Ex vivo modelling of PD-1/PD-L1 immune checkpoint blockade under acute, chronic, and exhaustion-like conditions of T-cell stimulation

Abstract Blockade of PD-1/PD-L1 interactions is proving an exciting, durable therapeutic modality in a range of cancers whereby T cells are released from checkpoint inhibition to revive their inherent anti-tumour activity. Here we have studied various ways to model ex vivo T cell function in order t...

Descripción completa

Guardado en:
Detalles Bibliográficos
Autores principales: Alexander Roberts, Lindsay Bentley, Tina Tang, Fay Stewart, Chiara Pallini, Joel Juvvanapudi, Graham R. Wallace, Alison J. Cooper, Aaron Scott, David Thickett, Sebastian T. Lugg, Hollie Bancroft, Bridget Hemming, Charlotte Ferris, Gerald Langman, Andrew Robinson, Joanne Chapman, Babu Naidu, Thomas Pinkney, Graham S. Taylor, Kristian Brock, Zania Stamataki, Catherine A. Brady, S. John Curnow, John Gordon, Omar Qureshi, Nicholas M. Barnes
Formato: article
Lenguaje:EN
Publicado: Nature Portfolio 2021
Materias:
R
Q
Acceso en línea:https://doaj.org/article/17d4c012af55407c96c408b8c553e796
Etiquetas: Agregar Etiqueta
Sin Etiquetas, Sea el primero en etiquetar este registro!
id oai:doaj.org-article:17d4c012af55407c96c408b8c553e796
record_format dspace
spelling oai:doaj.org-article:17d4c012af55407c96c408b8c553e7962021-12-02T12:11:34ZEx vivo modelling of PD-1/PD-L1 immune checkpoint blockade under acute, chronic, and exhaustion-like conditions of T-cell stimulation10.1038/s41598-021-83612-32045-2322https://doaj.org/article/17d4c012af55407c96c408b8c553e7962021-02-01T00:00:00Zhttps://doi.org/10.1038/s41598-021-83612-3https://doaj.org/toc/2045-2322Abstract Blockade of PD-1/PD-L1 interactions is proving an exciting, durable therapeutic modality in a range of cancers whereby T cells are released from checkpoint inhibition to revive their inherent anti-tumour activity. Here we have studied various ways to model ex vivo T cell function in order to compare the impact of the clinically utilised anti-PD-1 antibody, pembrolizumab (Keytruda) on the activation of human T cells: focussing on the release of pro-inflammatory IFNγ and anti-inflammatory IL-10 to assess functionality. Firstly, we investigated the actions of pembrolizumab in an acute model of T-cell activation with either immature or mature allogeneic dendritic cells (DCs); pembrolizumab enhanced IFNγ and IL-10 release from purified CD4+ T-cells in the majority of donors with a bias towards pro-inflammatory cytokine release. Next, we modelled the impact of pembrolizumab in settings of more chronic T-cell activation. In a 7-day antigen-specific response to EBV peptides, the presence of pembrolizumab resulted in a relatively modest increase in both IFNγ and IL-10 release. Where pembrolizumab was assessed against long-term stimulated CD4+ cells that had up-regulated the exhaustion markers TIM-3 and PD-1, there was a highly effective enhancement of the otherwise exhausted response to allogeneic DCs with respect to IFNγ production. By contrast, the restoration of IL-10 production was considerably more limited. Finally, to assess a direct clinical relevance we investigated the consequence of PD-1/PD-L1 blockade in the disease setting of dissociated cells from lung and colon carcinomas responding to allogeneic DCs: here, pembrolizumab once more enhanced IFNγ production from the majority of tumour preparations whereas, again, the increase in IL-10 release was modest at best. In conclusion, we have shown that the contribution of PD-1—revealed by using a canonical blocking antibody to interrupt its interaction with PD-L1—to the production of an exemplar pro- and anti-inflammatory cytokine, respectively, depends in magnitude and ratio on the particular stimulation setting and activation status of the target T cell. We have identified a number of in vitro assays with response profiles that mimic features of dissociated cell populations from primary tumours thereby indicating these represent disease-relevant functional assays for the screening of immune checkpoint inhibitors in current and future development. Such in vitro assays may also support patient stratification of those likely to respond to immuno-oncology therapies in the wider population.Alexander RobertsLindsay BentleyTina TangFay StewartChiara PalliniJoel JuvvanapudiGraham R. WallaceAlison J. CooperAaron ScottDavid ThickettSebastian T. LuggHollie BancroftBridget HemmingCharlotte FerrisGerald LangmanAndrew RobinsonJoanne ChapmanBabu NaiduThomas PinkneyGraham S. TaylorKristian BrockZania StamatakiCatherine A. BradyS. John CurnowJohn GordonOmar QureshiNicholas M. BarnesNature PortfolioarticleMedicineRScienceQENScientific Reports, Vol 11, Iss 1, Pp 1-12 (2021)
