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phd computer science exeter

Dense 3D face modelling and reconstruction

Machine learning is the science of constructing algorithms that learn from data and in the case of computer vision, to image and video data.

The proliferation of data and the availability of high performance computing makes this a fertile and very applicable area of research. It draws on ideas in computer science, statistics and applied mathematics, together with biologically inspired paradigms such as neural computation.

Machine learning research at Exeter spans the range of data, applications and methodologies: from kernel methods to deep neural architectures and reinforcement learning applied to both continuous and discrete, graph-based data.

The group collaborates with industrial partners and with the Impact Lab , and contributes strongly to the University’s membership of the Alan Turing Institute .

Group members

  • Key Contact: Professor Richard Everson - Professor of Machine Learning (Research Lead)
  • Prof Alberto Arribas - Associate Professor
  • Dr Jacqueline Christmas - Senior Lecturer 
  • Dr Fabrizio Costa - Lecturer
  • Dr Leon Danon - Senior Lecturer
  • Dr Anjan Dutta  - Lecturer
  • Professor Jonathan Fieldsend - Professor
  • Dr Dmitry Kangin  - Research Fellow
  • Professor Ed Keedwell  - Professor
  • Dr Lorenzo Livi - Lecturer
  • Dr Chunbo Luo - Senior Lecturer
  • Dr Sareh Rowlands  - Lecturer
  • Dr Wenjie Ruan  - Senior Lecturer
  • Prof Hywel Williams - Associate Professor
  • Dr Johan Wahlström - Lecturer

Former members

  • Dr Nicolas Pugeault  - Lecturer
  • Dr Anastasios (Tassos) Roussos - Lecturer

Research projects

For a full list of current and recent research projects within this strand of our work, please see our research projects page .

Visual attention and pre-attentive perception

How much of driving is pre-attentive? Quite a lot, it appears. For an experienced driver, the act of driving requires little attention, allowing for extended periods of driving, while at the same time having a conversation, looking for directions or daydreaming. It is precisely because little attention is necessary that drivers' inattention is such a common cause of accident.

Research in collaboration with the University of Surrey has been investigating exactly how much of a driver’s actions could be explained by pre-attentive perception only [1]. This research employed a computational model of pre-attentive perception with machine learning to mimic the driver’s behaviour. Experiments showed that up to 80% of steering and braking actions of a driver can be fully explained by such a pre-attentive model of perception. Moreover, this model was able predict the driver's steering accurately up to a full second before they started turning the wheel.

Ongoing research is investigating the full role of attention in dynamic tasks such as driving, and how a successful attentional strategy can be learnt from experience. In particular, recent experiments have allowed us to explain what is learnt by Deep Saliency models of visual attention [2].

This research is funded by the EPSRC under project DEVA: Autonomous Driving with Emergent Visual Attention.

  • Pugeault N, Bowden R. (2015) How much of driving is pre-attentive? IEEE Transactions on Vehicular Technologies , volume 64, pages 1-15, article no. 12, DOI:10.1109/TVT.2015.2487826.
  • He S, Pugeault N. (2017) Deep saliency: What is learnt by a deep network about saliency? 2nd Workshop on Visualization for Deep Learning at the 34 International Conference on Machine Learning , Sidney, Australia, 10th Aug 2017. 
  • He S, Kangin D, Mi Y, Pugeault N. (2018) Aggregated Sparse Attention for Steering Angle Prediction , International Conference on Pattern Recognition , Beijing, China, 20th-24th Aug 2018.

Autonomous control

Consider a team of robots charged with exploring an unknown environment completely autonomously. Their task will be to discover the environment’s layout, to localise themselves with respect to visible landmarks and each other, and to plan trajectories ahead.

The state of the art in robotics research provides robust methods to model a robot’s environment from vision and motion, so called SLAM (Simultaneous Localisation and Mapping), as well as for localising itself in this map using visual landmarks. Once the environment’s layout and the robot position are known, planning and navigation are also well studied problems.

What is less understood by previous research is:

  • how should a robot plan its actions and motions initially in order to discover its environment most efficiently and accurately? [1]
  • if we assume that the exploration can done by multiple robots simultaneously, how should these robots decide when and how to cooperate to improve exploration? [2]

In response to those questions, we have developed novel algorithms for planning optimal collaborative exploration of unknown environments by teams of autonomous robots.

This project is in collaboration with the Centre for Vision Speech and Signal Processing (CVSSP) at the University of Surrey.

Video: Humans can localise without LiDAR, can robots?

  • Mendez Maldonado, Oscar, Hadfield, Simon, Pugeault, Nicolas and Bowden, Richard (2016) Next-best stereo: extending next best view optimisation for collaborative sensors. British Machine Vision Conference , 19-22 September 2016, York, UK.
  • Mendez Maldonado, Oscar, Hadfield, Simon, Pugeault, Nicolas and Bowden, Richard (2017) Taking the Scenic Route to 3D: Optimising Reconstruction from Moving Cameras . IEEE International Conference on Computer Vision 2017 , 22-29 October 2017, Venice, Italy.
  • O Mendez, S Hadfield, N Pugeault, R Bowden (2018) SeDAR-Semantic Detection and Ranging: Humans can localise without LiDAR, can robots? Proceedings of the International Conference on Robotics and Automation (ICRA'2018) , IEEE.

