Engineering T cell receptor fusion proteins using nonviral CRISPR/Cas9 genome editing for cancer immunotherapy

Abstract Manufacture of chimeric antigen receptor (CAR)‐T cells usually involves the use of viral delivery systems to achieve high transgene expression. However, it can be costly and may result in random integration of the CAR into the genome, creating several disadvantages including variation in tr...

Full description

Bibliographic Details
Main Authors: Runzhe Shu, Maree Hammett, Vera Evtimov, Aleta Pupovac, Nhu‐Y Nguyen, Rasa Islam, Junli Zhuang, Seyeong Lee, Tae‐hun Kang, Kyujun Lee, Ian Nisbet, Peter Hudson, Jae Young Lee, Richard Boyd, Alan Trounson
Format: Article
Language:English
Published: Wiley 2023-11-01
Series:Bioengineering & Translational Medicine
Subjects:
Online Access:https://doi.org/10.1002/btm2.10571
_version_ 1797556842294935552
author Runzhe Shu
Maree Hammett
Vera Evtimov
Aleta Pupovac
Nhu‐Y Nguyen
Rasa Islam
Junli Zhuang
Seyeong Lee
Tae‐hun Kang
Kyujun Lee
Ian Nisbet
Peter Hudson
Jae Young Lee
Richard Boyd
Alan Trounson
author_facet Runzhe Shu
Maree Hammett
Vera Evtimov
Aleta Pupovac
Nhu‐Y Nguyen
Rasa Islam
Junli Zhuang
Seyeong Lee
Tae‐hun Kang
Kyujun Lee
Ian Nisbet
Peter Hudson
Jae Young Lee
Richard Boyd
Alan Trounson
author_sort Runzhe Shu
collection DOAJ
description Abstract Manufacture of chimeric antigen receptor (CAR)‐T cells usually involves the use of viral delivery systems to achieve high transgene expression. However, it can be costly and may result in random integration of the CAR into the genome, creating several disadvantages including variation in transgene expression, functional gene silencing and potential oncogenic transformation. Here, we optimized the method of nonviral, CRISPR/Cas9 genome editing using large donor DNA delivery, knocked‐in an anti‐tumor single chain variable fragment (scFv) into the N‐terminus of CD3ε and efficiently generated fusion protein (FP) T cells. These cells displayed FP integration within the TCR/CD3 complex, lower variability in gene expression compared to CAR‐T cells and good cell expansion after transfection. CD3ε FP T cells were predominantly CD8+ effector memory T cells, and exhibited anti‐tumor activity in vitro and in vivo. Dual targeting FP T cells were also generated through the incorporation of scFvs into other CD3 subunits and CD28. Compared to viral‐based methods, this method serves as an alternative and versatile way of generating T cells with tumor‐targeting receptors for cancer immunotherapy.
first_indexed 2024-03-10T17:08:38Z
format Article
id doaj.art-45ebc5081db64747a278f36cfaca95ba
institution Directory Open Access Journal
issn 2380-6761
language English
last_indexed 2024-03-10T17:08:38Z
publishDate 2023-11-01
publisher Wiley
record_format Article
series Bioengineering & Translational Medicine
spelling doaj.art-45ebc5081db64747a278f36cfaca95ba2023-11-20T10:44:12ZengWileyBioengineering & Translational Medicine2380-67612023-11-0186n/an/a10.1002/btm2.10571Engineering T cell receptor fusion proteins using nonviral CRISPR/Cas9 genome editing for cancer immunotherapyRunzhe Shu0Maree Hammett1Vera Evtimov2Aleta Pupovac3Nhu‐Y Nguyen4Rasa Islam5Junli Zhuang6Seyeong Lee7Tae‐hun Kang8Kyujun Lee9Ian Nisbet10Peter Hudson11Jae Young Lee12Richard Boyd13Alan Trounson14Cartherics Pty Ltd. Notting Hill AustraliaCartherics Pty Ltd. Notting Hill AustraliaCartherics Pty Ltd. Notting Hill AustraliaCartherics Pty Ltd. Notting Hill AustraliaCartherics Pty Ltd. Notting Hill AustraliaCartherics Pty Ltd. Notting Hill AustraliaCartherics Pty Ltd. Notting Hill AustraliaToolGen Inc. Seoul South KoreaToolGen Inc. Seoul South KoreaToolGen Inc. Seoul South KoreaCartherics Pty Ltd. Notting Hill AustraliaCartherics Pty Ltd. Notting Hill AustraliaToolGen Inc. Seoul South KoreaCartherics Pty Ltd. Notting Hill AustraliaCartherics Pty Ltd. Notting Hill AustraliaAbstract Manufacture of chimeric antigen receptor (CAR)‐T cells usually involves the use of viral delivery systems to achieve high transgene expression. However, it can be