Effects of reprogrammed splenic CD8+ T-cells in vitro and in mice with spontaneous metastatic Lewis lung carcinoma. 2024

E Skurikhin, and N Ermakova, and M Zhukova, and E Pan, and D Widera, and L Sandrikina, and L Kogai, and O Pershina, and A Pakhomova, and V Yu Pan, and N Kushlinskii, and A Kubatiev, and S Morozov, and A Dygai
Institute of General Pathology and Pathophysiology, 125315, Moscow, Russia. eskurihin@inbox.ru.

BACKGROUND Metastatic disease is a major and difficult-to-treat complication of lung cancer. Considering insufficient effectiveness of existing therapies and taking into account the current problem of lung cancer chemoresistance, it is necessary to continue the development of new treatments. METHODS Previously, we have demonstrated the antitumor effects of reprogrammed CD8+ T-cells (rCD8+ T-cells) from the spleen in mice with orthotopic lung carcinoma. Reprogramming was conducted by inhibiting the MAPK/ERK signalling pathway through MEKi and the immune checkpoint PD-1/PD-L1. Concurrently, CD8+ T-cells were trained in Lewis lung carcinoma (LLC) cells. We suggested that rCD8+ T-cells isolated from the spleen might impede the development of metastatic disease. RESULTS The present study has indicated that the reprogramming procedure enhances the survival and cytotoxicity of splenic CD8+ T-cells in LLC culture. In an LLC model of spontaneous metastasis, splenic rCD8 + T-cell therapy augmented the numbers of CD8+ T-cells and CD4+ T-cells in the lungs of mice. These changes can account for the partial reduction of tumors in the lungs and the mitigation of metastatic activity. CONCLUSIONS Our proposed reprogramming method enhances the antitumor activity of CD8+ T-cells isolated from the spleen and could be valuable in formulating an approach to treating metastatic disease in patients with lung cancer.

UI MeSH Term Description Entries
D008175 Lung Neoplasms Tumors or cancer of the LUNG. Cancer of Lung,Lung Cancer,Pulmonary Cancer,Pulmonary Neoplasms,Cancer of the Lung,Neoplasms, Lung,Neoplasms, Pulmonary,Cancer, Lung,Cancer, Pulmonary,Cancers, Lung,Cancers, Pulmonary,Lung Cancers,Lung Neoplasm,Neoplasm, Lung,Neoplasm, Pulmonary,Pulmonary Cancers,Pulmonary Neoplasm
D008810 Mice, Inbred C57BL One of the first INBRED MOUSE STRAINS to be sequenced. This strain is commonly used as genetic background for transgenic mouse models. Refractory to many tumors, this strain is also preferred model for studying role of genetic variations in development of diseases. Mice, C57BL,Mouse, C57BL,Mouse, Inbred C57BL,C57BL Mice,C57BL Mice, Inbred,C57BL Mouse,C57BL Mouse, Inbred,Inbred C57BL Mice,Inbred C57BL Mouse
D004195 Disease Models, Animal Naturally-occurring or experimentally-induced animal diseases with pathological processes analogous to human diseases. Animal Disease Model,Animal Disease Models,Disease Model, Animal
D000818 Animals Unicellular or multicellular, heterotrophic organisms, that have sensation and the power of voluntary movement. Under the older five kingdom paradigm, Animalia was one of the kingdoms. Under the modern three domain model, Animalia represents one of the many groups in the domain EUKARYOTA. Animal,Metazoa,Animalia
D013154 Spleen An encapsulated lymphatic organ through which venous blood filters.
D045744 Cell Line, Tumor A cell line derived from cultured tumor cells. Tumor Cell Line,Cell Lines, Tumor,Line, Tumor Cell,Lines, Tumor Cell,Tumor Cell Lines
D051379 Mice The common name for the genus Mus. Mice, House,Mus,Mus musculus,Mice, Laboratory,Mouse,Mouse, House,Mouse, Laboratory,Mouse, Swiss,Mus domesticus,Mus musculus domesticus,Swiss Mice,House Mice,House Mouse,Laboratory Mice,Laboratory Mouse,Mice, Swiss,Swiss Mouse,domesticus, Mus musculus
D018414 CD8-Positive T-Lymphocytes A critical subpopulation of regulatory T-lymphocytes involved in MHC Class I-restricted interactions. They include both cytotoxic T-lymphocytes (T-LYMPHOCYTES, CYTOTOXIC) and CD8+ suppressor T-lymphocytes. Suppressor T-Lymphocytes, CD8-Positive,T8 Cells,T8 Lymphocytes,CD8-Positive Lymphocytes,Suppressor T-Cells, CD8-Positive,CD8 Positive Lymphocytes,CD8 Positive T Lymphocytes,CD8-Positive Lymphocyte,CD8-Positive Suppressor T-Cell,CD8-Positive Suppressor T-Cells,CD8-Positive Suppressor T-Lymphocyte,CD8-Positive Suppressor T-Lymphocytes,CD8-Positive T-Lymphocyte,Cell, T8,Cells, T8,Lymphocyte, CD8-Positive,Lymphocyte, T8,Lymphocytes, CD8-Positive,Lymphocytes, T8,Suppressor T Cells, CD8 Positive,Suppressor T Lymphocytes, CD8 Positive,Suppressor T-Cell, CD8-Positive,Suppressor T-Lymphocyte, CD8-Positive,T-Cell, CD8-Positive Suppressor,T-Cells, CD8-Positive Suppressor,T-Lymphocyte, CD8-Positive,T-Lymphocyte, CD8-Positive Suppressor,T-Lymphocytes, CD8-Positive,T-Lymphocytes, CD8-Positive Suppressor,T8 Cell,T8 Lymphocyte
D018827 Carcinoma, Lewis Lung A carcinoma discovered by Dr. Margaret R. Lewis of the Wistar Institute in 1951. This tumor originated spontaneously as a carcinoma of the lung of a C57BL mouse. The tumor does not appear to be grossly hemorrhagic and the majority of the tumor tissue is a semifirm homogeneous mass. (From Cancer Chemother Rep 2 1972 Nov;(3)1:325) It is also called 3LL and LLC and is used as a transplantable malignancy. Lewis Lung Carcinoma,Lung Carcinoma, Lewis
D065150 Cellular Reprogramming A process where fully differentiated or specialized cells revert to pluripotency or a less differentiated cell type. Cell Reprogramming,Nuclear Reprogramming,Reprogramming, Cell,Reprogramming, Cellular,Reprogramming, Nuclear

