FUSE Internships 2024
In the summer of 2024, the Faraday Undergraduate Summer Experience (FUSE) internship programme is providing 55 internships for undergraduate students to undertake paid-eight week placements with battery researchers from partner organisations.
Goals of the internships are:
• Provide opportunity to gain research experience
• To inspire young people to pursue careers in the fields of battery technology and energy storage
• To diversify the pool of talent
• To increase participants’ knowledge, skills and aspirations
• Give contact with positive role models
Participating institutions construct project research topics that connect to the Faraday Institution research projects and select interns on a competitive basis from a diverse pool of applicants. Working alongside a supervisor, students have access to other research scientists. Interns are invited to join cohort video calls on a range of topics. At the end of the summer, and with the assistance of their supervisor, each intern prepares a poster detailing their scientific research project.
A number of FUSE interns have successfully gone on to undertake a PhD in battery research or work in the battery sector. Read Siddhi Barhanpurkar’s Faraday Pathway career journey, and a blog post highlighting the success of the 2023 FUSE programme.
Eligibility
Applicants must:
• Be registered full-time undergraduate student from a UK university.
• Undertake the internship within the years of their undergraduate study (i.e., not in final year or during a subsequent Masters’ programme).
• Not have been a FUSE intern in a previous year
Application processes vary by university.
Topics
Internships are in-person unless indicated below.
Project Title | Supervisor(s) | Host organisation | Application status | |
---|---|---|---|---|
CATMAT | ||||
1 | Synthesis of manganese-based disordered rock-salt phases via low temperature routes | Peter Slater and Wilgner Lima da Silva | University of Birmingham | Open |
2 | Towards preventing degradation in next-generation lithium-rich cathode materials | Dominic Spencer-Jolly and Emma Kendrick | University of Birmingham | Closed |
3 | Understanding cracking behaviour in next generation battery materials | Rhodri Jervis | University College London | Open |
4 | High energy density lithium-rich spinel cathodes | Robert House | University of Oxford | Open |
5 | Understanding mechanochemical processes for new electrode production | Peter Slater and Adam Michalchuk | University of Birmingham | Open |
Degradation project | ||||
6 | Machine learning molecular dynamics for battery materials | Ioan-Bogdan Magdau | Newcastle University | Closed |
7 | Operando Raman investigation of battery degradation | Michael De Volder | University of Cambridge | Topic announced |
8 | Best of both worlds: mixed LFP/NMC battery and electrochemical optimisation | Galo J. Paez Fajardo | University of Warwick | Closed |
9 | Performance and aging evaluation of Li-ion batteries with novel formulations | Debashis Tripathy | University of Cambridge | Closed |
10 | Investigating degradation in olivine cathodes for lithium-ion batteries | Hrishit Banerjee | University of Cambridge (hybrid working) | Closed |
11 | Dielectric constant determination of battery electrolytes using electrochemical impedance spectroscopy | Svetlana Menkin | University of Cambridge | Closed |
FutureCat | ||||
12 | Investigation of high-entropy metal oxide electrodes by pair distribution function analysis | Xiao Hua and Hekang Zhu | Lancaster University | Closed |
13 | Traceless delivery of singlet oxygen for assessing electrolyte degradation | Lee Johnson and Kieran Jones | University of Nottingham | Closed |
LiSTAR | ||||
14 | Moving towards carbon fibres based lithium metal pouch cells | Magdalena Titirici and Samantha Southern | Imperial College London | Closed |
15 | Exploring TAP900@Fe single atom catalysts for enhanced lithium-sulfur battery performance | Magdalena Titirici and Mengjun Gong | Imperial College London | Closed |
16 | Voltammetric studies of sulfur redox reactions | Darren Walsh | University of Nottingham | Open |
17 | Solvation and transport in electrolytes for Li-S batteries | Mauro Pasta, Ben Jagger and Camilla Di Mino | University of Oxford | Closed |
Multi-scale Modelling | ||||
18 | Building fast electro-thermal models with heat-flow simulations on a spiral domain | Mark Blythe | University of Bristol (hybrid working) | Closed |
19 | Modelling electrode coating with PyBaMM | Ferran Brosa Planella and Masoud Jabbari | University of Warwick (hybrid working) | Open |
20 | Particle velocimetry for transference numbers | Charles Monroe | University of Oxford | Topic announced |
21 | Pattern recognition in drive cycles to approximate equivalent current-rate cycles | Gregory Offer and Derek Siu | Imperial College London | Open |