institution DOAJ
collection DOAJ
language EN
topic Medicine
R
Science
Q
spellingShingle Medicine
R
Science
Q
Alexander Roberts
Lindsay Bentley
Tina Tang
Fay Stewart
Chiara Pallini
Joel Juvvanapudi
Graham R. Wallace
Alison J. Cooper
Aaron Scott
David Thickett
Sebastian T. Lugg
Hollie Bancroft
Bridget Hemming
Charlotte Ferris
Gerald Langman
Andrew Robinson
Joanne Chapman
Babu Naidu
Thomas Pinkney
Graham S. Taylor
Kristian Brock
Zania Stamataki
Catherine A. Brady
S. John Curnow
John Gordon
Omar Qureshi
Nicholas M. Barnes
Ex vivo modelling of PD-1/PD-L1 immune checkpoint blockade under acute, chronic, and exhaustion-like conditions of T-cell stimulation
description Abstract Blockade of PD-1/PD-L1 interactions is proving an exciting, durable therapeutic modality in a range of cancers whereby T cells are released from checkpoint inhibition to revive their inherent anti-tumour activity. Here we have studied various ways to model ex vivo T cell function in order to compare the impact of the clinically utilised anti-PD-1 antibody, pembrolizumab (Keytruda) on the activation of human T cells: focussing on the release of pro-inflammatory IFNγ and anti-inflammatory IL-10 to assess functionality. Firstly, we investigated the actions of pembrolizumab in an acute model of T-cell activation with either immature or mature allogeneic dendritic cells (DCs); pembrolizumab enhanced IFNγ and IL-10 release from purified CD4+ T-cells in the majority of donors with a bias towards pro-inflammatory cytokine release. Next, we modelled the impact of pembrolizumab in settings of more chronic T-cell activation. In a 7-day antigen-specific response to EBV peptides, the presence of pembrolizumab resulted in a relatively modest increase in both IFNγ and IL-10 release. Where pembrolizumab was assessed against long-term stimulated CD4+ cells that had up-regulated the exhaustion markers TIM-3 and PD-1, there was a highly effective enhancement of the otherwise exhausted response to allogeneic DCs with respect to IFNγ production. By contrast, the restoration of IL-10 production was considerably more limited. Finally, to assess a direct clinical relevance we investigated the consequence of PD-1/PD-L1 blockade in the disease setting of dissociated cells from lung and colon carcinomas responding to allogeneic DCs: here, pembrolizumab once more enhanced IFNγ production from the majority of tumour preparations whereas, again, the increase in IL-10 release was modest at best. In conclusion, we have shown that the contribution of PD-1—revealed by using a canonical blocking antibody to interrupt its interaction with PD-L1—to the production of an exemplar pro- and anti-inflammatory cytokine, respectively, depends in magnitude and ratio on the particular stimulation setting and activation status of the target T cell. We have identified a number of in vitro assays with response profiles that mimic features of dissociated cell populations from primary tumours thereby indicating these represent disease-relevant functional assays for the screening of immune checkpoint inhibitors in current and future development. Such in vitro assays may also support patient stratification of those likely to respond to immuno-oncology therapies in the wider population.
format article
author Alexander Roberts
Lindsay Bentley
Tina Tang
Fay Stewart
Chiara Pallini
Joel Juvvanapudi
Graham R. Wallace
Alison J. Cooper
Aaron Scott
David Thickett
Sebastian T. Lugg
Hollie Bancroft
Bridget Hemming
Charlotte Ferris
Gerald Langman
Andrew Robinson
Joanne Chapman
Babu Naidu
Thomas Pinkney
Graham S. Taylor
Kristian Brock
Zania Stamataki
Catherine A. Brady
S. John Curnow
John Gordon
Omar Qureshi
Nicholas M. Barnes
author_facet Alexander Roberts
Lindsay Bentley
Tina Tang
Fay Stewart
Chiara Pallini
Joel Juvvanapudi
Graham R. Wallace
Alison J. Cooper
Aaron Scott
David Thickett
Sebastian T. Lugg
Hollie Bancroft
Bridget Hemming
Charlotte Ferris
Gerald Langman
Andrew Robinson
Joanne Chapman
Babu Naidu
Thomas Pinkney
Graham S. Taylor
Kristian Brock
Zania Stamataki
Catherine A. Brady
S. John Curnow
John Gordon
Omar Qureshi
Nicholas M. Barnes
author_sort Alexander Roberts
