{"id":"00970908","next":"","publications":{"selected_publication":[],"favourites":[],"journal_article":[{"html":"

Byrd EJ; Rowlinson B; Crossley JA; Brockwell DJ; Ross JF; Radford SE; Sobott F<\/span> (2025)<\/span> Zn2+ Binding Shifts the Conformational Ensemble of \u03b1-Synuclein Monomers toward Accelerated Amyloid Formation<\/span>. J Am Chem Soc<\/span>, 147<\/span>, (40)<\/span>, pp. 36464-36477<\/span>. <\/a> <\/a><\/p>","publicationid":"1107563","date":"2025-10-08","publicationtype":"Journal article","isfavourite":"0"},{"html":"

Saltor N\u00fa\u00f1ez L; Kumar V; Ross JF; Dolan JP; Srimasorn S; Zhang X; Richter RP; Turnbull WB<\/span> (2025)<\/span> Molecularly Defined Glycocalyx Models Reveal AB5 Toxins Recognize Their Target Glycans Superselectively<\/span>. JACS Au<\/span>, 5<\/span>, (6)<\/span>, pp. 2699-2712<\/span>. <\/a> <\/a><\/p>","publicationid":"1034569","date":"2025-06-23","publicationtype":"Journal article","isfavourite":"0"},{"html":"

Zacharopoulou M; Seetaloo N; Ross J; Stephens AD; Fusco G; McCoy TM; Dai W; Mela I; Fernandez-Villegas A; Martel A; Routh AF; De Simone A; Phillips JJ; Kaminski Schierle GS<\/span> (2025)<\/span> Local Ionic Conditions Modulate the Aggregation Propensity and Influence the Structural Polymorphism of \u03b1-Synuclein<\/span>. J Am Chem Soc<\/span>, 147<\/span>, (16)<\/span>, pp. 13131-13145<\/span>. <\/a> <\/a><\/p>","publicationid":"1020685","date":"2025-04-23","publicationtype":"Journal article","isfavourite":"0"},{"html":"

Machin DC; Williamson DJ; Fisher P; Miller VJ; Arnott ZLP; Stevenson CME; Wildsmith GC; Ross JF; Wasson CW; Macdonald A; Andrews BI; Ungar D; Turnbull WB; Webb ME<\/span> (2024)<\/span> Sortase-Modified Cholera Toxoids Show Specific Golgi Localization<\/span>. Toxins (Basel)<\/span>, 16<\/span>, (4)<\/span>, pp. 194<\/span>. <\/a> <\/a><\/p>","publicationid":"655745","date":"2024-04-16","publicationtype":"Journal article","isfavourite":"0"},{"html":"

Au CW; Manfield I; Webb ME; Paci E; Turnbull WB; Ross JF<\/span> (2024)<\/span> The Mutagenic Plasticity of the Cholera Toxin B-Subunit Surface Residues: Stability and Affinity<\/span>. Toxins (Basel)<\/span>, 16<\/span>, (3)<\/span>, pp. 133<\/span>. <\/a> <\/a><\/p>","publicationid":"647014","date":"2024-03-04","publicationtype":"Journal article","isfavourite":"0"},{"html":"

Wehrum S; Siukstaite L; Williamson DJ; Branson TR; Sych T; Madl J; Wildsmith GC; Dai W; Kempmann E; Ross JF; Thomsen M; Webb ME; R\u00f6mer W; Turnbull WB<\/span> (2022)<\/span> Membrane Fusion Mediated by Non-covalent Binding of Re-engineered Cholera Toxin Assemblies to Glycolipids<\/span>. ACS Synth Biol<\/span>, 11<\/span>, (12)<\/span>, pp. 3929-3938<\/span>. <\/a> <\/a><\/p>","publicationid":"597084","date":"2022-12-16","publicationtype":"Journal article","isfavourite":"0"},{"html":"

Galloway JM; Bray HEV; Shoemark DK; Hodgson LR; Coombs J; Mantell JM; Rose RS; Ross JF; Morris C; Harniman RL; Wood CW; Arthur C; Verkade P; Woolfson DN<\/span> (2021)<\/span> De Novo Designed Peptide and Protein Hairpins Self-Assemble into Sheets and Nanoparticles<\/span>. Small<\/span>, 17<\/span>, (10)<\/span>, pp. e2100472<\/span>. <\/a> <\/a><\/p>","publicationid":"551750","date":"2021-03-01","publicationtype":"Journal article","isfavourite":"0"},{"html":"