3D face modelling with unprecedented quality

We have recently created the most accurate digital 3D model of human faces [1,2]. We introduced the largest-scale 3D morphable model of facial shapes ever constructed, based on a dataset of more than 10,000 distinct facial identities from a huge range of gender, age and ethnicity combinations.

For this large scale facial model (LSFM), we proposed a fully automated system that establishes dense correspondences among 3D facial scans, yielding state-of-the-art results.

We are currently investigating novel methodologies that will allow us to extend our 3D face modelling so that it can also represent the 3D shapes of emotive faces with unprecedented accuracy. Towards that goal, we have recently collected a new dataset of dynamic 3D facial scans of around 5,000 individuals. This large-scale dataset includes facial scans of the participants in several different facial expressions. This data collection was done during a special exhibition and technology demonstration at the Science Museum, London.

This work is in collaboration with scientists from Imperial College London and craniofacial surgeons from Great Ormond Street Hospital and Royal Free Hospital.

Science magazine article

Science  magazine featured this research project and its applications.

  • J. Booth, A. Roussos, S. Zafeiriou, A. Ponniah, and D. Dunaway. A 3D Morphable Model learnt from 10,000 faces . International Conference on Computer Vision and Pattern Recognition (CVPR 2016) , Las Vegas, Nevada, USA, June 2016.
  • J. Booth, A. Roussos, A. Ponniah, D. Dunaway, and S. Zafeiriou. Large Scale 3D Morphable Models , International Journal of Computer Vision (IJCV) , 2017.

Dense 3D face reconstruction from images and videos under unconstrained conditions

As part of our ongoing research, we are exploiting our highly-accurate 3D face modelling for problems of Computer Vision and Computer Graphics. Reconstructing the detailed 3D shape and dynamics of the human face has numerous applications, such as facial expression recognition, human-computer interaction, augmented reality, performance capture, computer games and visual effects, to name a few.

Despite the important advances in the related scientific fields, the existing methods have several limitations, since they can only work reliably under restrictive acquisition conditions. In our work, we seek to develop novel formulations and pioneering methodologies for dense 3D reconstruction and modelling of human faces that will be able to deal with challenging real-life image data.

We are paying particular attention to computational efficiency and to achieving unprecedented accuracy and robustness to challenging scenarios, such as low-resolution image data, severe occlusions, strong illumination changes and large intra-subject variability in facial morphology.

This work is in collaboration with scientists from Imperial College London.

  • J. Booth, A. Roussos, E. Ververas, E. Antonakos, S. Ploumpis, Y. Panagakis, and S. Zafeiriou. 3D Reconstruction of "In-the-Wild" Faces in Images and Videos. Transactions on Pattern Analysis and Machine Intelligence (T-PAMI) , Accepted for publication.

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phd computer science exeter

Computational Modelling and Data Science includes researchers developing physics-based simulation techniques such as FEA and CFD, and the new simulation techniques of Engineering Data Science and AI. Applications of these technologies can be found in bioengineering and in robotics and control. Researchers in this Theme also work collaboratively with those in other Themes on simulation, virtual design and development of digital twins.

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Work with us

There are often specific vacancies at both PhD and postdoctoral level - these are advertised on the  University web site , and vacancies specific to the Computational Engineering group will be advertised here.

Applications from self-funded PhD students and visitors are welcomed at any time - please contact the relevant academic staff for your interests.

Group members have an excellent track record of working with companies in many areas of Engineering, spanning startups, SME and international companies, through mechanisms such as InnovateUK, KTP and various Industrial PhD/EngD projects, plus direct consultancy. If your company is interested in our work and capabilities or would like to explore how we could work together, please contact the relevant academic staff.

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Research work within this theme is delivered and supported by various centres and groups based in the Department of Engineering.

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We have 3 University of Exeter Computer Science PhD Projects, Programmes & Scholarships

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phd computer science exeter

A Russell Group university with world-class research and high student satisfaction

Mapping Preterm Sleep Microstructure and EEG Biomarkers for Early Neurodevelopmental Risk Assessment. MRC GW4 BioMed DTP PhD studentship 2025/26

Phd research project.

PhD Research Projects are advertised opportunities to examine a pre-defined topic or answer a stated research question. Some projects may also provide scope for you to propose your own ideas and approaches.

Competition Funded PhD Project (Students Worldwide)

This project is in competition for funding with other projects. Usually the project which receives the best applicant will be successful. Unsuccessful projects may still go ahead as self-funded opportunities. Applications for the project are welcome from all suitably qualified candidates, but potential funding may be restricted to a limited set of nationalities. You should check the project and department details for more information.

Optical metasurfaces for multifunctional infrared spectroscopy and hyperspectral imaging

Competition funded phd project (uk students only).

