Professor Andrew Lovering

School of Biosciences
Professor of Structural Biology

Contact details

Telephone: +44 (0)121 41 45419
Email: a.lovering@bham.ac.uk

Address: 704, School of Biosciences
The University 麻豆精选
Edgbaston
Birmingham
B15 2TT
United Kingdom

Andrew Lovering is a Professor of Structural Biology here at Birmingham, and his research interests involve utilising structural biology (and complementary techniques) to investigate protein function – many of these projects involve the unusual predatory bacterium Bdellovibrio; see “Research” tab and be enthused!

Bacterial predators are fascinating organisms that may find general usage as 'living antibacterials'. His lab is chiefly concerned with understanding the tools they use to kill other bacteria and how they regulate the various stages of their unusual lifecycle. Approximately a third of the genome from the model predator Bdellovibrio bacteriovorus encodes for proteins with no discernable homology to those from other (non-predatory) bacteria; this makes structural methods ideal for investigating function. He studies these predatory enzymes and protein complexes in-vitro, collaborating with Liz Sockett’s group in Nottingham to tie function in with in-vivo context.

The figure below demonstrates the staged lifecycle of Bdellovibrio, annotated with a select few of the structures he has solved.

The predator Bdellovibrio entering and killing fellow bacteria from the inside, several of its proteins are displaying demonstrating specialization

He takes on a variety of projects, but typical areas include:

Invasion – how are prey cells recognized, and how do predators breach the outer membrane? This is a multifactorial process – no genetic resistance to predation has ever been observed (in contrast to bacteriophages and their receptors, which are subject to a relatively rapid development of resistance).

Protection – what factors prevent Bdellovibrio from killing itself? We published the first such example of a predator self-immunity protein in 2015 (an interesting case of evolution shaping one protein to block two enzymes): Nature Commun. 2015 Dec 2;6:8884.

Signalling – what are the stimuli that govern switching between the different lifecycle stages (swim > recognition > adhere > enter > metabolize > divide > exit)? Some of these pathways utilize the second messenger cyclic-di-GMP (common to many bacteria, but used herein to regulate predation).

Metabolism – predators are very distinct, often losing pathways for amino acid and vitamin biosynthesis, but encoding a massive array of novel proteases, lipases, nucleases and transporters.

Motility – prey density is high in biofilms; predators can exploit this by using a cryptic form of motility (“smooth gliding” – that pushes the cell over surfaces, utilizing a motor that runs on a helical thread around the cell periphery).

Biography

Andrew grew up in Wales (Barry to be precise) and studied for both his undergraduate degree (Biochemistry) and PhD (structural biology of therapeutic enzymes) at the University 麻豆精选, before beginning a 6 and a half year stint in Vancouver Canada. In his postdoctoral years he began to appreciate bacteria and the amazing diversity of mechanisms they utilize. In 2010 he came back to the UK to start his own group looking into how we can utilise a 'living antibiotic', the bacterium Bdellovibrio bacteriovorus, to tackle bacterial pathogens.

Recognition of our work has come from :
(2012) Presented with the ICAAC Young Microbiologist of the Year Award, administered by the American Society for Microbiology.
(2014-2017) Awarded prestigious EMBO Young Investigator status.
(2018-2023) Awarded Wellcome Investigator status.

Teaching

He teaches on several undergraduate and postgraduate modules, including Bio311 (antibiotic resistance component) and Bio305 (cell wall biosynthesis and staphylococcal & streptococcal disease topics).

Postgraduate supervision

UK students can apply via the MIBTP scheme, and non-UK students by the Darwin scheme – both normally take applications at the end of the calendar year for entry the following year, please email Professor Lovering if you have any questions.

Research

Research Theme within School of Biosciences: Molecular Microbiology

X-Ray crystallography and structure: function relationships of bacterial proteins

His laboratory uses X-ray crystallography to study the molecular basis of protein function. They are interested in a variety of bacterial systems - especially those with the potential for antibiotic development. One of these systems involves analysis of the remarkable predatory bacterium Bdellovibrio bacteriovorus (in collaboration with Professor Liz Sockett at Nottingham). Predatory bacteria feed off and eventually kill other bacteria, and thus research into this process has potential therapeutic possibilities. Bdellovibrio is the model predatory organism, and possesses an unusual lifestyle where it enters its prey through the outer membrane and resides in the periplasm. The host cell changes shape (forming a structure termed the "bdelloplast") and the Bdellovibrio cell grows and replicates using material obtained from prey breakdown. Progeny then exit the dead host to start the cycle anew. Host-independent forms of Bdellovibrio may be grown separate from prey in rich media.

They are using X-ray crystallography to study Bdellovibrio proteins with the aim of understanding:

the precise function of proteins involved in predation events
how Bdellovibrio responds to the challenges of intraperiplasmic growth
what specifically regulates the alteration to a host-independent (non-predatory) lifestyle

Many of these proteins are unique to Bdellovibrio, and are thus termed part of the "predatosome". Of course, there is much more to study, not forgetting prey recognition events, membrane entry, bdelloplast formation, host material hydrolysis, predation on biofilms, and signalling/regulation of all of the above!

The laboratory has a number of other collaborations and projects ongoing, both within and external to Birmingham.