22 | Characterising the effects of pressure distribution on parallel-connected lithium-ion batteries | Monica Marinescu | Imperial College London | Open |
23 | Heat generation mapping of a range of cells | Carlos Garcia | Imperial College London | Open |
24 | Optimising coin cell manufacture and harvesting electrode materials | Gregory Offer and Derek Siu | Imperial College London | Open |
25 | Quantifying battery degradation through post-mortem imaging and virtual reconstruction | Gregory Offer and Derek Siu | Imperial College London | Open |
NEXGENNA | ||||
26 | Battery scale-up facility for capability demonstration and prototyping | John Irvine | University of St Andrews | Open |
27 | Automating battery data outputs | John Irvine | University of St Andrews | Open |
Nextrode | ||||
28 | Preparation of stable water-based inks for high Ni content cathodes | Peter Slater and Tomislav Friscic | University of Birmingham | Open |
29 | Low temperature processing of solid state electrolytes | Peter Slater and Josh Makepeace | University of Birmingham | Open |
30 | Low cost mechanochemical approaches to battery materials | Peter Slater and Tomislav Friscic | University of Birmingham | Open |
ReLiB | ||||
31 | Advancing sustainability: recycling and manufacturing lithium-rich cathodes from high-power lithium-ion battery materials | Peter Slater and Bo Dong | University of Birmingham | Closed |
32 | Reduction and recovery of cathode active material from end of life batteries | Dan Reed | University of Birmingham | Closed |
33 | Electro-spun graphitic carbon fibres for anodes | Gerard Fernando | University of Birmingham | Closed |
34 | Development of characterisation of end of life batterie electrodes for automated sorting | Dan Reed | University of Birmingham | Closed |
SafeBatt | ||||
35 | CATION PaD (Current and Temperature Influence on Nucleation Propagation and Dendrite Growth) | Mel Loveridge | University of Warwick | Open |
36 | Database for fire modelling of Li-ion batteries | Francesco Restuccia | King's College London | Closed |
37 | A quantitative risk assessment of Li-ion battery failure | Solomon Brown | University of Sheffield | Topic announced |
38 | Developing an internal short circuit model for implementation into existing Li-ion thermal runaway models | Solomon Brown | University of Sheffield | Topic announced |
39 & 40 | 3D visualisation and spatial distribution analysis of gases released during lithium-ion battery thermal runaway (2 positions) | Wojciech Mrozik | Newcastle University | Topic announced |
41 | Exploring the application of acoustic techniques to improve battery safety | James Robinson and Arthur Fordham | University College London | Open |
SOLBAT | ||||
42 | Single ion sodium-conducting polymers for enhanced solid-state battery performance | Georgina Gregory | University of Oxford | Topic announced |
43 | Achieving high current densities with sulfide solid state batteries | Mauro Pasta and Jack Aspinall | University of Oxford | Closed |
44 | Titration of lithium metal to study SEI formation | Mauro Pasta and Matthew Burton | University of Oxford | Closed |
45 | Investigating the extent of solid electrolyte interphase growth in sulfide solid-electrolytes | Gregory Rees | University of Oxford | Open |
Other Projects | ||||
46 | Designing low-resistance jigs to improve cell testing quality and charging performance | Harris Medwell | Breathe Battery Technologies - London | Open |
47 | Developing software to test automotive battery management systems | Dimitrios Panagiotopoulos | Breathe Battery Technologies - London | Topic announced |
48 | Battery fast charging | Tom Heenan | Gaussion - London | Open |
49 | Battery fast charging for cylindrical cells | Tom Heenan | Gaussion - London | Open |
50 | Battery fast charging for prismatic cells | Tom Heenan | Gaussion - London | Open |
51 | Charge photometric activity correlations in commercial battery electrodes | Elena Pascal | Illumion - Cambridge | Open |
52 | Bringing physics-based models to industry through improved Battery Parameter eXchange support in PyBaMM | Robert Timms | Ion-Works (remote working) | Open |
53 | ReSTOR: Exploring reconditioning methods for lithium polysulfide flow batteries | Edward Brightman | University of Strathclyde | Open |
54 | Soluble lead flow battery: system control and monitoring | Richard Wills | Univeristy of Southampton | Open |
55 | Characterisation of high power anode materials | Peter Slater and Lizzie Driscoll | University of Birmingham | Open |
Additionally there are four summer internships available at the Faraday Institution Head Quarters (FIHQ) in Harwell. Note these are separate to the FUSE internship programme. Find out more.