This research project is one of a number of projects at this institution. It is in competition for funding with one or more of these projects. Usually the project which receives the best applicant will be awarded the funding. The funding is only available to UK citizens or those who have been resident in the UK for a period of 3 years or more. Some projects, which are funded by charities or by the universities themselves may have more stringent restrictions.

EPSRC InDustrial CDT in Offshore Renewable Energy (IDCORE)

Funded phd programme (european/uk students only).

Some or all of the PhD opportunities in this programme have funding attached. It is available to citizens of a number of European countries (including the UK). In most cases this will include all EU nationals. However full funding may not be available to all applicants and you should read the full programme details for further information.

EngD Programme

An EngD is a professional doctorate in Engineering and related subjects. The qualification is equivalent to a PhD, but involves more vocational and practice-based elements, geared towards the needs of industry. Applicants are often based within a company whilst completing their doctorate.

NERC Centre for Doctoral Training

NERC Centres for Doctoral Training conduct research and training in priority areas funded by the UK Natural Environment Research Council. Potential PhD topics are usually defined in advance. Students often receive additional training and development opportunities as part of their programme.

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20th in the times and the sunday times good university guide 2024, partner to the alan turing institute and home to exeter’s institute for data science and artificial intelligence, excellent facilities spanning a wide range of machine types and software ecosystems, courses designed to launch and develop careers for those working in or entering data and technology-driven roles, degrees in exeter.

Computer Science at Exeter

Choosing to study   Computer Science   at Exeter means you’ll learn from teaching that draws directly from our particular research strengths in AI, machine learning, data science, statistical modelling, high performance computing and networks, and cyber-security.

We have designed these programmes to support you in lifelong learning, so you can use your studies to accelerate or redirect your career, or progress into further academic study or a PhD.

As a Computer Science postgraduate student at Exeter, you’ll be welcomed into a tight-knit, friendly department that supports close personal contact between staff and students.

You’ll work in a highly productive and well-organised research environment, with a suite of new teaching and research laboratories in the Harrison Building. Rich in current research and taught using industry standard software and methods, you can also choose to combine your degree with modules in Strategy, Marketing, Management and Leadership.

"Computer Science at the University of Exeter provides a collaborative and inclusive environment in which students and researchers can advance their knowledge of this dynamic and exciting subject."

Professor Andrew Howes

Head of Computer Science

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University of Exeter

PhD in Computer Science

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University of Exeter, Devon

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PhD in Computer Science at the prestigious University of Exeter is a prestigious degree that offers in-depth learning in Computer Science. Being a renowned university, University of Exeter receives enough funds to ensure the best education facilities for its students across all programs. This doctorate program offered full-time primarily focuses on the practical implementation of fresh ideas through rigorous study and research. The students are encouraged to add new aspects and findings to the existing area of knowledge. PhD in Computer Science at Exon is ranked globally by estimated organisations. Such recognition speaks volumes about the course’s importance and effectiveness in the present scenario. The top-notch faculty, modern facilities, and the aura of creativity and innovation in the Exon campus is a life-changing experience for the students looking forward to kickstarting or upgrading their careers. Overall, a PhD in Computer Science at University of Exeter is an excellent opportunity to grow into a learned professional and bring new developments in the world.

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PhD research opportunities

Mathematics and Statistics   brings together our internationally leading research in several areas of pure mathematics, applied mathematics and statistics, including number theory, arithmetic geometry, geophysical and astrophysical fluid dynamics, dynamical systems, control theory, statistical forecasting and uncertainty quantification. See the research group and staff pages for specific project suggestions.

To apply for PhD or other research degrees, see https://www.exeter.ac.uk/study/pg-research/degrees/mathematics/ including links to possible sources of funding. We list below some current opportunities of interest across the department.

Two Funded PhD opportunities for September 2024 (home tutition fees)

The University of Exeter’s Department of Mathematics and Statistics is inviting applications for two PhD studentships fully-funded to commence on 23 September 2024 or as soon as possible thereafter.  

For eligible students the studentship will cover Home tuition fees plus an annual tax-free stipend of at least £19,237 for 3.5 years full-time, or pro rata for part-time study.  The student would be based in the Department of Mathematics and Statistics in the Faculty of Environment, Science and Economy at the Streatham Campus in Exeter.

Several possible projects in mathematics and statistics are offered (with academic supervisors as named)

  • Multi-step look-ahead adaptive design of computer experiments (Dr Hossein Mohammadi)
  • A rapidly changing high-latitude environment: a carbon sink or a source? (Dr Mike O'Sullivan)
  • Improving emulation and calibration of high-dimensional environmental models (Dr James Salter)
  • Random number generation using β-encoders (Prof Tony Samuel)
  • Limit theorems and mixing properties for dynamical systems with an infinite invariant measure and a non-integrable observable (Dr Tanja Schindler)
  • Mathematical modelling of perception and action dynamics (Dr Piotr Slowinski)
  • Data fusion in ecological modelling (Dr Oscar Rodriguez de Rivera Ortega)

Details of the projects being offered and contact information for the supervisors are listed below.