Related Publications

E Skurikhin, and N Ermakova, and M Zhukova, and E Pan, and D Widera, and L Sandrikina, and L Kogai, and O Pershina, and A Pakhomova, and V Yu Pan, and N Kushlinskii, and A Kubatiev, and S Morozov, and A Dygai
March 2013, Journal of translational medicine,
E Skurikhin, and N Ermakova, and M Zhukova, and E Pan, and D Widera, and L Sandrikina, and L Kogai, and O Pershina, and A Pakhomova, and V Yu Pan, and N Kushlinskii, and A Kubatiev, and S Morozov, and A Dygai
March 1984, Cancer research,
E Skurikhin, and N Ermakova, and M Zhukova, and E Pan, and D Widera, and L Sandrikina, and L Kogai, and O Pershina, and A Pakhomova, and V Yu Pan, and N Kushlinskii, and A Kubatiev, and S Morozov, and A Dygai
December 2010, Clinical & experimental metastasis,
E Skurikhin, and N Ermakova, and M Zhukova, and E Pan, and D Widera, and L Sandrikina, and L Kogai, and O Pershina, and A Pakhomova, and V Yu Pan, and N Kushlinskii, and A Kubatiev, and S Morozov, and A Dygai
January 1984, Invasion & metastasis,
E Skurikhin, and N Ermakova, and M Zhukova, and E Pan, and D Widera, and L Sandrikina, and L Kogai, and O Pershina, and A Pakhomova, and V Yu Pan, and N Kushlinskii, and A Kubatiev, and S Morozov, and A Dygai
January 1984, Invasion & metastasis,
E Skurikhin, and N Ermakova, and M Zhukova, and E Pan, and D Widera, and L Sandrikina, and L Kogai, and O Pershina, and A Pakhomova, and V Yu Pan, and N Kushlinskii, and A Kubatiev, and S Morozov, and A Dygai
November 1983, Cancer research,
E Skurikhin, and N Ermakova, and M Zhukova, and E Pan, and D Widera, and L Sandrikina, and L Kogai, and O Pershina, and A Pakhomova, and V Yu Pan, and N Kushlinskii, and A Kubatiev, and S Morozov, and A Dygai
March 1995, Clinical & experimental metastasis,
E Skurikhin, and N Ermakova, and M Zhukova, and E Pan, and D Widera, and L Sandrikina, and L Kogai, and O Pershina, and A Pakhomova, and V Yu Pan, and N Kushlinskii, and A Kubatiev, and S Morozov, and A Dygai
January 1989, Eksperimental'naia onkologiia,
E Skurikhin, and N Ermakova, and M Zhukova, and E Pan, and D Widera, and L Sandrikina, and L Kogai, and O Pershina, and A Pakhomova, and V Yu Pan, and N Kushlinskii, and A Kubatiev, and S Morozov, and A Dygai
January 1987, Cancer research,
E Skurikhin, and N Ermakova, and M Zhukova, and E Pan, and D Widera, and L Sandrikina, and L Kogai, and O Pershina, and A Pakhomova, and V Yu Pan, and N Kushlinskii, and A Kubatiev, and S Morozov, and A Dygai
January 2013, International journal of cancer,
Copied contents to your clipboard!