Ross JF; Wildsmith GC; Johnson M; Hurdiss DL; Hollingsworth K; Thompson RF; Mosayebi M; Trinh CH; Paci E; Pearson AR; Webb ME; Turnbull WB<\/span> (2019)<\/span> Directed Assembly of Homopentameric Cholera Toxin B-Subunit Proteins into Higher-Order Structures Using Coiled-Coil Appendages<\/span>. J Am Chem Soc<\/span>, 141<\/span>, (13)<\/span>, pp. 5211-5219<\/span>. <\/a> <\/a><\/p>","publicationid":"493391","date":"2019-04-03","publicationtype":"Journal article","isfavourite":"0"},{"html":"

Shoemark DK; Avila Ibarra A; Ross JF; Beesley JL; Bray HEV; Mosayebi M; Linden N; Liverpool TB; McIntosh-Smith SN; Woolfson DN; Sessions RB<\/span> (2018)<\/span> The dynamical interplay between a megadalton peptide nanocage and solutes probed by microsecond atomistic MD; implications for design<\/span>. Phys Chem Chem Phys<\/span>, 21<\/span>, (1)<\/span>, pp. 137-147<\/span>. <\/a><\/p>","publicationid":"572091","date":"2018-12-19","publicationtype":"Journal article","isfavourite":"0"},{"html":"

Ross JF; Bridges A; Fletcher JM; Shoemark D; Alibhai D; Bray HEV; Beesley JL; Dawson WM; Hodgson LR; Mantell J; Verkade P; Edge CM; Sessions RB; Tew D; Woolfson DN<\/span> (2017)<\/span> Decorating Self-Assembled Peptide Cages with Proteins<\/span>. ACS Nano<\/span>, 11<\/span>, (8)<\/span>, pp. 7901-7914<\/span>. <\/a><\/p>","publicationid":"572092","date":"2017-08-22","publicationtype":"Journal article","isfavourite":"0"},{"html":"

O'Sullivan D; Murray BJ; Ross JF; Webb ME<\/span> (2016)<\/span> The adsorption of fungal ice-nucleating proteins on mineral dusts: A terrestrial reservoir of atmospheric ice-nucleating particles<\/span>. Atmospheric Chemistry and Physics<\/span>, 16<\/span>, (12)<\/span>, pp. 7879-7887<\/span>. <\/a> <\/a><\/p>","publicationid":"360551","date":"2016-06-29","publicationtype":"Journal article","isfavourite":"0"},{"html":"

O'Sullivan D; Murray BJ; Ross J; Webb ME<\/span> (2016)<\/span> The adsorption of fungal ice-nucleating proteins on mineral dusts: A terrestrial reservoir of atmospheric ice-nucleating particles<\/span>. Atmospheric Chemistry and Physics Discussions<\/span>, 2016<\/span>. <\/a><\/p>","publicationid":"462706","date":"2016-01-18","publicationtype":"Journal article","isfavourite":"0"},{"html":"

Hickman SJ; Ross JF; Paci E<\/span> (2015)<\/span> Prediction of stability changes upon mutation in an icosahedral capsid<\/span>. Proteins<\/span>, 83<\/span>, (9)<\/span>, pp. 1733-1741<\/span>. <\/a> <\/a><\/p>","publicationid":"329757","date":"2015-09-01","publicationtype":"Journal article","isfavourite":"0"},{"html":"

O'Sullivan D; Murray BJ; Ross JF; Whale TF; Price HC; Atkinson JD; Umo NS; Webb ME<\/span> (2015)<\/span> The relevance of nanoscale biological fragments for ice nucleation in clouds<\/span>. Sci Rep<\/span>, 5<\/span>, (1)<\/span>, pp. 8082<\/span>. <\/a> <\/a><\/p>","publicationid":"310705","date":"2015-01-28","publicationtype":"Journal article","isfavourite":"0"},{"html":"