This award provides annual funding to cover Home tuition fees and a tax-free stipend.  For students who pay Home tuition fees the award will cover the tuition fees in full, plus at least £19,237 per year tax-free stipend  

The studentship will be awarded on the basis of merit for 3.5 years of full-time study to commence on 23 September 2024.

Entry requirements:

Applicants for this studentship must have obtained, or be about to obtain, a First or Upper Second Class UK Honours degree, or the equivalent qualifications gained outside the UK, in an appropriate area of science or technology. 

If English is not your first language you will need to meet the required level as per our guidance at https://www.exeter.ac.uk/pg-research/apply/english/

How to apply

In the application process you will be asked to upload several documents. 

  • Letter of application (outlining your academic interests, prior research experience and reasons for wishing to undertake the specific project. You MUST include the  title and project supervisor .)
  • Transcript(s) giving full details of subjects studied and grades/marks obtained (this should be an interim transcript if you are still studying)
  • Names of two referees familiar with your academic work. You are not required to obtain references yourself. We will request references directly from your referees if you are shortlisted.

The closing date for applications is midnight on 16th July 2024.  Interviews will be held virtually in the week commencing [19 July 2024].

Applications should be made online via this link: Award details | Funding and scholarships for students | University of Exeter

If you have any general enquiries about the application process please email [email protected] or phone +44 (0)1392 722730 or +44 (0)1392 72515.  Project-specific queries should be directed to the relevant supervisor (contact details from https://mathematics.exeter.ac.uk/people/academicstaff/ ).

PhD project details

Hossein Mohammadi

([email protected])

Today, computer simulations play an important role in various scientific fields, ranging from climate change to healthcare. Since these models are typically computationally intensive, we have access to a limited number of model evaluations. To overcome this computational challenge, we usually use a cheap-to-evaluate statistical surrogate to predict the model output. Gaussian process emulators [1, 2] are commonplace surrogates in the field of computer experiments. Building a surrogate requires a set of simulation runs, a.k.a. training data points. These points need to be chosen in a carefully designed manner to achieve maximum possible accuracy. Traditionally, training points are obtained based on a space-filling sampling scheme, which distributes them as uniformly as possible across the space. In recent years, the adaptive design of computer experiments, a.k.a. learning, has gained considerable attention [3, 4]. In an adaptive strategy, information from the emulator and previous simulation runs is used to determine the next model evaluation. This approach offers a smarter way to select future design points, allowing for more sampling in regions of interest compared to space-filling designs, which treat all regions as equally important.

However, most adaptive methods consider only the immediate next step, which may not lead to optimal decisions over the entire sampling process. Multi-step look-ahead strategies, which are novel techniques in active learning, aim to optimise the overall process by planning multiple steps ahead. These strategies evaluate the potential long-term impact of each model evaluation, resulting in a more comprehensive and strategic approach to sampling. This thesis aims to develop multi-step look-ahead active learning approaches for Gaussian processes in the context of computationally expensive simulation models.

References:
[1] Carl Edward Rasmussen and Christopher K. I. Williams. Gaussian processes for machine learning. MIT Press, 2006.
[2] T. J. Santner, Williams B., and Notz W. The Design and Analysis of Computer Experiments. Springer-Verlag, 2018.
[3] Haitao Liu, Yew-Soon Ong, and Jianfei Cai. A survey of adaptive sampling for global metamodeling in support of simulation-based complex engineering design. Structural and Multidisciplinary Optimization, 2018.
[4] Hossein Mohammadi, Peter Challenor, Daniel Williamson, and Marc Goodfellow. Cross-validation–based adaptive sampling for Gaussian process models. SIAM/ASA Journal on Uncertainty Quantification, 2022.

Tony Samuel

([email protected])

One of the most classical examples of a dynamical system stem from β-transformations. Namely, self-maps on [0,1] of the form x→{βx}, where β is a real number with |β|>1 and where {βx} denotes the fractional part of βx. They are the simplest family of expanding interval maps and yet give rise to a variety of intricate dynamical behaviours. When β is not an integer, these transformations lead to a beautiful representation of real numbers, i.e. non-integer base expansions, which have their origins in the works of Alexander Gelfond [1], William Parry [4] and Alfréd Rényi [5]. These β-expansions possess very different properties to their integer counterparts (e.g. binary or decimal) and continued fraction expansions. By exploiting these discrepancies Yutaka Jitsumatsu et al. [3,4] have developed a new random number generator which was verified by the National Institute of Standards and Technology (NIST) statistical test suite. This is precisely where this project will kick off, namely to explore the results of Yutaka Jitsumatsu et al. and to tackle some of the open questions posed in [3,4].

