Adam Wheatley

Dr. Adam Wheatley

Department of Microbiology and Immunology, University of Melbourne, Melbourne, Australia

Research Focus & Metrics

Academic Career Length

18Years (2009-Present)

(Calculated once Scilit publication data is synced: current year − year of first publication + 1)

Representative Publications

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17 May 2021 in Nature Medicine
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Journal Article
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DKDavid S. Khoury
David S. Khoury
DCDeborah Cromer
Deborah Cromer
ARArnold Reynaldi
Arnold Reynaldi
TSTimothy E. Schlub
Timothy E. Schlub
Adam WheatleyAdam Wheatley
Adam Wheatley
MDMiles P. Davenport
Miles P. Davenport

9 September 2020 in Nature Microbiology
Verified
Journal Article
Closed access
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WLWen Shi Lee
Wen Shi Lee
Adam WheatleyAdam Wheatley
Adam Wheatley
SKStephen J. Kent
Stephen J. Kent
BDBrandon J DeKosky
Brandon J DeKosky

7 February 2020 in Science
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Journal Article
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MRMarc Rigau
Marc Rigau
SOSimone Ostrouska
Simone Ostrouska
TFThomas S. Fulford
Thomas S. Fulford
DJDarryl N. Johnson
Darryl N. Johnson
KWKatherine Woods
Katherine Woods
AUAdam P. Uldrich
Adam P. Uldrich
A weird way to recognize phosphoantigens: In contrast to the well-studied αβ T cells, which recognize peptide antigens presented by major histocompatibility complex (MHC) and MHC-like molecules, how γδ T cells recognize antigens remains largely a mystery. One major class of γδ T cells, designated Vγ9Vδ2 + , is activated by small, phosphorylated nonpeptide antigens, or phosphoantigens, produced by microbes and cancer cells. Rigau et al. found that these cells needed the combination of two immunoglobulin superfamily members, butyrophilin 2A1 (BTN2A1) and BTN3A1, on their cell surface to recognize these phosphoantigens. BTN2A1 directly binds the Vγ9 + domain of the T cell receptor (TCR), whereas a second ligand, potentially BTN3A1, binds the Vδ2 and γ-chain regions on the opposite side of the TCR. A better understanding of this unexpected form of T cell antigen recognition should inform and enhance future γδ T cell–mediated immunotherapies. Science , this issue p. eaay5516

13 July 2020 in Nature Medicine
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Journal Article
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JJJennifer Juno
Jennifer Juno
HTHyon-Xhi Tan
Hyon-Xhi Tan
WLWen Shi Lee
Wen Shi Lee
ARArnold Reynaldi
Arnold Reynaldi
HKHannah G. Kelly
Hannah G. Kelly
Adam WheatleyAdam Wheatley
Adam Wheatley

1 July 2016 in Cell
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Journal Article
Closed access
MJM. Gordon Joyce
M. Gordon Joyce
Adam WheatleyAdam Wheatley
Adam Wheatley
PTPaul V. Thomas
Paul V. Thomas
GCGwo-Yu Chuang
Gwo-Yu Chuang
CSCinque Soto
Cinque Soto
AMAdrian B. McDermott
Adrian B. McDermott

19 February 2021 in Nature Communications
Verified
Journal Article
Open access
PDF file
Adam WheatleyAdam Wheatley
Adam Wheatley
JJJennifer Juno
Jennifer Juno
JWJing J. Wang
Jing J. Wang
KSKevin J. Selva
Kevin J. Selva
ARArnold Reynaldi
Arnold Reynaldi
SKStephen J. Kent
Stephen J. Kent
The durability of infection-induced SARS-CoV-2 immunity has major implications for reinfection and vaccine development. Here, we show a comprehensive profile of antibody, B cell and T cell dynamics over time in a cohort of patients who have recovered from mild-moderate COVID-19. Binding and neutralising antibody responses, together with individual serum clonotypes, decay over the first 4 months post-infection. A similar decline in Spike-specific CD4+ and circulating T follicular helper frequencies occurs. By contrast, S-specific IgG+ memory B cells consistently accumulate over time, eventually comprising a substantial fraction of circulating the memory B cell pool. Modelling of the concomitant immune kinetics predicts maintenance of serological neutralising activity above a titre of 1:40 in 50% of convalescent participants to 74 days, although there is probably additive protection from B cell and T cell immunity. This study indicates that SARS-CoV-2 immunity after infection might be transiently protective at a population level. Therefore, SARS-CoV-2 vaccines might require greater immunogenicity and durability than natural infection to drive long-term protection.