title Ex vivo modelling of PD-1/PD-L1 immune checkpoint blockade under acute, chronic, and exhaustion-like conditions of T-cell stimulation
title_short Ex vivo modelling of PD-1/PD-L1 immune checkpoint blockade under acute, chronic, and exhaustion-like conditions of T-cell stimulation
title_full Ex vivo modelling of PD-1/PD-L1 immune checkpoint blockade under acute, chronic, and exhaustion-like conditions of T-cell stimulation
title_fullStr Ex vivo modelling of PD-1/PD-L1 immune checkpoint blockade under acute, chronic, and exhaustion-like conditions of T-cell stimulation
title_full_unstemmed Ex vivo modelling of PD-1/PD-L1 immune checkpoint blockade under acute, chronic, and exhaustion-like conditions of T-cell stimulation
title_sort ex vivo modelling of pd-1/pd-l1 immune checkpoint blockade under acute, chronic, and exhaustion-like conditions of t-cell stimulation
publisher Nature Portfolio
publishDate 2021
url https://doaj.org/article/17d4c012af55407c96c408b8c553e796
work_keys_str_mv AT alexanderroberts exvivomodellingofpd1pdl1immunecheckpointblockadeunderacutechronicandexhaustionlikeconditionsoftcellstimulation
AT lindsaybentley exvivomodellingofpd1pdl1immunecheckpointblockadeunderacutechronicandexhaustionlikeconditionsoftcellstimulation
AT tinatang exvivomodellingofpd1pdl1immunecheckpointblockadeunderacutechronicandexhaustionlikeconditionsoftcellstimulation
AT faystewart exvivomodellingofpd1pdl1immunecheckpointblockadeunderacutechronicandexhaustionlikeconditionsoftcellstimulation
AT chiarapallini exvivomodellingofpd1pdl1immunecheckpointblockadeunderacutechronicandexhaustionlikeconditionsoftcellstimulation
AT joeljuvvanapudi exvivomodellingofpd1pdl1immunecheckpointblockadeunderacutechronicandexhaustionlikeconditionsoftcellstimulation
AT grahamrwallace exvivomodellingofpd1pdl1immunecheckpointblockadeunderacutechronicandexhaustionlikeconditionsoftcellstimulation
AT alisonjcooper exvivomodellingofpd1pdl1immunecheckpointblockadeunderacutechronicandexhaustionlikeconditionsoftcellstimulation
AT aaronscott exvivomodellingofpd1pdl1immunecheckpointblockadeunderacutechronicandexhaustionlikeconditionsoftcellstimulation
AT davidthickett exvivomodellingofpd1pdl1immunecheckpointblockadeunderacutechronicandexhaustionlikeconditionsoftcellstimulation
AT sebastiantlugg exvivomodellingofpd1pdl1immunecheckpointblockadeunderacutechronicandexhaustionlikeconditionsoftcellstimulation
AT holliebancroft exvivomodellingofpd1pdl1immunecheckpointblockadeunderacutechronicandexhaustionlikeconditionsoftcellstimulation
AT bridgethemming exvivomodellingofpd1pdl1immunecheckpointblockadeunderacutechronicandexhaustionlikeconditionsoftcellstimulation
AT charlotteferris exvivomodellingofpd1pdl1immunecheckpointblockadeunderacutechronicandexhaustionlikeconditionsoftcellstimulation
AT geraldlangman exvivomodellingofpd1pdl1immunecheckpointblockadeunderacutechronicandexhaustionlikeconditionsoftcellstimulation
AT andrewrobinson exvivomodellingofpd1pdl1immunecheckpointblockadeunderacutechronicandexhaustionlikeconditionsoftcellstimulation
AT joannechapman exvivomodellingofpd1pdl1immunecheckpointblockadeunderacutechronicandexhaustionlikeconditionsoftcellstimulation
AT babunaidu exvivomodellingofpd1pdl1immunecheckpointblockadeunderacutechronicandexhaustionlikeconditionsoftcellstimulation
AT thomaspinkney exvivomodellingofpd1pdl1immunecheckpointblockadeunderacutechronicandexhaustionlikeconditionsoftcellstimulation
AT grahamstaylor exvivomodellingofpd1pdl1immunecheckpointblockadeunderacutechronicandexhaustionlikeconditionsoftcellstimulation
AT kristianbrock exvivomodellingofpd1pdl1immunecheckpointblockadeunderacutechronicandexhaustionlikeconditionsoftcellstimulation
AT zaniastamataki exvivomodellingofpd1pdl1immunecheckpointblockadeunderacutechronicandexhaustionlikeconditionsoftcellstimulation
AT catherineabrady exvivomodellingofpd1pdl1immunecheckpointblockadeunderacutechronicandexhaustionlikeconditionsoftcellstimulation
AT sjohncurnow exvivomodellingofpd1pdl1immunecheckpointblockadeunderacutechronicandexhaustionlikeconditionsoftcellstimulation
AT johngordon exvivomodellingofpd1pdl1immunecheckpointblockadeunderacutechronicandexhaustionlikeconditionsoftcellstimulation
AT omarqureshi exvivomodellingofpd1pdl1immunecheckpointblockadeunderacutechronicandexhaustionlikeconditionsoftcellstimulation
AT nicholasmbarnes exvivomodellingofpd1pdl1immunecheckpointblockadeunderacutechronicandexhaustionlikeconditionsoftcellstimulation
_version_ 1718394615056302080