Adoptive cellular therapy is an attractive approach for the treatment of malignant, infectious, or immune-pathological diseases. In recent years, advancements in cellular manufacturing and bioengineering techniques have enabled the generation of new, potent cellular therapies.
To date, commercially available cell therapies, as well as most products tested in clinical trials, are autologous cell products generated from cells isolated from each patient. Despite the enthusiasm for these new approaches, the widespread use of adoptive cell therapies is still limited by the logistical and financial burden related to the ad hoc generation of personalized cell products. The establishment of allogeneic, universal cellular products for off-the-shelf use is, therefore, an attractive alternative to autologous products. Unfortunately, the use of allogeneic cell therapies across MHC-barriers carries major limitations, namely 1) the risk of induction of Graft-versus-Host-Disease (GvHD) by cellular products containing T cells and 2) the rejection of the administered cells by the host immune system, which might limit their persistence and therefore their efficacy.
Several approaches have been undertaken to limit the risk of GvHD-induction by cellular products, including gene editing to ablate expression of the T cell receptor complex or using alternative cell populations deprived of GvHD-induction potential, including gamma delta T cells, natural killer cells, and invariant natural killer T cells. All of these approaches can reduce the risk of GvHD-induction, thus improving the safety of allogeneic cell products. However, the administration of MHC-mismatched allogeneic cells will invariably result in their rejection by the host immune system. Several strategies have been pursued to prevent this rejection, including gene editing to disrupt MHC-molecules expression and/or optimization of the conditioning regimens administered before infusion.
This Research Topic aims to provide a comprehensive overview of recent advances in the preclinical and clinical development of allogeneic cellular therapies. We welcome the submission of Original Research, Review, Mini-Review, Clinical Trial, and Perspective articles covering the immunological and technical aspects relevant to the development of allogeneic cellular therapies, including, but not limited to:
1. Preclinical and clinical experiences using allogeneic cellular therapies for malignant, infectious, or immune-pathological diseases.
2. Novel cell manufacturing strategies to improve the safety and efficacy of allogeneic cellular therapies.
3. Use of gene-editing strategies to improve the safety and efficacy of allogeneic cellular therapies.
4. Selection of specific cell populations for the generation of allogeneic cell products.
5. Immunomonitoring of allogeneic cellular therapies.
6. Interaction between adoptively transferred cellular products and the host immune system.
Adoptive cellular therapy is an attractive approach for the treatment of malignant, infectious, or immune-pathological diseases. In recent years, advancements in cellular manufacturing and bioengineering techniques have enabled the generation of new, potent cellular therapies.
To date, commercially available cell therapies, as well as most products tested in clinical trials, are autologous cell products generated from cells isolated from each patient. Despite the enthusiasm for these new approaches, the widespread use of adoptive cell therapies is still limited by the logistical and financial burden related to the ad hoc generation of personalized cell products. The establishment of allogeneic, universal cellular products for off-the-shelf use is, therefore, an attractive alternative to autologous products. Unfortunately, the use of allogeneic cell therapies across MHC-barriers carries major limitations, namely 1) the risk of induction of Graft-versus-Host-Disease (GvHD) by cellular products containing T cells and 2) the rejection of the administered cells by the host immune system, which might limit their persistence and therefore their efficacy.
Several approaches have been undertaken to limit the risk of GvHD-induction by cellular products, including gene editing to ablate expression of the T cell receptor complex or using alternative cell populations deprived of GvHD-induction potential, including gamma delta T cells, natural killer cells, and invariant natural killer T cells. All of these approaches can reduce the risk of GvHD-induction, thus improving the safety of allogeneic cell products. However, the administration of MHC-mismatched allogeneic cells will invariably result in their rejection by the host immune system. Several strategies have been pursued to prevent this rejection, including gene editing to disrupt MHC-molecules expression and/or optimization of the conditioning regimens administered before infusion.
This Research Topic aims to provide a comprehensive overview of recent advances in the preclinical and clinical development of allogeneic cellular therapies. We welcome the submission of Original Research, Review, Mini-Review, Clinical Trial, and Perspective articles covering the immunological and technical aspects relevant to the development of allogeneic cellular therapies, including, but not limited to:
1. Preclinical and clinical experiences using allogeneic cellular therapies for malignant, infectious, or immune-pathological diseases.
2. Novel cell manufacturing strategies to improve the safety and efficacy of allogeneic cellular therapies.
3. Use of gene-editing strategies to improve the safety and efficacy of allogeneic cellular therapies.
4. Selection of specific cell populations for the generation of allogeneic cell products.
5. Immunomonitoring of allogeneic cellular therapies.
6. Interaction between adoptively transferred cellular products and the host immune system.