of crops
and livestock; major crop and livestock species & farming systems; plant and animal genetics; plant
and livestock breeding, genetic resources & gene pools; genetic engineering; GMOs/GM
crops/animals, agricultural biochemistry & systems biology; agricultural geochemistry; agri and food
microbiology; tree biology (timber, forestry); plant-based bio refinery & bio-economy; agriculture, food
security and global sustainable development challenges.
This module will help the student to understand how "classical" breeding methods may have led to the
selection of crops that are sensitive to environmental stresses, including how this may be a major
problem regarding climate change and the need for more food in the coming years. Students will
gain an appreciation of how recent advances in genetics, biochemistry and biosciences might help
to resolve this issue.
Code
Course
Semester
ECTS
Examination Arrangements
BPS305
Plant and Agricultural Genetics
2
5
Two hour examination
This module provides training in fundamental and applied genetics in relation to plants (crops) and
animals (livestock), including molecular agricultural biotechnologies. Conventional, molecular,
population and quantitative genetics aspects will be covered, including the latest advances in
genetics, genomics, genetic modifications and applied systems biology as applied to crops and
livestock.
This module provides advanced training in plant and livestock genetics from the context of
agricultural biosciences and biotechnologies. The module will cover topics such as: Mendelian
genetics, population genetics, quantitative genetics, genomics, plant and animal breeding
approaches, genotype by environment interactions (G X E) transgenic (GM) crops and livestock,
genetic engineering methods and advances, chromosome engineering & polyploidy, reproductive
biotechnologies (livestock, crops), genetics of reproduction and seed development, genome-wide
association mapping, genomic selection, heterosis, epigenetics, model organisms for agricultural
genetics, metabolic engineering, systems biology, agricultural pathogens. Students will engage in
tutorials presenting and discussing scientific research papers on the latest advances in plant and
animal genetics, and will conclude the module with a mini-conference event using an Ignite rapid
presentation format.
Students with a particular interest in genetics would be encouraged to take this module in association
with the complementary 3rd year modules on (a) Human and Biomedical Genetics and (b)
Prokaryotic Genetics available within the undenominated BSc degree.
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Module
Code
TI151
Module Description
Semester ECTS
Examination Arrangements
Principles of Physical Geography
2
Two hour written examination
5
Semester 1 students are introduced to physical geography. Here, insight to, and understanding of, the
fundamental concepts and principles of physical geography; how the physical environment functions,
how different environmental systems interact and how the physical environment impacts on human
activities are all central. In considering the various building blocks that make up these environmental
systems, such as atmosphere, landforms and the biosphere, the course provides an initial understanding
of these fundamental components and an insight into the richness of the physical geography of Ireland
and beyond.
This introductory course in physical geography aims to:





Introduce students to fundamental concepts and principles of physical
geography;
Encourage students to understand the natural world around them;
Explore how geographers have gained knowledge of the natural world and have contributed
so much to this understanding;
Provide an insight into the myriad processes at work in the natural world;
Provide students with an insight into aspects of the rich physical geography of Ireland.
On completion of this course students will be able to:





Outline key ideas used by geographers in their attempt to understand the natural world;
Consider how the natural world operates in terms of features and processes and how these
interlink;
Explain core ideas in biogeography (the biosphere), global soils and earth materials (the
geosphere), climate and weather (the atmosphere);
Provide a greater understanding of some aspects of the physical geography of Ireland;
Learn to engage with and critically evaluate ideas and understanding about the natural world
around us.
Code
Module
Semester
ECTS
Examination Arrangements
TI258
Rural
Environments
Sustainability
and
Management
2
5
Essay; 2 hour examination
Alongside the decline in traditional activities there is equally a growth in terms of new demands being
placed on rural environments, demands for quality food production, public amenity space,
conservation and environmental protection. This course explores these new demands and the ‘value’
placed on rural landscapes; changing perceptions and awareness and contemporary challenges.
The course uses international and national examples to explore issues of management, conservation
and sustainability.
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Technology for the Protection & Mitigation of Natural Disasters
Code
Course
Semester
ECTS
Examination
Arrangements
EOS320
Applied and Environmental Geophysics
2
5
Two hour examination
This module will introduce students to a series of geophysical remote sensing techniques for exploring
the near-surface of Earth. The results will be used to explain key chemical, geological, hydro
geological and physical processes beneath the surface and how these can aid the monitoring of
geo-hazards and management of near-surface resources.
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