Figure 1: Bdellovibrio predation lifecycle

Other activities

We have a general interest in unusual microbes and unusual proteins – outside science Andy enjoys (in no particular order) time with family, Aston Villa, beer, professional wrestling, 80s movies, good grub, true crime documentaries, test cricket, snooker, puzzles and lab gene synthesis sweepstakes.

Publications

Recent publications

Article

Parr, RJ, Santin, YG, Ratkevi膷i奴te, G, Caulton, SG, Radford, P, Gurvi膷, D, Jenkins, M, Doyle, MT, Mead, L, Silale, A, van den Berg, B, Knowles, TJ, Sockett, RE, Stansfeld, PJ, Laloux, G & Lovering, AL 2025, '', Nature Communications, vol. 16, no. 1, 6213.

Alexander, LT, Follonier, OM, Kryshtafovych, A, Abesamis, K, Bibi鈥怲riki, S, Box, HG, Breyton, C, Bringel, F, Carrique, L, d'Acapito, A, Dong, G, DuBois, R, Fass, D, Fiesco, JM, Fox, DR, Grimes, JM, Grinter, R, Jenkins, M, Kamyshinsky, R, Keown, JR, Lackner, G, Lammers, M, Liu, S, Lovering, AL, Malinauskas, T, Masquida, B, Palm, GJ, Siebold, C, Su, T, Zhang, P, Zhou, ZH, Fidelis, K, Topf, M, Moult, J & Schwede, T 2025, '', Proteins: structure, function, and bioinformatics.

Caulton, SG, Lambert, C, Tyson, J, Radford, P, Al-Bayati, A, Greenwood, S, Banks, EJ, Clark, C, Till, R, Pires, E, Sockett, RE & Lovering, A 2024, '', Nature Microbiology, vol. 9, no. 1, pp. 214-227.

Franklin, A, Salgueiro, VC, Layton, AJ, Sullivan, R, Mize, T, V谩zquez-Iniesta, L, Benedict, ST, Gurcha, SS, Anso, I, Besra, GS, Banzhaf, M, Lovering, AL, Williams, SJ, Guerin, ME, Scott, NE, Prados-Rosales, R, Lowe, EC & Moynihan, PJ 2024, '', Nature Communications, vol. 15, no. 1, 5740.

Al-Jourani, O, Benedict, ST, Ross, J, Layton, AJ, van der Peet, P, Marando, VM, Bailey, NP, Heunis, T, Manion, J, Mensitieri, F, Franklin, A, Abellon-Ruiz, J, Oram, SL, Parsons, L, Cartmell, A, Wright, GSA, Basl茅, A, Trost, M, Henrissat, B, Munoz-Munoz, J, Hirt, RP, Kiessling, LL, Lovering, AL, Williams, SJ, Lowe, EC & Moynihan, PJ 2023, '', Nature Communications, vol. 14, no. 1, 2233.

Caulton, SG & Lovering, AL 2023, '', Microbiology, vol. 169, no. 8, 001380.

Alexander, LT, Durairaj, J, Kryshtafovych, A, Abriata, LA, Bayo, Y, Bhabha, G, Breyton, C, Caulton, SG, Chen, J, Degroux, S, Ekiert, DC, Erlandsen, BS, Freddolino, PL, Gilzer, D, Greening, C, Grimes, JM, Grinter, R, Gurusaran, M, Hartmann, MD, Hitchman, CJ, Keown, JR, Kropp, A, Kursula, P, Lovering, AL, Lemaitre, B, Lia, A, Liu, S, Logotheti, M, Lu, S, Mark煤sson, S, Miller, MD, Minasov, G, Niemann, HH, Opazo, F, Phillips, GN, Davies, OR, Rommelaere, S, Rosas鈥怢emus, M, Roversi, P, Satchell, K, Smith, N, Wilson, MA, Wu, KL, Xia, X, Xiao, H, Zhang, W, Zhou, ZH, Fidelis, K, Topf, M, Moult, J & Schwede, T 2023, '', Proteins: structure, function, and bioinformatics.

Banks, EJ, Valdivia-Delgado, M, Biboy, J, Wilson, A, Cadby, IT, Vollmer, W, Lambert, C, Lovering, AL & Sockett, RE 2022, '', Nature Communications, vol. 13, no. 1, 1509.

Harding, C, Cadby, I, Moynihan, P & Lovering, A 2021, '', Nature Communications, vol. 12, no. 1, 1228.

Meek, RW, Cadby, IT & Lovering, AL 2021, '', Open Biology, vol. 11, no. 8, 210098.

Lovering, AL & Sockett, RE 2021, '', Microbiology, vol. 167, no. 4, 001043.

Harding, CJ, Huwiler, SG, Somers, H, Lambert, C, Ray, LJ, Till, R, Taylor, G, Moynihan, PJ, Sockett, RE & Lovering, AL 2020, '', Nature Communications, vol. 11, no. 1, 4817 .

Skotnicka, D, Steinchen, W, Szadkowski, D, Cadby, IT, Lovering, AL, Bange, G & S酶gaard-andersen, L 2020, '', Nature Communications, vol. 11, no. 1, 1791 .

Azmi, L, Bragginton, EC, Cadby, IT, Byron, O, Roe, AJ, Lovering, AL & Gabrielsen, M 2020, '', Acta Crystallographica Section F: Structural Biology Communications, vol. 76, pp. 414-421.

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