Find out more about self-funded PhD projects in areas where we already have supervisors active and engaged in the research topic in our School of Life Sciences.
Fixed term contract for 3 years, commencing April 2025.
Bursary of £19,237 per annum and a full fee-waiver for UK/International tuition fees.
Closing date: 15 November 2024
Interview date: TBC November/December 2024
About ARU:
Anglia Ruskin University (ARU) is a vibrant workplace and our University is gaining prominence both nationally and internationally. Recently the recipient of the Time Higher Education ‘University of the Year’ award and a Teaching Excellence Framework (TEF) gold award, ARU is a rising star in the UK and internationally. We have ambitious plans for the future and we are determined that our students and staff will realise their full potential. Our main campuses at Cambridge, Chelmsford, Peterborough and Writtle have been transformed with major capital investment. With an annual turnover of over £200m, we are a major force for higher education and one of the largest universities in the East of England.
About the position:
Chalk streams are important, globally rare habitats, supporting many plant and animal species that continue to be impacted by human activity. There are major threats to biodiversity and water quality from excessive water extraction, proximal urban development, silt accumulation from runoff, and pollution from nitrates, phosphates and suspended solids. It is critically important that we understand better the effects of these activities have on the faunal and floral biodiversity and ecology of these streams, and put in place management strategies to maintain and enhance their ecological health.
One of the only 224 chalk streams in the UK, and part of the Upper Cam Catchment, is Hobson's Brook, which will be the main focus of the project. The aim of this fully funded PhD project is to evaluate optimal and effective local scale conservation management interventions for Hobson's Brook, with the knowledge gained being applicable to other similar streams. With particular focus on quantifying biodiversity and water quality responses to variation in water supply, silt clearance and of connections with other water bodies, we are keen for the candidate to develop their own ideas within this research area. As part of the application, you should briefly detail a research proposal for this project demonstrating your understanding of the wider implications your research may have and showing how your skills could contribute to reaching the objectives of ecological restoration and habitat enhancement of Hobson’s Brook and other unique chalk streams in Cambridgeshire.
The successful candidate will develop a range of skills, such as experimental and survey design, freshwater sampling, GIS and statistical analysis, and will benefit from joining the vibrant Applied Ecology Research Group. You will be working with world-leading experts in species identification and the impacts of anthropogenic activities on biodiversity, whose research is being used as evidence to shape national and international policy. We are looking for a candidate to join our team who is passionate about the environment, is excited by doing both field and laboratory work, and driven to make a real impact.
About the Studentship:
A 3-year studentship is offered, intended to start in April 2025, providing a tax-free stipend of £19,237 per annum plus tuition fees at the UK rate. Due to funding restrictions, this studentship will cover UK fees only and is a full-time position, but international applicants are welcome to apply.
Project location: Cambridge campus. Prospective candidates who would not be Cambridge-based are encouraged to contact the principal supervisor prior to application (contact details below).
Candidates for this PhD Studentship must demonstrate outstanding qualities and be motivated to complete a PhD within 3 years.
Qualifications:
Applicants should have a minimum of a 2:1 Honours degree or equivalent in a relevant discipline. For candidates for whom English is not their first language, an IELTS (Academic) score of 6.5 minimum (or equivalent) is essential.
In addition to satisfying basic entry criteria, the University will look closely at the qualities, skills, and background of each candidate and what they can bring to their chosen research project in order to ensure successful and timely completion.
How to apply:
To apply, please visit Biology PhD, click 'Apply online' and complete the application form for full-time study with a start date of April 2025. Please ensure the reference 'PhD Studentship: Optimising strategies for conservation and restoration of chalk streams in Cambridgeshire' is clearly stated on the application form, under the title ‘Outline of your proposed research’.
Within this section of the application form, applicants should include a maximum 500-word outline of the skills that they would bring to this research project, describing some of the ideas for the PhD and detail any previous relevant experience.
Please also include a CV and a cover letter detailing why you want to apply and why you would fit the position well.
For informal inquiries, applicants should contact the principal supervisor, Dr Alvin Helden ([email protected]), or Dr Bas Boots ([email protected]), or Dr Jim Littlemore ([email protected]) for more information.
For enquiries regarding the process and eligibility please contact [email protected].
Interviews are scheduled to take place in November/December 2024.
We value diversity at Anglia Ruskin University and welcome applications from all sections of the community.
Closing Date: 15 November 2024.
Fixed term contract for 3 years, commencing January 2025.
Bursary of £19,237 per annum and a full fee-waiver for UK/International tuition fees.