Branson TR; McAllister TE; Garcia\u2010Hartjes J; Fascione MA; Ross JF; Warriner SL; Wennekes T; Zuilhof H; Turnbull WB<\/span> (2014)<\/span> Inside Cover: A Protein\u2010Based Pentavalent Inhibitor of the Cholera Toxin B\u2010Subunit (Angew. Chem. Int. Ed. 32\/2014)<\/span>. Angewandte Chemie International Edition<\/span>, 53<\/span>, (32)<\/span>, pp. 8254<\/span>. <\/a><\/p>","publicationid":"707282","date":"2014-08-04","publicationtype":"Journal article","isfavourite":"0"},{"html":"

Branson TR; McAllister TE; Garcia\u2010Hartjes J; Fascione MA; Ross JF; Warriner SL; Wennekes T; Zuilhof H; Turnbull WB<\/span> (2014)<\/span> Innentitelbild: A Protein\u2010Based Pentavalent Inhibitor of the Cholera Toxin B\u2010Subunit (Angew. Chem. 32\/2014)<\/span>. Angewandte Chemie<\/span>, 126<\/span>, (32)<\/span>, pp. 8394<\/span>. <\/a><\/p>","publicationid":"379305","date":"2014-08-04","publicationtype":"Journal article","isfavourite":"0"},{"html":"

Branson TR; McAllister TE; Garcia\u2010Hartjes J; Fascione MA; Ross JF; Warriner SL; Wennekes T; Zuilhof H; Turnbull WB<\/span> (2014)<\/span> A Protein\u2010Based Pentavalent Inhibitor of the Cholera Toxin B\u2010Subunit<\/span>. Angewandte Chemie<\/span>, 126<\/span>, (32)<\/span>, pp. 8463-8467<\/span>. <\/a><\/p>","publicationid":"379304","date":"2014-08-04","publicationtype":"Journal article","isfavourite":"0"},{"html":"

Branson TR; McAllister TE; Garcia-Hartjes J; Fascione MA; Ross JF; Warriner SL; Wennekes T; Zuilhof H; Turnbull WB<\/span> (2014)<\/span> A protein-based pentavalent inhibitor of the cholera toxin B-subunit<\/span>. Angew Chem Int Ed Engl<\/span>, 53<\/span>, (32)<\/span>, pp. 8323-8327<\/span>. <\/a> <\/a><\/p>","publicationid":"292158","date":"2014-08-04","publicationtype":"Journal article","isfavourite":"0"},{"html":"

Mandal PK; Branson TR; Hayes ED; Ross JF; Gav\u00edn JA; Daranas AH; Turnbull WB<\/span> (2012)<\/span> Towards a Structural Basis for the Relationship Between Blood Group and the Severity of El Tor Cholera<\/span>. Angewandte Chemie<\/span>, 124<\/span>, (21)<\/span>, pp. 5233-5236<\/span>. <\/a> <\/a><\/p>","publicationid":"1072889","date":"2012-05-21","publicationtype":"Journal article","isfavourite":"0"},{"html":"

Mandal PK; Branson TR; Hayes ED; Ross JF; Gav\u00edn JA; Daranas AH; Turnbull WB<\/span> (2012)<\/span> Towards a structural basis for the relationship between blood group and the severity of El Tor cholera<\/span>. Angew Chem Int Ed Engl<\/span>, 51<\/span>, (21)<\/span>, pp. 5143-5146<\/span>. <\/a> <\/a><\/p>","publicationid":"209276","date":"2012-05-21","publicationtype":"Journal article","isfavourite":"0"}],"conference_paper":[{"html":"

Reina F; Ross J; Howarth M; Eggeling C; Lagerholm BC<\/span> (2019)<\/span> Localization Error and Fitting Model Evaluation in Single Particle Tracking<\/span>. BIOPHYSICAL JOURNAL<\/span>, pp. 282A<\/span>. <\/a><\/p>","publicationid":"587367","date":"2019-01-01","publicationtype":"Conference paper","isfavourite":"0"}],"presentation_conference_workshop_etc_":[],"book":[],"chapter":[],"conference_abstract":[],"preprint":[{"html":"

