At the University of Lincoln, postgraduate students are an integral part of our research community. They work alongside talented academics and researchers from around the world, contributing to our growing reputation for internationally excellent research.
There are opportunites to get involved in exciting research projects by applying for a studentship. The University offers a range of studentships including funded and part-funded opportunities, please refer to the current studentships information below.
The University of Lincoln has launched the world's first Centre for Doctoral Training in Agri-Food Robotics in collaboration with the University of Cambridge and the University of East Anglia. This new advanced training centre in agri-food robotics is creating the largest ever cohort of Robotics and Autonomous Systems (RAS) specialists for the global food and farming sectors, thanks to a multi-million pound funding award the Engineering and Physical Sciences Research Council (EPSRC).
Applications for entry into the CDT programme starting in October 2021 are now closed. Applications for October 2022 entry will open in October 2021.
Use the dropdown menus below to browse current funded and part-funded studentship opportunities at the University of Lincoln, listed by academic College.
The University of Lincoln has received funding from the Engineering and Physical Sciences Research Council (EPSRC) to establish a Doctoral Training Partnership (DTP), which will provide skills and training to foster the next generation of world-class research leaders in areas of strategic importance to both EPSRC and the University of Lincoln.
Our training programme prioritises the following three thematic areas of robotics and artificial intelligence: smart energy, medical diagnosis and healthcare support systems, and bio-physics inspired robotics, in which the University has strong research groups. These research groups will provide DTP students with a rich research environment and a broad range of experienced and new researchers.
Each studentship will be associated with a specific project that will be designed to advance fundamental research in computer science or engineering within one of the thematic areas. Interdisciplinary links with other subject areas will also be expected.
Studentship applications are now open for entry into the DTP programme, starting in October 2021.
Please make sure to check the eligibility criteria before you apply. Normally, a student must have no restrictions on how long they can stay in the UK and have been ordinarily resident in the UK for at least 3 years prior to the start of the studentship. UK students will be eligible for a full studentship, covering the costs of Home fees, a stipend to support living costs for 3.5 years, and a generous research training support grant enabling international travel and participation in the leading conferences and symposia.
Although most DTP students must be UK residents, we also have an opportunity for an international (EU and non-EU) student. The international studentship award will be subject to eligibility, and also the availability of complementary funding (to provide the differential to the international fee rate). You should get in touch with the lead supervisor before applying this award.
Closing date: Sunday 13 June 2021
Nanostructural design of MnO2 cathodes for rechargeable aqueous Zn-ion batteries
Academic contact: Dr Guanjie He (email@example.com), Senior Lecturer, School of Chemistry
This project aims at enhancing the collaboration between MSS Ltd and University of Lincoln, and to work on the mass production of cathode materials for Zn-ion batteries
The UK government has announced a Ten Point Plan for a Green Industrial Revolution in 2020, emphasising the national importance for clean energy research. Offshore wind aims to produce 40 GW electricity by 2030, therefore, the energy storage technologies are essential to accelerating the shift to zero emission vehicles. Zn-ion batteries in aqueous electrolyte are one of the promising candidates for next-generation clean energy suppliers due to their cost-effective and safe properties, but the performance of cathode materials limited their large-scale application.
This project aims to develop low-cost and high-performance MnO2 cathode materials through nano-structural engineering. The mechanism will be studied via the advanced materials characterisation techniques, the battery evaluation in coin cells will be carried out. The mass production of the materials and grid scale battery application will be investigated. This studentship aims at building up long-term collaboration among our industrial partners (MSS Ltd., One electrical Ltd.) and the University of Lincoln. The regular travel (3 to 6 months) between Manchester and Lincoln is expected to enhance the links between the University and the companies.
Students can learn:
The ideal candidate should have, at a minimum, a 2.1 degree in chemistry, materials science, chemical engineering, or a related discipline. They must demonstrate skills and experience (or an aptitude for mastering) of the synthetic chemistry, electrochemistry - especially batteries. They should be academically curious and think deeply and creatively. They should communicate well in both written and spoken English. They should enjoy working with others from diverse backgrounds and take responsibility for the progress and quality of projects
Dr Guanjie He, University of Lincoln
Prof Waqar Ahmed, University of Lincoln
The PhD is jointly funded by the University of Lincoln and the ISIS Neutron and Muon Facility in Oxfordshire.