Closing date: 22 November 2024
Interview date: TBC December 2024
About Anglia Ruskin University:
Anglia Ruskin is a vibrant workplace and our university is recognised both nationally and internationally. We have ambitious plans for the future, and we are determined that our students and staff will realise their full potential. Our main campuses in the cities of Cambridge, Chelmsford, London and Peterborough have been transformed with major capital investment. With an annual turnover of over £200m, we are a major force for higher education and one of the largest universities in the East of England.
About the position:
Traditionally, genomics has concentrated on studying the genetic mutations passed down from parents to their offspring. In contrast, somatic mutations are genetic changes that occur in the cells of organisms during their lifetime, due to incorrect repair of DNA damage or inaccurate DNA replication. These somatic mutations lead to an increasing ‘mosaic’ of genetic variation within an organism over time. Some of these mutations can cause changes in cellular behaviour, including leading to clonal expansions of mutant cells within tissues. These can have profound effects, including, most notably, the development of cancer. Somatic mutations have also long been theorised to be a driver of ageing. Until recently our ability to study somatic mutations was limited by the technical challenge of detecting mutations present in single or small numbers of cells Due to advances in our ability to detect somatic mutations, the principles and consequences of somatic evolution are an exciting emerging field in biology, yet remain understudied in plants. Plants are particularly fascinating because somatic mutations that occur in meristematic tissues can be passed on to all descendent cells, and eventually end up in the gametes at branching termini, blurring the distinction between somatic and germline evolution. A better understanding of somatic mutational processes in plants therefore has important implications for our understanding of evolutionary biology.
This PhD aims to investigate somatic mutation rates and processes in plants. This will involve using different sequencing technologies in a lab-based model organism and in wild populations. Annual Arabidopsis and ancient, long-lived trees such as oaks (Quercus) offer two ends of the lifespan scale in plants, providing tractable systems in which to investigate the principles of somatic evolution in plants. In recent years excellent genomic resources have been developed across a wide range of model and non-model plant species – for example the Darwin Tree of Life (DToL) has produced chromosomal-level assemblies for both Arabidopsis and Quercus robur (English Oak). Using these systems, and benefitting from open-source data from DToL, we will:
The student will benefit from a very active and interdisciplinary collaborative network across Anglia Ruskin University, the University of Cambridge, and the Wellcome Sanger Institute. Through established partnerships, the student will have access to DToL project resources. A comprehensive training programme will be provided comprising both specialist scientific training and transferable and professional skills. The student will develop skills in experimental design in both field collection and plant growth experiments and how to produce (this may involve laser-capture microdissection and/or flow sorting of cell populations) and analyse genomic data (duplex and long read sequencing) for somatic evolutionary studies.
About the Studentship:
A 3-year studentship is offered, intended to start in January 2025, providing a tax-free stipend of £19,237 per annum plus tuition fees at the UK/International rate. Due to funding restrictions, this studentship is only available as a full-time position.
Project location: Cambridge campus. Prospective candidates who would not be Cambridge-based are encouraged to contact the principal supervisor prior to application (contact details below).
Candidates for this PhD Studentship must demonstrate outstanding qualities and be motivated to complete a PhD within 3 years.
Qualifications:
Applicants should have a minimum of a 2.1 Honours degree in a relevant discipline. An IELTS (Academic) score of 6.5 minimum (or equivalent) is essential for candidates for whom English is not their first language.
In addition to satisfying basic entry criteria, the University will look closely at the qualities, skills, and background of each candidate and what they can bring to their chosen research project in order to ensure successful and timely completion.
A strong interest in experimental work and data analysis is required, along with the ability to communicate scientific work. Experience in bioinformatics, statistics, genetics, and/or genomics is highly desired, if not essential.
How to apply:
To apply, please visit Biology PhD, click 'Apply online' and complete the application form for full-time study with a start date of January 2025. Please ensure the reference 'PhD Studentship: Somatic evolution in plants' is clearly stated on the application form, under the title ‘Outline of your proposed research’.
Within this section of the application form, applicants should include a 500-word outline of the skills that they would bring to this research project and detail any previous relevant experience.
Interested applicants should direct initial queries about the project to Dr Max Carter-Brown via email: [email protected]. For enquiries regarding the process and eligibility please contact [email protected].
Interviews are scheduled to take place in December 2024.
We value diversity at Anglia Ruskin University and welcome applications from all sections of the community.
Closing Date: 22 November 2024.
Research Group
Applied Ecology Research Group (AERG)
Proposed supervisory team
Several other members of Biology staff with interest in this subject area could be part of the team e.g., Dr Tom Ings, Dr Peter Brown and Dr Sarah Hart.