[1] A. O. Gelfond, A common property of number systems, Izv. Akad. Nauk SSSR. Ser. Mat. 23, 809–814 (1959).
[2] K. Itaya and Y. Jitsumatsu, Random Number Generation Using Outputs from Multiple Beta Encoders, IEICE Proceedings Series 48, A4L-C-6 (2016).
[3] Y. Jitsumatsu and K. Matsumura, A β-ary to binary conversion for random number generation using a β-encoder, Nonlinear Theory and Its Applications, IEICE 7(1), 38–55 (2016).
[4] W. Parry, On the β-expansions of real numbers, Acta Math. Acad. Sci. Hungar. 11, 401–416 (1960).
[5] A. Rényi, Representations for real numbers and their ergodic properties, Acta Math. Acad. Sci. Hungar. 8, 477–493 (1957).

Oscar Rodriguez de Rivera Ortega

([email protected])

Citizen science, or public participation in scientific research, presents a significant opportunity for enhancing data availability. However, this type of information is deeply intertwined with human knowledge and behaviour, which introduce several complexities into the modelling framework. These complexities manifest in various ways, including uncertainty, sampling bias, and variations in sampling effort.

The focus of this PhD project will be on analysing and developing various statistical methods to assess the advantages and drawbacks of incorporating citizen science data into predictive models. Throughout the research, the student will work with a diverse array of datasets. These will include earth observation data, structured sampling data, and citizen science data. By integrating these different sources of information, the student aims to explore how different approaches can be leveraged in statistical ecology and to understand how they influence prediction uncertainty.

Citizen science data, while valuable, comes with inherent challenges due to its reliance on non-expert participants. The variability in the accuracy and consistency of data collected by the general public can lead to significant uncertainties in the resulting models. Additionally, sampling bias can occur because citizen scientists may preferentially sample certain areas or species, leading to an unrepresentative dataset. Variations in sampling effort, where the intensity and frequency of data collection differ across locations and times, further complicate the analysis.

The PhD student will delve into these issues by applying and comparing different statistical techniques. This comparative analysis will help to identify which methods are most effective at mitigating the drawbacks of citizen science data while maximising its benefits. The goal is to develop robust statistical frameworks that can accurately incorporate this type of data into ecological models, thereby improving their predictive power and reliability.

By combining earth observation data with structured sampling and citizen science data, the student will have the opportunity to cross-validate findings and enhance the robustness of the models. Earth observation data, typically gathered through remote sensing technologies, offers a consistent and comprehensive overview of ecological variables across large spatial scales. Structured sampling, on the other hand, involves systematic and methodical data collection by trained professionals, providing high-quality and reliable data. When these structured approaches are supplemented with the widespread and often extensive data from citizen science, the potential for a more nuanced and comprehensive understanding of ecological patterns and processes increases.

Throughout the course of this research, the student will not only gain expertise in advanced statistical techniques but also contribute valuable insights into the field of statistical ecology. By addressing the challenges posed by citizen science data and developing effective strategies to incorporate it into predictive models, this research will help to advance the integration of diverse data sources in ecological studies. The aim is to enhance the accuracy and reliability of ecological predictions, which can inform better conservation and management decisions.

Mike O'Sullivan

([email protected])

The high latitudes comprise of Arctic and Boreal ecosystems. They currently experience the fastest warming, largest variability (extremes), especially in the winter due to cryosphere – albedo feedbacks. As such they are the canary in the coal mine for climate change and climate-carbon cycle feedbacks, given their enormous carbon stocks above-ground in the boreal forests and below-ground in Arctic tundra permafrost soils. IPCC predicts large future changes in snow cover and permafrost, and it is unclear the magnitude impact on the main greenhouse gases (GHGs), CO2, CH4 and N2O. There is a contemporary carbon sink in the growing season, yet future projections in response to climate change are uncertain. Massive stores of organic carbon are stored in permafrost which will likely become unstable under warming, triggering multiple climate feedbacks. There is also large uncertainty around the magnitude of the C sink in boreal forests; atmospheric inversions suggest a larger sink than process-based models. It has been proposed by this team that this may be link to the representation of forest age in process-based models. We therefore urgently need to focus on disturbance and mortality processes in high-latitudes (e.g. fire, permafrost thaw, wind stress) and both in above- and below-ground carbon stocks.

This PhD would form part of Schmidt future’s, Virtual Earth System Research Institute (VESRI). VESRI aims to use big data and AI techniques to improve Earth System Modelling. Under VESRI, the UEXE are funded through the CALIPSO - Carbon Loss In Plants, Soils and Oceans – project, where we have secured 50% funding for a studentship. The goal of CALIPSO is to make a step change in the representation of carbon loss processes in ESMs for three critical knowledge gaps in the global carbon cycle: tree biomass, soil carbon and marine biota.

James Salter ([email protected])

The overarching aims of this PhD project are to improve emulation and calibration of computer models where the model outputs are high-dimensional, with a focus on methodological development but with motivating applications from environmental models.
 
