Engineering a Therapeutic Protein to Enhance the Study of Anti-Drug Immunity

被引:1
作者
Zerra, Patricia E. [1 ,2 ]
Parker, Ernest T. [2 ]
Baldwin, Wallace Hunter [2 ]
Healey, John F. [2 ]
Patel, Seema R. [2 ]
McCoy, James W. [1 ]
Cox, Courtney [2 ]
Stowell, Sean R. [3 ]
Meeks, Shannon L. [2 ]
机构
[1] Emory Univ, Ctr Transfus Med & Cellular Therapies, Dept Lab Med & Pathol, Atlanta, GA 30322 USA
[2] Emory Univ, Aflac Canc & Blood Disorders Ctr, Childrens Healthcare Atlanta, Dept Pediat, Atlanta, GA 30322 USA
[3] Harvard Med Sch, Dept Pathol, Joint Program Transfus Med, Boston, MA 02115 USA
基金
美国国家卫生研究院;
关键词
anti-drug antibodies; hemophilia A; factor VIII inhibitors; humoral immunity; FACTOR-VIII INHIBITORS; RECOMBINANT FACTOR-VIII; HEMOPHILIA-A PATIENT; T-CELLS; REPLACEMENT THERAPY; MAJOR DETERMINANT; TRANSGENIC MICE; B-CELLS; MODEL; IMMUNOGENICITY;
D O I
10.3390/biomedicines10071724
中图分类号
Q5 [生物化学]; Q7 [分子生物学];
学科分类号
071010 ; 081704 ;
摘要
The development of anti-drug antibodies represents a significant barrier to the utilization of protein-based therapies for a wide variety of diseases. While the rate of antibody formation can vary depending on the therapeutic employed and the target patient population receiving the drug, the antigen-specific immune response underlying the development of anti-drug antibodies often remains difficult to define. This is especially true for patients with hemophilia A who, following exposure, develop antibodies against the coagulation factor, factor VIII (FVIII). Models capable of studying this response in an antigen-specific manner have been lacking. To overcome this challenge, we engineered FVIII to contain a peptide (323-339) from the model antigen ovalbumin (OVA), a very common tool used to study antigen-specific immunity. FVIII with an OVA peptide (FVIII-OVA) retained clotting activity and possessed the ability to activate CD4 T cells specific to OVA(323-339) in vitro. When compared to FVIII alone, FVIII-OVA also exhibited a similar level of immunogenicity, suggesting that the presence of OVA(323-339) does not substantially alter the anti-FVIII immune response. Intriguingly, while little CD4 T cell response could be observed following exposure to FVIII-OVA alone, inclusion of anti-FVIII antibodies, recently shown to favorably modulate anti-FVIII immune responses, significantly enhanced CD4 T cell activation following FVIII-OVA exposure. These results demonstrate that model antigens can be incorporated into a therapeutic protein to study antigen-specific responses and more specifically that the CD4 T cell response to FVIII-OVA can be augmented by pre-existing anti-FVIII antibodies.
引用
收藏
页数:17
相关论文
共 50 条
[21]   Quartz crystal microbalance as an assay to detect anti-drug antibodies for the immunogenicity assessment of therapeutic biologics [J].
Dubiel, Evan A. ;
Fulop, Tamas ;
Vigier, Sylvain ;
Vermette, Patrick .
ANALYTICAL AND BIOANALYTICAL CHEMISTRY, 2017, 409 (30) :7153-7167
[22]   Method development for the detection of anti-drug antibodies against a therapeutic peptide: assay format selection [J].
Chen, Fangfang ;
He, Xiaolong ;
Mao, Yan ;
Coble, Kelly .
BIOANALYSIS, 2025, 17 (08) :537-548
[23]   Anti-drug antibodies in the current management of cancer [J].
Borregon, Miguel ;
Martinez, Katherine ;
Ramos, Alba ;
Ramos, Irene ;
Berzal, Beatriz ;
Mazariegos, Manuel ;
Martinez, Elia ;
Hernandez, Tatiana ;
Doger, Bernard ;
Moreno, Victor .
CANCER CHEMOTHERAPY AND PHARMACOLOGY, 2022, 89 (05) :577-584
[24]   Prediction of natalizumab anti-drug antibodies persistency [J].
Deisenhammer, Florian ;
Jank, Marlies ;
Lauren, Anna ;
Sjodin, Anders ;
Ryner, Malin ;
Fogdell-Hahn, Anna ;
Sievers, Claudia ;
Lindberg, Raija ;
Jensen, Poul Erik ;
Sellebjerg, Finn ;
Christodoulou, Louis ;
Birchler, Mary ;
Pallardy, Marc ;
Auer, Michael ;
Liblau, Roland .
MULTIPLE SCLEROSIS JOURNAL, 2019, 25 (03) :392-398
[25]   Mitigation of Anti-Drug Antibody Production for Augmenting Anticancer Efficacy of Therapeutic Protein via Co-Injection of Nano-Rapamycin [J].
Chang, Ya ;
Xiong, Wei ;
Zou, Chenming ;
Zeng, Ping ;
Hou, Jiazhen ;
Muhitdinov, Bahtiyor ;
Shen, Yuanyuan ;
Huang, Yongzhuo ;
Guo, Shengrong .
SMALL, 2024, 20 (03)
[26]   Anti-drug antibodies in the current management of cancer [J].
Miguel Borregón ;
Katherine Martínez ;
Alba Ramos ;
Irene Ramos ;
Beatriz Berzal ;
Manuel Mazariegos ;
Elia Martínez ;
Tatiana Hernández ;
Bernard Doger ;
Víctor Moreno .
Cancer Chemotherapy and Pharmacology, 2022, 89 :577-584
[27]   Anti-drug vaccines to treat substance abuse [J].
Kinsey, Berma M. ;
Jackson, David C. ;
Orson, Frank M. .
IMMUNOLOGY AND CELL BIOLOGY, 2009, 87 (04) :309-314
[28]   Epitope mapping of anti-drug antibodies to a clinical candidate bispecific antibody [J].
Schick, Arthur J., III ;
Lundin, Victor ;
Low, Justin ;
Peng, Kun ;
Vandlen, Richard ;
Wecksler, Aaron T. .
MABS, 2022, 14 (01)
[29]   Rituximab in multiple sclerosis: Frequency and clinical relevance of anti-drug antibodies [J].
Dunn, Nicky ;
Juto, Alexander ;
Ryner, Malin ;
Manouchehrinia, Ali ;
Piccoli, Luca ;
Fink, Katharina ;
Piehl, Fredrik ;
Fogdell-Hahn, Anna .
MULTIPLE SCLEROSIS JOURNAL, 2018, 24 (09) :1224-1233
[30]   The optimal management of anti-drug antibodies to infliximab and identification of anti-drug antibody values for clinical outcomes in patients with inflammatory bowel disease [J].
Neasa Mc Gettigan ;
Aman Shah Afridi ;
Grace Harkin ;
Caroline Lardner ;
Stephen Patchett ;
Danny Cheriyan ;
Gavin Harewood ;
Karen Boland ;
Aoibhlinn O’Toole .
International Journal of Colorectal Disease, 2021, 36 :1231-1241