Theme
Global Change Ecology
Summary of the research project
Needingworth is an active gravel and sand extraction quarry site near St. Ives, Cambridgeshire run by the Hanson/Heidelberg Cement Group. Following the mineral extraction process the land is being restored to form what will be one of the UK’s largest reedbed system. This is occurring sequentially in a series of blocks, which are then to be given over to management by the RSPB. The main focus of the site has been wetlands and the birds that they support. However, as my recent Quarry Life project has shown, additional biodiversity rich habitat, particularly grassland, have been created. While the restored site clearly has importance for biodiversity, it would be very informative for the organisations directly involved, as well as local and national conservation organisations, and the wider community, to be able to quantify the contribution of the site to local biodiversity. In other words, what is the biodiversity footprint of the site? How much is biodiversity enhanced and is there a positive spill-over effect to areas adjacent to the site? The project would aim to measure the invertebrate and other biodiversity of the site and that of equivalent habitats in the surrounding landscape. The information collected, together with data published elsewhere, would be used to parameterise a landscape model that could be used to help inform decisions about future restoration.
Where you'll study
Funding
This project is self-funded. Details of studentships for which funding is available are selected by a competitive process and are advertised on our jobs website as they become available.
Next steps
If you wish to be considered for this project, you will need to apply for our Biology PhD. In the section of the application form entitled 'Outline research proposal', please quote the above title and include a research proposal.
Research Group
Applied Ecology Research Group (AERG)
Proposed supervisory team
Theme
Climate change, species distribution
Summary of the research project
Climate change is rapidly altering ecosystems and affecting people’s way of life, exerting effects from the individual to biome scale. Since 1500, 322 terrestrial vertebrate species have gone extinct and recorded populations show a 25% decline in abundance. Rapid rates of species decline, extinction and range contraction provide increasing evidence that we are entering a sixth mass extinction period induced by human activities, which is likely to compromise the functioning of ecosystems and affect the wellbeing of humans. These risks are especially prominent in the Arctic, where rapid warming, changing human-related infrastructure, human activity, human extraction of biological resources and contaminants affect animals and in turn the people that depend on animals for socio-economic wellbeing including food and culture.
This PhD will examine how different drivers of change affect wildlife species and ecological communities with arctic distributions. You will examine how species’ responses to climate change varies across their distribution and how communities are responding to arctic change across a range of physical and anthropogenic drivers.
Where you'll study
Funding
This project is self-funded. Details of studentships for which funding is available are selected by a competitive process and are advertised on our jobs website as they become available.
Next steps
If you wish to be considered for this project, you will need to apply for our Biology PhD. In the section of the application form entitled 'Outline research proposal', please quote the above title and include a research proposal.
Research Group
Applied Ecology Research Group (AERG)
Proposed supervisory team
Theme
Smart Cities
Summary of the research project
Land management decisions made at the planning stage and in terms of on-going site management are likely to have major impacts on biodiversity. Each decision has consequences at the local site level for biodiversity, particularly for plants and invertebrates, but in turn this affects animals higher in the food chain such as birds. Although we have some understanding of this, we need to learn more about how the combined effects of local management influences biodiversity at a whole town or city scale. This project will quantify the effect of planning and management decisions on invertebrate and other biodiversity at an urban landscape scale. It will use small-scale experiments, fieldwork and published data to parameterise urban landscape models, designed to inform authorities about options for biodiversity enhancement. Ultimately the research will contribute to the development of future urban areas with improved benefits for wildlife and people.
Small-scale invertebrate sampling will be carried out, together with wider-scale habitat mapping. Sampling data will be brought together, with that from the literature, to parameterise landscape models that will enable alternative management practices to be simulated. It will help to ask questions as to what effects local management decisions will make to the biodiversity of whole urban areas. This will represent a more advanced approach to the growing field of urban biodiversity, much of which has been largely observational.
Where you'll study
Funding
This project is self-funded. Details of studentships for which funding is available are selected by a competitive process and are advertised on our jobs website as they become available.
Next steps
If you wish to be considered for this project, you will need to apply for our Biology PhD. In the section of the application form entitled 'Outline research proposal', please quote the above title and include a research proposal.
Research Group
Applied Ecology Research Group (AERG)
Proposed supervisory team
Dr Helen Wheeler (AERG, Anglia Ruskin University)
Dr Davide Natalini (Global Sustainability Institute)
Theme
Environmental decision-making, restoration, rewilding
Summary of the research project
Rewilding has gained significant attention internationally as an emerging and exciting approach for restoration for sustainable ecosystems but requires stakeholder support for its successful implementation. Rewilding aims to restore interactions between different ecosystem components to create more resilient ecosystems able to withstand the more extreme perturbations expected under changing climate.