For computer models to be informative for studying complex real-world systems and making predictions and aiding decisions in the real-world, models must be properly calibrated, and uncertainties in the model understood. Even with increasing computing power, it is not always possible to run large ensembles of high-resolution models that can completely explore the often-large input parameter space, with emulators required to predict the model output at unseen versions of the inputs, allowing us to better explore the model and aid tuning/calibration of such models. For large output fields (spatial, spatio-temporal, multiple atmospheric levels), emulation approaches are often based around dimension reduction, with SVD a popular choice (Higdon et al 2008, Salter et al 2019). However, this may struggle with extrapolation; when important real-world patterns are not frequently seen in the model; or when there is large variability in the range of model outputs, leading to trade-offs in the basis vectors that can result in non-stationary behaviour in the projected coefficients.
 
This project will explore and develop alternative methods for emulating high dimensional output fields, with an emphasis on developing methods that can be used efficiently in calibration problems, and for studying model discrepancies (differences between the real world and model-world). Potential directions include: machine learning-based approaches to dimension reduction (convolutional neural networks, variational autoencoders), if the uncertainty in predictions can be properly characterised; and using models of the same system at different resolutions and learning patterns from the faster, lower resolution models and using these to aid emulation of input-dependent patterns at higher resolutions.
 
In this project, there will be the opportunity to apply methods to real environmental modelling problems, including relating to land surface modelling and atmospheric dispersion/volcanic ash modelling.

Piotr Slowinski

([email protected])

Hand and eye coordination is a basic skill crucial to perform countless daily activities. Hand-eye coordination is shaped by perception and action dynamics, the way we are reacting to external stimuli (e.g., spotting notification and reaching for a mobile phone). The perception and action dynamics depends on sensory-motor and neural latencies, i.e., time it takes to notice stimulus (perception), time to process it and decide on appropriate action (processing) and time it takes to complete the movement (action).

Deficits in perception and action dynamics are frequently observed in neurological and mental disorders. Similarly, it is commonly observed that outcomes of the neuropsychological tests of people experiencing mental health issues differ from the outcomes of typical population. However, understanding of how perception and action dynamics affects outcomes of neuropsychological tests is lacking.

To address this knowledge gap, the project seeks to develop and analyse mathematical models of perception and action dynamics. The models will allow to investigate both sources and effects of (1) slower and more variable reaction times observed in people at risk of or experiencing mental illness (represented in the models as a temporal delay), and (2) variability in sensory processing or inaccuracies in motor execution (represented in the models as a different sources of noise). The models will use a system of non-homogeneous (driven by external signal) delay differential equations (with scalar, distributed or state dependent delays). The equations will describe eyes and hand movement driven by an input signal (e.g., object observed on the screen). The models will include neurologically motivated coupling between hands and eyes. Model analysis will combine dynamical systems theory, computational non-linear dynamics approaches and simulations.

Mathematical modelling will allow to understand complex interactions between parts of the nervous system (eyes, brain, motor neurons, muscles) involved in on eye-hand coordination and perception and action dynamics more generally. The causal/ mechanistic relations encoded in the model parameters (eye-brain-hand coupling, sources of noise, sources of sensory-motor latencies) will allow to precisely define and compare behavioural mechanisms (cognitive/ compensatory strategies) employed by people to complete neuropsychological tests. Crucially, the models will be validated in behavioural experiments using digital versions of neuropsychological tests.

Project outcomes will directly help in development of devices and technologies fostering better mental health (faster and personalised diagnosis), individually adaptive, minimally intrusive monitoring technologies (cheap, non-invasive, portable data collection set-up, suitable for clinic and home) and new methods of recognising abnormal data patterns (based on individual cognitive strategies and objective, model-driven metrics).

In a longer term, understanding relation between perception and action dynamics and cognitive function might revolutionise the way we define symptoms used to diagnose mental health problems e.g., by facilitating development mathematical nosology and neurosymptomatics.

Tanja Schindler

(currently: )

We consider an ergodic system (X, μ, T) and an observable f:X→ℝ. It is one of the most classical problems in ergodic theory to study the long term behaviour of f,...,f∘︎T^n; in particular of the Birkhoff sum f+...+f∘︎T^n. Such systems are often better suited as models than iid random variables as short term dependencies can be taken into account.
Besides the easiest case - to study limit theorems for μ a probability measure and f an integrable (often even very nicely behaved, e.g. Hölder continuous) observable - in the last 10 to 20 years a number of limit theorems have been proven for the following settings:
a) μ is probability measure and f is a non-integrable observable - in this setting often clustering, i.e. the successive occurrence of large events, made those dynamical systems behave qualitatively different from iid random variables with the same distribution function.
b) μ is an infinite measure space and f is either integrable or at least bounded - this setting has e.g. been used to model anomalous diffusion.

In this project the general aim is to combine the above two settings, namely we assume that μ is an infinite measure and additionally f is non-integrable - even non-integrable over a finite measure set. In this setting, both the infinite measure as well as the non-integrable observable influence the qualitative behaviour and it is the aim of the project to study under which conditions each of the two has the leading influence on the system.
The main limit theorems to be proven for such settings are stable laws, extreme value laws, and almost sure limit theorems - possibly two sided and possibly under truncation.

Moreover, a suitable notion of mixing is supposed to be developed. While there are notions like ψ- or α-mixing in the case of random variables over a finite measure space and Krickeberg-mixing for dynamical systems with a infinite invariant measure, so far there is no notion of mixing that helps describing the systems in our setting.