costly and may result in random integration of the CAR into the genome, creating several disadvantages including variation in transgene expression, functional gene silencing and potential oncogenic transformation. Here, we optimized the method of nonviral, CRISPR/Cas9 genome editing using large donor DNA delivery, knocked‐in an anti‐tumor single chain variable fragment (scFv) into the N‐terminus of CD3ε and efficiently generated fusion protein (FP) T cells. These cells displayed FP integration within the TCR/CD3 complex, lower variability in gene expression compared to CAR‐T cells and good cell expansion after transfection. CD3ε FP T cells were predominantly CD8+ effector memory T cells, and exhibited anti‐tumor activity in vitro and in vivo. Dual targeting FP T cells were also generated through the incorporation of scFvs into other CD3 subunits and CD28. Compared to viral‐based methods, this method serves as an alternative and versatile way of generating T cells with tumor‐targeting receptors for cancer immunotherapy.https://doi.org/10.1002/btm2.10571CAR‐TCRISPR/Cas9fusion proteinimmunotherapynonviral
spellingShingle Runzhe Shu
Maree Hammett
Vera Evtimov
Aleta Pupovac
Nhu‐Y Nguyen
Rasa Islam
Junli Zhuang
Seyeong Lee
Tae‐hun Kang
Kyujun Lee
Ian Nisbet
Peter Hudson
Jae Young Lee
Richard Boyd
Alan Trounson
Engineering T cell receptor fusion proteins using nonviral CRISPR/Cas9 genome editing for cancer immunotherapy
Bioengineering & Translational Medicine
CAR‐T
CRISPR/Cas9
fusion protein
immunotherapy
nonviral
title Engineering T cell receptor fusion proteins using nonviral CRISPR/Cas9 genome editing for cancer immunotherapy
title_full Engineering T cell receptor fusion proteins using nonviral CRISPR/Cas9 genome editing for cancer immunotherapy
title_fullStr Engineering T cell receptor fusion proteins using nonviral CRISPR/Cas9 genome editing for cancer immunotherapy
title_full_unstemmed Engineering T cell receptor fusion proteins using nonviral CRISPR/Cas9 genome editing for cancer immunotherapy
title_short Engineering T cell receptor fusion proteins using nonviral CRISPR/Cas9 genome editing for cancer immunotherapy
title_sort engineering t cell receptor fusion proteins using nonviral crispr cas9 genome editing for cancer immunotherapy
topic CAR‐T
CRISPR/Cas9
fusion protein
immunotherapy
nonviral
url https://doi.org/10.1002/btm2.10571
work_keys_str_mv AT runzheshu engineeringtcellreceptorfusionproteinsusingnonviralcrisprcas9genomeeditingforcancerimmunotherapy
AT mareehammett engineeringtcellreceptorfusionproteinsusingnonviralcrisprcas9genomeeditingforcancerimmunotherapy
AT veraevtimov engineeringtcellreceptorfusionproteinsusingnonviralcrisprcas9genomeeditingforcancerimmunotherapy
AT aletapupovac engineeringtcellreceptorfusionproteinsusingnonviralcrisprcas9genomeeditingforcancerimmunotherapy
AT nhuynguyen engineeringtcellreceptorfusionproteinsusingnonviralcrisprcas9genomeeditingforcancerimmunotherapy
AT rasaislam engineeringtcellreceptorfusionproteinsusingnonviralcrisprcas9genomeeditingforcancerimmunotherapy
AT junlizhuang engineeringtcellreceptorfusionproteinsusingnonviralcrisprcas9genomeeditingforcancerimmunotherapy
AT seyeonglee engineeringtcellreceptorfusionproteinsusingnonviralcrisprcas9genomeeditingforcancerimmunotherapy
AT taehunkang engineeringtcellreceptorfusionproteinsusingnonviralcrisprcas9genomeeditingforcancerimmunotherapy
AT kyujunlee engineeringtcellreceptorfusionproteinsusingnonviralcrisprcas9genomeeditingforcancerimmunotherapy
AT iannisbet engineeringtcellreceptorfusionproteinsusingnonviralcrisprcas9genomeeditingforcancerimmunotherapy
AT peterhudson engineeringtcellreceptorfusionproteinsusingnonviralcrisprcas9genomeeditingforcancerimmunotherapy
AT jaeyounglee engineeringtcellreceptorfusionproteinsusingnonviralcrisprcas9genomeeditingforcancerimmunotherapy
AT richardboyd engineeringtcellreceptorfusionproteinsusingnonviralcrisprcas9genomeeditingforcancerimmunotherapy
AT alantrounson engineeringtcellreceptorfusionproteinsusingnonviralcrisprcas9genomeeditingforcancerimmunotherapy