To successfully address sustainability challenges, rewilding must both promote biodiversity and meet human needs. To receive support, the policies must support stakeholder goals and values and needs and expectations of stakeholders must inform how and in what contexts we attempt rewilding. In prominent UK examples, rewilding projects have failed due to a lack of local support. Conservation conflicts, whereby stakeholders have divergent conceptions of future landscapes may undermine conservation efforts and cause them to ultimately fail.
Farmers and landowners are affected by rewilding activities near their land and face decisions about whether to engage in rewilding activities on their land. These two decisions will determine the uptake of rewilding. Rewilding has three core ecological aims: increasing food web complexity (such as through reintroducing predators and herbivores), increasing connectivity of rewilded land (to aid species dispersal) and allowing natural disturbance regimes (such as allowing periodic flooding). Rewilding aims to move to low-intervention landscapes. By reducing human intervention, we increase uncertainty of ecosystem trajectories. Policies designed to further these objectives may be seen to negatively impact landowners and farming communities and may generate behaviours which are ultimately damaging unless they are well designed. The PhD will investigate the impact of policy decisions on uptake of rewilding activities through examining stakeholder responses to environmental policies using a range of methods such as Q-methodology and agent-based modelling.
Where you'll study
Funding
This project is self-funded. Details of studentships for which funding is available are selected by a competitive process and are advertised on our jobs website as they become available.
Next steps
If you wish to be considered for this project, you will need to apply for our Biology PhD. In the section of the application form entitled 'Outline research proposal', please quote the above title and include a research proposal.
Research Group
Behavioural Ecology Research Group (BEEC)
Proposed supervisory team
Theme
Cognitive abilities, Social relationships
Summary of the research project
The requirements of living in social groups, as well as forming and maintaining social relationships are hypothesized to be major drivers behind the evolution of cognitive abilities, such as attention, learning, and inhibitory control. Traditionally, the evolution of cognitive abilities in non-human animals is investigated via a comparative approach, testing cognitive performance in different species, varying in their ecology or social organisation. From these results, researchers can infer when in evolutionary history particular cognitive processes have evolved and under which ecological and social circumstances. In most cases, specific model organisms, e.g. primates, corvids, parrots, rats, pigeons are very much in focus, whereas other species are often ignored.
This project aims to investigate how social relationships shape cognitive abilities, e.g. delay of gratification, learning, in group living animals, with a specific focus on previously understudied species, e.g. birds of prey, chicken. Further, comparative studies regarding the evolution of socio-cognitive skills have also generated conflicting results. The proposed project aims at incorporating an intraspecific approach, investigating how individual variation in cognitive performance correlates with an individual’s ability to form and maintain social relationships.
The proposed project will use standardized cognitive tests, e.g. delay maintenance, reversal learning, to assess cognitive performance in different species and multiple individuals, with a special focus on repeatability in cognitive performance. The candidate will make significant advances in the field of comparative cognition.
Where you'll study
Funding
This project is self-funded. Details of studentships for which funding is available are selected by a competitive process and are advertised on our jobs website as they become available.
Next steps
If you wish to be considered for this project, you will need to apply for our Biology PhD. In the section of the application form entitled 'Outline research proposal', please quote the above title and include a research proposal.
Research Group
Behavioural Ecology Research Group (BEEC)
Proposed supervisory team
Theme
Evolution, Anatomy, Geometric Morphometrics, Communication, Language
Summary of the research project
Spoken language is one of the most distinctive characteristics of our species. Yet, our understanding of the evolution of this quintessentially human trait is far from complete. The dominant approach for the last few decades has been the search for fossil evidence of variation in vocal anatomy. However, most anatomical traits associated with speech are soft tissues, which do not fossilise, making it very difficult to establish when speech first evolved. This line of enquiry has diverted attention away from alternative questions that are equally interesting and more accessible empirically. In particular, it is probably more important to ask how and why specific anatomical changes for human speech took place. These questions can be addressed by applying the “comparative model” – using data from living species to shed light on the anatomy and behaviour of extinct species and reconstruct evolutionary scenarios.