Some of the results are expected to be obtained mostly by a applying a combination of the methods from settings a) and b), e.g. in the case of stable laws or two-sided almost sure limit theorems. These parts of the project can be considered as a lower risk and in an optimal case give already early publishable results.

Depending on the student's progress and interest there are different possibilities in which the project can continue: For instance, there are a number of number theoretic examples which exhibit this behaviour, e.g. different non-standard continued fraction expansions which could give nice applications. On the other hand, there are also a number of zero-entropy dynamical systems (like suspension flows or adding machines) and together with a non-integrable observable they fall into the above described setting - however for them even in setting a) and b) a lot less is known.

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MPhil Computer Science

University of exeter, different course options.

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Course Summary

Tuition fees, entry requirements, similar courses at different universities, key information data source : idp connect, qualification type.

MPhil - Master of Philosophy

Subject areas

Computer Science

Course type

Our main areas of Computer Science research include Artificial Intelligence, Computer Vision, Cyber Security, Data and Network Science, Evolutionary Computing and Optimisation, High Performance Computing and Networking, and Machine Learning.

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Research overview

Our main areas of Computer Science research are:

Artificial intelligence research areas focus on social network understanding, remote sensing, human-computer interaction, cognitive science and on the philosophical foundations of artificial intelligence and computer science.

Computer vision research activities include visual attention, autonomous control, collaboration and decision strategies for cooperative robots, deep multi-modal embedding, graph neural networks etc.

Cyber security research mainly focuses on formal methods, security/safety engineering, and software engineering with the aim to build secure, reliable, resilient software and hardware systems.

Data and network science research the phenomena, intrinsic properties and real-world applications of complex networks (such as complex networks and human dynamics), which are often inspired by nature and occur in many real-world contexts including social, biological and neural networks.

Evolutionary computing and optimisation research focuses on developing evolutionary algorithms, genetic programming, hyperheuristics, swarm intelligence and multi- and many- objective versions of these for problems such as hydroinformatics, bioinformatics, optimisation under uncertainty and interactive evolution.

High performance computing and networking investigates the advanced computational and networking challenges associated with the future Internet, 5G mobile networks, cloud and edge computing, unmanned vehicles, and high performance computing.

Machine learning research at Exeter spans the range of data, applications and methodologies from kernel methods to deep neural architectures and reinforcement learning applied to both continuous and discrete, graph-based data.

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For all research degrees you will normally be required to have obtained or expect to obtain a first degree equivalent to at least a UK 2:1 Honours degree. You will need at least a 2:1 or its equivalent in order to be considered by any of the main funding bodies. For some programmes we also consider evidence of relevant personal, professional and educational experience.

Health Data Science MSc

London school of hygiene & tropical medicine, university of london, msc entertainment management & analytics, norwich university of the arts, msc advanced computer science, northumbria university, newcastle, msc artificial intelligence.

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  1. Computer Science

    The University of Exeter and Tsinghua University have launched a jointly-awarded PhD degree programme in climate and environmental sciences which supports six students to be co-supervised between Tsinghua's Department of Earth System Science and Colleges at Exeter that conduct research on earth systems and environmental sciences. Read more.

  2. Computer Science

    Choosing to study Computer Science at Exeter means you'll learn from teaching that draws directly from our particular research strengths in AI, machine learning, data science, statistical modelling, high performance computing and networks, and cyber-security. We have designed these programmes to support you in lifelong learning, so you can ...

  3. Computer Science

    Computer Science at the University of Exeter provides a collaborative and inclusive environment in which students and researchers can advance their knowledge of this dynamic subject and establish foundations for future careers. Our research-led, business-linked programmes explore the breadth of Computer Science and its applications, enabling ...

  4. Computer Science MSc

    The programme structure is designed to provide the core concepts in computer science in term 1, such as algorithms and architectures, data systems, programming and security. In term 2 this foundation of knowledge will be extended to the practical domains with the introduction of ethical and governance frameworks as well as professional ...

  5. Computer Science, Ph. D.

    About. This Computer Science MPhil/PhD programme from The University of Exeter will be given an up-to-date or specialised computer for daily research work. Visit the Visit programme website for more information. The University of Exeter. Exeter , England , United Kingdom. Top 1% worldwide. Studyportals University Meta Ranking. 4.1 Read 71 reviews.

  6. PhD Computer Science at University of Exeter

    PhD Computer Science. UNIVERSITY OF EXETER. Compare Different course options ... Our main areas of Computer Science research include Artificial Intelligence, Computer Vision, Cyber Security, Data and Network Science, Evolutionary Computing and Optimisation, High Performance Computing and Networking, and Machine Learning. ... based at Exeter ...

  7. University of Exeter Computer Science PhD Projects, Programmes

    A jointly awarded Engineering Doctorate (EngD) from the Universities of Edinburgh, Exeter, Strathclyde and Swansea, offering ten places per year funded by the UK Engineering and Physical Sciences Research Council (EPSRC). Read more. Funded PhD Programme (European/UK Students Only)EngD ProgrammeNERC Centre for Doctoral Training. More Details.

