Programme description
The Graphene NOWNANO offers a four-year doctoral training programme leading to the award of a PhD in Nanoscience. Our aim is to train the next generation of scientists who will be able to realise the huge potential of graphene and related 2D materials and drive innovation in the UK, Europe and beyond. Graphene has been dubbed a miracle material due to the unique combination of superior electronic, mechanical, optical, chemical and biocompatible properties suitable for a large number of applications. The potential of other 2D materials (e.g. boron nitride, transition metal and gallium dichalcogenides) has become clear more recently and is now leading to the development of the so-called `materials on demand, i.e. materials with desired properties, not readily available in nature.
There has been an explosion of research and development activity in these two areas all over the world which has led to companies such as inov-8 successfully incorporating graphene into an award winning commercially available product.
The University of Manchester is the birthplace of graphene research and has continued to lead the field in a huge research expansion from the fundamental physics of graphene and related 2D materials to chemistry, engineering, characterisation and bioapplications. Lancaster University is an important partner, providing complementary expertise in theoretical modelling and niche experimental techniques.
The Graphene NOWNANO CDT provides a wide-ranging interdisciplinary PhD programme that develops postgraduate researchers into thinking and working collaboratively across traditional disciplinary boundaries.
Programme Structure:
Year 1 - September to March
Taught component of the programme. Students complete four lecture courses that have been custom developed to cover different aspects of the science and technology of nanomaterials and their applications. Two enquiry-based learning (EBL) projects are completed and two extended lab projects. EBL and lab projects are done in small groups comprising students with different undergraduate backgrounds, which facilitates peer-to-peer learning and provides experience of working as part of a research team.
During this time students will decide upon a project which they will undertake for the rest of the programme. (Link to research projects).
Year 1 April - end of Year 4
Students work on their research projects with their supervisors whilst partaking in CDT events and further skills training.
Aims
The Graphene NOWNANO CDT is unique in that PhD students select their research project during the first six months of the programme rather than having a project pre-allocated prior to admission.
We aim to offer students a new and updated list of research projects every year by academics from all participating departments at The University of Manchester. The majority of the projects are interdisciplinary, involving collaborations between research groups in different academic departments, so most students will have at least two supervisors.
Students are provided with a project booklet that includes the project title, the project background and descriptive outline as well as the contact details of each supervisory team. A poster presentation session is arranged so that students can discuss each of the projects of interest to them in more detail directly with the project supervisor. We strongly recommend that each student arranges a further meeting to visit the facilities and members of the wider supervisory team before making their final selection.
Here are some of the research projects chosen by the 2020 cohort to give you an idea of the types of projects that you could possibly undertake:
- Understanding intercalation of few-layer crystals: a physicist's approach
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Quantum twistronics in superconductors and magnetic materials
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Molecular transport through atomically thin capillaries fabricated using van der Waals assembly
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Optimising van der Waals heterostructures using transmission electron microscopy
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Modelling interfacial quantum phenomena in 2D materials
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Unconventional magnetic orders and excitations in 2D materials
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Electrophysiological characterisation of epilepsy in glioblastoma mice using graphene transistor arrays
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Nanoscale thermal management
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Self-heating systems based on graphene/polymer nanocomposites
Special features
Additional programme information
Equality, diversity and inclusion is fundamental to the success of The University of Manchester, and is at the heart of all of our activities.
We know that diversity strengthens our research community, leading to enhanced research creativity, productivity and quality, and societal and economic impact.
We actively encourage applicants from diverse career paths and backgrounds and from all sections of the community, regardless of age, disability, ethnicity, gender, gender expression, sexual orientation and transgender status.
We also support applications from those returning from a career break or other roles.
We consider offering flexible study arrangements (including part-time: 50%, 60% or 80%, depending on the project/funder), carer support funds for conferences, and peer support networks for parents and carers.
All appointments are made on merit. The University of Manchester and our external partners are fully committed to equality, diversity and inclusion.
Teaching and learning
To prepare students for truly innovative interdisciplinary PhD projects, the Graphene NOWNANO CDT programme commences with a six-month taught programme of lecture course and literature and lab based projects. These cover a wide range of topics including fundamental and applied materials physics, chemistry, engineering, technology (nanofabrication, self-assembly, device manufacturing), characterisation (spectroscopic techniques, microscopy) and applications from device engineering to nanomedicine.