Our research focuses on the comparative anatomy of the larynx and hyoid bone (the only bone in the larynx) in mammals. Evidence suggests that there were important shifts in the size and shape of the larynx and hyoid during hominin evolution and there appears to be a correlation between the morphology of the hyoid and the presence and size of air sacs in the larynx. Air sacs are air-filled cavities which are attached to the larynx in many primates, including all non-human apes, but, intriguingly, are absent in modern humans. They are thought to play a role in loud calls and are probably not necessary for the type of quiet vocal interaction that typifies human conversation. This suggests that the evolution of the modern human hyoid is associated with the loss of air sacs and, by extension, of loud calls. Hyoids are possible to find in museum collections, and their size and shape is easy to quantify using geometric morphometric methods. Larynges are much harder to source, as soft tissues are much rarer in collections. However, over the last three years we have worked closely with collaborators in Austria and Japan to build and scan a large collection of larynges. Thus, we are uniquely positioned to carry out research into this topic.
This project would analyse the size and shape of the larynx in one or more mammalian orders to model the evolutionary process. Laboratory and desk-based approaches would be necessary, potentially including CT scanning, geometric morphometrics, analysis of histological data and phylogenetic comparative methods. However, the exact nature of the project would be open for discussion and development with the candidate – in line with their skills and interests. Interested candidates should contact Dr Jacob Dunn to discuss project ideas. Please note that this is currently a self-funded project.
Where you'll study
Funding
This project is self-funded. Details of studentships for which funding is available are selected by a competitive process and are advertised on our jobs website as they become available.
Next steps
If you wish to be considered for this project, you will need to apply for our Biology PhD. In the section of the application form entitled 'Outline research proposal', please quote the above title and include a research proposal.
Research Group
Behavioural Ecology Research Group (BEEC)
Proposed supervisory team
Theme
Animal Communication
Summary of the research project
Vocal communication is fundamental to primate social behaviour. However, vocalisations vary extremely widely among primate taxa in terms of both acoustic parameters (e.g., call frequency) and the range of vocalisations different species produce (i.e., vocal repertoire). This project aims to develop a new framework to investigate the evolution of primate communication systems using interdisciplinary methods. Research will focus on two model taxa, howler monkeys (Alouatta) and colobine monkeys (Colobinae).
The project aims to: 1) describe the full variation in vocal anatomy among the study species; 2) describe the range of vocalisations produced by each species using bioacoustics methods; and 3) carry out playback experiments on selected species to understand the behavioural function of vocal signals.
The candidate will make significant advances in theoretical aspects of the evolution of animal signals, integrating statistical, field and laboratory analyses. This covers a range of expertise, including: spatial analyses, phylogenetic comparative methods, bioacoustics and anatomy/morphometrics.
Where you'll study
Funding
This project is self-funded. Details of studentships for which funding is available are selected by a competitive process and are advertised on our jobs website as they become available.
Next steps
If you wish to be considered for this project, you will need to apply for our Biology PhD. In the section of the application form entitled 'Outline research proposal', please quote the above title and include a research proposal.
Research Group
Applied Ecology Research Group (AERG)
Proposed supervisory team
Several other members of Biology staff with interest in this subject area could be part of the team e.g., Dr Peter Brown and Dr Sarah Hart.
Theme
Global Change Ecology
Summary of the research project
The National Pollinator Strategy was published by the UK Government in Nov 2014, in recognition of the important economic and biological role of pollinators (Defra, 2014). Broadly speaking, its aims are to increase public awareness and scientific knowledge of UK pollinators and to take action that will reverse recent declines in their populations. One particular focus of the strategy is to modify habitat management in both urban and rural areas, to provide better foraging and nesting resources for bees and other pollinators. However the insects that act as pollinators are only part of the wider invertebrate community. There are very many other species, with different ecological roles, including those that form the vitally important ecosystem services of decomposition and pest control. This project would set out to investigate the effects of implementing the National Pollinator Strategy on theses non-target invertebrates, and in particular focus on the ecosystem services they provide. It is likely that this national strategy is beneficial to wider groups but this ought to be measured, rather than assumed. Working with landowners and managers that are implementing pollinator friendly management, the biodiversity of other invertebrates will be measured. Experiments will be set out that test rates of decomposition and natural enemy (predation and parasitism) activity. The overall aim of the project would be to use the findings to provide feedback to the National Pollinator Strategy and if necessary to provide recommendations to modification of management practice to maintain support to for other invertebrates while maintaining its positive focus on pollinators.
Where you'll study
Funding
This project is self-funded. Details of studentships for which funding is available are selected by a competitive process and are advertised on our jobs website as they become available.
Next steps
If you wish to be considered for this project, you will need to apply for our Biology PhD. In the section of the application form entitled 'Outline research proposal', please quote the above title and include a research proposal.