Engineering the future: materials for devices

Learning Outcomes

Learning Outcomes

Having successfully completed this module you will be able to:

• an understanding of current research trends in new materials for energy and photonic applications and how they are likely to develop over the next decade
• an understanding of the interplay between materials innovation and device design
• an overview of four key areas of materials use: energy; electronics; sensors; commodity products
• a sound understanding of the chemistry and physics principles underlying modern materials for energy storage (batteries, photovoltaic cells) and photonic applications (optic fibers, IR sensors)
• a basic understanding of adventure and innovation in cross-disciplinary research
• a broad and critical understanding of the expected technological applications that will stem from developments materials science
• strategies for acquiring, collating, interpreting, evaluating and presenting complex technical information from cutting-edge research publications.
• a critical appreciation of the environmental, resource and human impacts that are associated with the processes involved in the development and production of novel materials

The philosophy underlying this course is to empower students to take charge of their own learning in the area of materials science. As a consequence the course will make extensive use of directed and peer-assisted self-learning methods.

The module will be delivered in the context of 3 materials science research targets:

• Relationships between material composition/structure and functionality
• Design of materials with specific combinations of functionality
• Integration of new materials into devices

The module will cover four broad areas:

Batteries Topics include: electrochemical processes in batteries; principles of rechargeable batteries; materials for lithium ion batteries; battery construction; microfabricated ‘on chip’ batteries; performance benchmarking of batteries; battery life cycle analysis and environmental impacts;life cycle analysis

Photovoltaics Topics include: principles of light to electricity conversion using ino rganic materials; silicon photovoltaics; device architectures; quantum efficiency and performance benchmarking; life cycle analysis

Thermoelectrics: Topics include: materials exhibiting thermoelectricity; structure-function relationships in inorganic materials; thermoelectricity figures of merit; life cycle analysis.

Organic Polymers: Topics include: polymer structures; relationship between structure and physical properties (glass transition temperature, mechanical properties); conducting polymers; electronic nose applications of conducting polymers.

The course will consist of a small number of ‘traditional' lectures, which will be used to deliver some of the key background knowledge in areas such as structure-property relationships in inorganic materials, fundamental electrochemical principles of batteries, principles of photonics etc. These lectures will provide the framework for a series of interactive sessions that involve directed self-learning activities, several groupwork activities, presentation and discussion sessions as well as workshops. It is likely that the course will end with a 1-day symposium organised by the teaching staff and the students at which they present the results of their assignments.

Formative

This is how we’ll give you feedback as you are learning. It is not a formal test or exam.

Workshop activities

• Assessment Type: Formative
• Feedback:
• Final Assessment: No
• Group Work: No

Summative

This is how we’ll formally assess what you have learned in this module.

Repeat

An internal repeat is where you take all of your modules again, including any you passed. An external repeat is where you only re-take the modules you failed.