The programme consists of four lecture courses, two extended 12-week laboratory projects and two enquiry-based learning projects.
The emphasis is on team work, with the projects typically done in small groups of mixed-subject backgrounds. So if you are a physicist, you can expect to work with a chemist, an engineer and a biologist, etc.Coursework and assessment
Assessment will be a combination of group and individual work in the form of presentations, worksheet calculations, online tests/quizzes, lab reports and written reports.
Programme unit details
There are three core units which all students cover during the programme.
Core 1: Fundamentals of Graphene and Nanomaterials 1
This unit will be delivered during semester 1 using a combination of lectures and workshops and will be assessed by coursework.
Part 1: 2D materials from a solid state physics perspective
Part 2: Device fabrication and application of 2D materials
Part 3: Basic nano-mechanics and practical considerations
Part 4: Chemical approaches towards nanomaterials fabrication
Core 2: Introduction to Nanoengineering
This unit will be delivered during semester 1 using a combination of lectures and practicals and will be assessed by presentation and coursework.
Part 1: Microfabrication techniques
Part 2: Electron microscopy
Part 3: Electrical measurements
Part 4: Basics of optical characterisation of 2D materials
Core 3: Fundamentals of Graphene and Nanomaterials 2
This unit will be delivered during semester 2 using a combination of lectures and practicals and will be assessed by presentation and coursework.
Part 1: Key aspects of biological and medical applications of graphene based materials
Part 2: Photoelectron spectroscopy and its applications to 2D materials
Part 3: Identifying and characterising nanostructured materials - working in groups to develop a strategy to identify an unknown nanoscale device, reveal its properties and functions.
Alongside these core units, you will also choose one optional unit to study.
Option 1: Fundamentals of Nanoelectronics
This unit will be delivered during semester 2 using a combination of lectures and workshops and will be assessed by coursework.
Option 2: Fundamentals of Molecular Modelling
This unit will be delivered during semester 2 using a combination of lectures and practical's and will be assessed by essay.
You will also complete two Enquiry Based Learning (EBL) modules and two Laboratory based projects across both semesters.
EBL projects are student-led reviews exploring a specific topic, conducted in groups of approximately four. These in-depth studies offer the opportunity to delve into the literature and develop an original piece of work designed to gain a deeper understanding of the subject and encourage critical literature review skills. Students will complete two projects during the taught programme, with the opportunity to be published in peer-reviewed journals.
- Recent EBL topic examples are:
- Topological properties of electronic bands in 2D materials
- Permeation through 2D lattices
- Making spin count: exploring future spin based technologies
- The science behind 2D materials for imaging, drug discovery and biosensing
- Solving problems in information security with 2D materials
Our laboratory based projects lasting 12 weeks give the opportunity to explore the more experimental side of a variety of topics. Each of the projects is designed to be self-contained, allowing students to make significant contributions to the research group. As with any research project, there will be many opportunities for students to put forward original ideas and help influence the direction of the research. During the programme the students will complete two group lab projects. Recent lab project examples are:
- Atomic force microscopy for imaging biological samples
- Graphene/2D material based field effect devices and optoelectronics
- Crating domain walls in magnetic nanowires
- Low temperature electronic measurements of 2D materials
Scholarships and bursaries
Scholarships, including full tuition fee funding and monthly stipend payments, are available for UK/Home students.
EU/International applicants must source their own funding and evidence this within their applications.
Programme collaborators
What our students say
The taught part of the course has given me a better understanding of some of the interdisciplinary aspects of nanomaterials research.
As I carry on through my project the CDT provides me with both a wide-reaching network of academics and students, and a streamlined way to secure access to equipment and resources outside of my department. As a Chemistry graduate it was very useful to have lectures on important topics which I didn't previously understand properly, such as solid state physics.
Michael Greaves / Researching 3D printing to develop MXene-based batteries of all shapes and sizes.
Bonnie Tsim CDT student researching Electron/electron correlations in two-dimensional materials (2DM) and 2DM heterostructures
Facilities
Disability support
CPD opportunities
As part of the CDT you will be offered training in:
Commercialisation of Research
Media Engagement
Public Engagement and Outreach
Health and Safety
Introduction to Research
A dedicated programme of researcher development courses that progresses alongside your PhD
Team Building & Communication Skills
Presentation Skills
Academic Writing
and much more!