Saltor N\u00fa\u00f1ez L; Kumar V; Ross JF; Dolan JP; Srimasorn S; Zhang X; Richter RP; Turnbull WB<\/span> (2025)<\/span> Molecularly defined glycocalyx models reveal AB5 toxins recognize their target glycans superselectively<\/span>. American Chemical Society (ACS)<\/span>. <\/a><\/p>","publicationid":"998261","date":"2025-03-19","publicationtype":"Preprint","isfavourite":"0"},{"html":"

Amsbury S; Marcus SE; Yeshvekar R; Barber J; German L; Ross JF; Lelenaite I; de Souza Moraes T; Wickramanayake J; Klebanovych A; Czymmek K; Burch-Smith TM; Bayer EM; Willats W; Manfield IW; Knox P; Benitez-Alfonso Y<\/span> (2024)<\/span> Structurally diverse calloses\/\u03b2-1,3-glucans in plant cell wall microdomains<\/span>. openRxiv<\/span>. <\/a><\/p>","publicationid":"783444","date":"2024-07-05","publicationtype":"Preprint","isfavourite":"0"},{"html":"

Wehrum S; Williamson DJ; Siukstaite L; Branson TR; Sych T; Madl J; Wildsmith GC; Dai W; Ross JF; Thomsen M; Webb ME; R\u00f6mer W; Turnbull WB<\/span> (2021)<\/span> Membrane fusion mediated by non-covalent binding of re-engineered cholera toxin assemblies to glycolipids<\/span>. Cambridge University Press (CUP)<\/span>. <\/a><\/p>","publicationid":"831743","date":"2021-07-16","publicationtype":"Preprint","isfavourite":"0"},{"html":"

Wehrum S; Williamson DJ; Siukstaite L; Branson TR; Sych T; Madl J; Wildsmith GC; Dai W; Ross JF; Thomsen M; Webb ME; R\u00f6mer W; Turnbull WB<\/span> (2021)<\/span> Membrane fusion mediated by non-covalent binding of re-engineered cholera toxin assemblies to glycolipids<\/span>. American Chemical Society (ACS)<\/span>. <\/a><\/p>","publicationid":"632741","date":"2021-07-16","publicationtype":"Preprint","isfavourite":"0"},{"html":"

Galloway J; Bray HEV; Shoemark DK; Hodgson LR; Coombs J; Mantell JM; Rose RS; Ross JF; Morris C; Harniman RL; Wood CW; Arthur C; Verkade P; Woolfson DN<\/span> (2020)<\/span> De Novo Designed Peptide and Protein Hairpins that Self-assemble into Sheets and Nanoparticles<\/span>. <\/a> <\/a><\/p>","publicationid":"551748","date":"2020-08-16","publicationtype":"Preprint","isfavourite":"0"},{"html":"

Galloway J; Bray H; Shoemark D; Hodgson L; Coombs J; Mantell J; Rose R; Ross J; Morris C; Harniman R; Wood C; Arthur C; Verkade P; Woolfson D<\/span> (2020)<\/span> De Novo<\/i>Designed Peptide and Protein Hairpins Self-assemble into Sheets and Nanoparticles<\/span>. bioRxiv<\/span>. <\/a><\/p>","publicationid":"538214","date":"2020-01-01","publicationtype":"Preprint","isfavourite":"0"},{"html":"

Machin D; Williamson D; Fisher P; miller V; Wildsmith G; Ross J; Wasson C; MacDonald A; Andrews B; Ungar D; Turnbull B; Webb M<\/span> (2019)<\/span> Sortase-Modified Cholera Toxoids Show Specific Golgi Localization<\/span>. ChemRxiv<\/span>. <\/a><\/p>","publicationid":"572222","date":"2019-01-01","publicationtype":"Preprint","isfavourite":"0"}],"report":[],"internet_publication":[],"performance":[],"composition":[],"exhibition":[],"poster":[],"artefact":[],"design":[],"patent":[],"scholarly_edition":[],"software_code":[],"thesis_dissertation":[],"other":[{"html":"

Paci E; Ross JF<\/span> (2021)<\/span> Computational methods to predict the mutational landscape of the spike protein<\/span>. United States<\/span>, 120<\/span>, (14)<\/span>. <\/a><\/p>","publicationid":"562724","date":"2021-07-20","publicationtype":"Other","isfavourite":"0"}],"dataset":[],"media":[],"working_paper":[]}}