  8. University of Exeter Computer Science PhD Projects, Programmes

    FindAPhD. Search Funded PhD Projects, Programmes & Scholarships in Computer Science at University of Exeter.

  9. Computer Science (exeter) PhD Projects, Programmes ...

    We have 20 Computer Science (exeter) PhD Projects, Programmes & Scholarships. Show more Show all . More Details . Optical metasurfaces for multifunctional infrared spectroscopy and hyperspectral imaging. University of Exeter Department of Physics and Astronomy. About the project. Infrared (IR) spectroscopy reveals nearly all chemical/biological ...

  10. Professor Jia Hu

    Overview. Prof. Jia Hu is an Associate Professor in Computer Science at the University of Exeter. He received his PhD in Computer Science from the University of Bradford, UK, in 2010, and M.Eng. and B.Eng degrees in Electronic Engineering from Huazhong University of Science and Technology, Wuhan, China, in 2006 and 2004, respectively.

  11. Machine learning and computer vision

    The University of Exeter and Tsinghua University have launched a jointly-awarded PhD degree programme in climate and environmental sciences which supports six students to be co-supervised between Tsinghua's Department of Earth System Science and Colleges at Exeter that conduct research on earth systems and environmental sciences. Read more.

  12. MSc Advanced Computer Science

    This programme is research-led. More than 94% of our Computer Science research outputs are internationally excellent. Students have the opportunity to carry out work on the University's High Performance Computing environment which represents a £3m investment by the University, designed to serve the advanced computing requirements.

  13. Computational Modelling and Data Science

    The University of Exeter and Tsinghua University have launched a jointly-awarded PhD degree programme in climate and environmental sciences which supports six students to be co-supervised between Tsinghua's Department of Earth System Science and Colleges at Exeter that conduct research on earth systems and environmental sciences. Read more.

  14. University of Exeter Computer Science PhD Projects ...

    We have 5 University of Exeter Computer Science PhD Projects, Programmes & Scholarships. University of Exeter. A Russell Group university with world-class research and high student satisfaction. Find out more. Show more Show all . More Details . AI for the Environment: Collaborative Exeter-Turing PhD Studentship.

  15. Computer Science

    The University of British Columbia. Activities between the University of British Columbia and Exeter include a joint research symposium focused on Community, Culture, Creativity, and Wellbeing held at Exeter in May 2018 and a faculty-led, co-funded initiatives in Sport, Exercise and Health Sciences, Climate Change and Digital Humanities.

  16. Studying

    The University of Exeter and Tsinghua University have launched a jointly-awarded PhD degree programme in climate and environmental sciences which supports six students to be co-supervised between Tsinghua's Department of Earth System Science and Colleges at Exeter that conduct research on earth systems and environmental sciences. Read more.

  17. PhD in Computer Science at University of Exeter

    PhD in Computer Science at the prestigious University of Exeter is a prestigious degree that offers in-depth learning in Computer Science. Being a renowned university, University of Exeter receives enough funds to ensure the best education facilities for its students across all programs. This doctorate program offered full-time primarily focuses on the practical implementation of fresh ideas ...

  18. Neil Vaughan Profile

    Professor Neil Vaughan is Associate Professor of Data Science and AI at University of Exeter. He recently completed Royal Academy of Engineering Research Fellowship. ... Professor Neil Vaughan is available to supervise more PhD or post-doc research projects. Current PhD funding opportunities: EPSRC DTP, MRC, China Scholarship Council (CSC) and ...

  19. PhD opportunities

    The University of Exeter and Tsinghua University have launched a jointly-awarded PhD degree programme in climate and environmental sciences which supports six students to be co-supervised between Tsinghua's Department of Earth System Science and Colleges at Exeter that conduct research on earth systems and environmental sciences. Read more.

  20. Computer Science BSc

    As an Exeter Computer Science and IT graduate you may find yourself working with business IT systems, the web, mobile communications, games technology, or in the management and development of the safety-critical systems that control planes, trains and power stations.

  21. PhD in Computer Science

    In the PhD in Computer Science program at Columbia Engineering, you'll find a vibrant, collaborative community of research with broad interests including natural language processing, security and privacy, graphics and user interfaces, computational biology, computer vision, robotics, machine learning, and artificial intelligence. ...

  22. MPhil Computer Science at University of Exeter

    Course Summary. Overview. Our main areas of Computer Science research include Artificial Intelligence, Computer Vision, Cyber Security, Data and Network Science, Evolutionary Computing and Optimisation, High Performance Computing and Networking, and Machine Learning. The. as well as a list of our current postgraduate researchers.

  23. Postgraduate Research

    The University of Exeter and Tsinghua University have launched a jointly-awarded PhD degree programme in climate and environmental sciences which supports six students to be co-supervised between Tsinghua's Department of Earth System Science and Colleges at Exeter that conduct research on earth systems and environmental sciences. Read more.