The synthesis of methanol from CO, CO2 and H2 is an enormous business - 75 million tonnes in 2015. The process uses a Cu/ZnO/Al2O3 (65:25:10) catalyst that was originally developed by ICI in the 1960s and operates in the range 200–300 °C and 10–100 bar. In view of its industrial importance, the catalyst has been extensively studied. There is general agreement that at low temperature the reaction proceeds by hydrogenation of CO2 to formate and then stepwise addition of hydrogen to methanol. At high temperature, CO hydrogenation also becomes important. While the roles of CO2 and CO have been extensively investigated and are well-characterised, the hydrogen component has been much less studied. It is generally believed that hydrogen dissociates on the copper, but adsorbed hydrogen has not been detected. H2 dissociates on ZnO to give hydroxyls and Zn-H species, but only the former have been observed on working catalysts. The aim of this project is a combined experimental and computational study to characterise the hydrogen present on a commercial, working methanol synthesis catalyst.
This project will have a computational aspect to be carried out at the University of Lincoln and an experimental aspect to be carried out at the ISIS Neutron and Muon Facility (Harwell Campus, Oxfordshire). The computational aspect will be to use density functional theory-based quantum chemical simulations to investigate the state of hydrogen on the catalyst. Initial work to provide training in the methodology will be to study the adsorption of hydrogen on the low index faces of copper and on ZnO and the Zn-doped Cu surfaces. Subsequent work will investigate extended systems that include at least two of the three catalyst components on which the detailed reaction mechanism of the methanol conversion from CO2 will be investigated. A range of computational methods will used including lattice dynamics, ab initio molecular dynamics and time-dependent density functional theory.
The experimental work will use a commercial Cu/ZnO/Al2O3 catalyst. Neutron scattering methods will be employed to investigate how the adsorbates and the catalyst change with different reaction conditions and time on stream. The emphasis will be to find and study adsorbed hydrogen, so where appropriate, hydrogen on model systems such as Raney Cu or pure ZnO will also be studied. As part of this work, we will improve our ability to produce samples at a particular point along a reaction coordinate by the implementation of UV-vis spectroscopy on an existing preparation rig designed to produce the large (10-50 g) samples required for neutron scattering studies of catalysts. At a later stage in the project, we will also implement Raman spectroscopy on the same rig. We will also modify an existing system for simultaneous Raman/neutron scattering measurements to enable gas handling experiments. The upgrades to the catalyst preparation rig will be of value to other groups that also use ISIS and some collaboration with these will form part of the project.
Applicants should hold, or expect to receive, an MSc in chemistry or an honours degree in chemistry (first or upper second class honours degree), or the equivalent.
The project will require an extended stay (12-18 months) at the Harwell campus in Oxfordshire.
How to Apply
Formal applications should be made via the University of Lincoln’s online application form.
Closing Date: Saturday 31 July 2021 or until filled.
Start Date: Monday 4 October 2021
This studentship is for a start date in the Academic Year of 2021/22 and covers the full PhD fees for a maximum of 3.5 years full-time study. The candidate will have a stipend/living allowance of £15,609 per annum. Tuition fees are included (for UK fee level).
Suitably qualified candidates worldwide may apply, although International students must self-fund the difference between the International and UK fee rate.
The PhD is jointly funded by the University of Lincoln and the ISIS Neutron and Muon Facility. It includes UK fees and a stipend. Travel and subsistence for meetings and conferences up to £2k per annum is also available.
Duration: 42 months
Research into social cognition in animal and human behaviour was the subject of Anna Frohnweiser's PhD. Anna developed robotic reptiles to investigate the social abilities of bearded dragons. Previous Lincoln research revealed that reptiles are capable of learning how to perform tasks by watching and imitating other animals. Anna followed this work by exploring the specific mechanisms involved in lizards being able to mirror the actions of other animals.
Franky Mulloy’s research focusses on sports biomechanics, specifically on biofeedback and how to give biomechanical information to an athlete to develop performance, and how these changes develop in the long term. Franky has worked with former British para-athlete Kelda Wood to support her to row solo across the Atlantic using motion capture technology to inform the design of a specially adapted footplate in her boat.
Psychology PhD students Sophie and Nadia are working with Professor Martin Tovee on research which focuses on body image in women with anorexia nervosa and body image dysfunction in men. Their studies have included asking participants to take an on-screen test to judge their own body size and weight using cutting-edge software and 3D scanning technology.