Metabolic Programs of T Cell Tissue Residency Empower Tumor Immunity
Ontology highlight
ABSTRACT:
PROVIDER: PRJNA853357 | ENA |
REPOSITORIES: ENA
Dataset's files
| Action | DRS | |||
|---|---|---|---|---|
| SRR25434900_1.fastq.gz | Fastqsanger.gz | |||
| SRR25434900_2.fastq.gz | Fastqsanger.gz | |||
| SRR25434901_1.fastq.gz | Fastqsanger.gz | |||
| SRR25434901_2.fastq.gz | Fastqsanger.gz | |||
| SRR25434902_1.fastq.gz | Fastqsanger.gz |
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Project description:Tissue-resident memory CD8 T cells (TRM) offer fast, robust, and long-term protection at sites of re-infection1. Tumor-infiltrating lymphocytes (TIL) with characteristics of TRM maintain enhanced effector functions, predict responses to immunotherapy, and accompany better prognoses2,3. Thus, an improved understanding of the metabolic strategies that enable tissue residency could inform new approaches to empower T cell responses in tissues and solid tumors. To systematically define the basis for the metabolic reprogramming supporting TRM differentiation, survival, and function, we leveraged in vivo functional genomics, untargeted metabolomics, and transcriptomics of virus-specific memory CD8 T cell populations. We found that memory CD8 T cells deployed a range of adaptations to tissue residency, including a marked reliance on non-steroidal products of the mevalonate/cholesterol pathway, such as Coenzyme Q (CoQ), driven by increased activity of the transcription factor Srebp2. This metabolic adaptation was most pronounced in the small intestine (SI), where TRM interface with dietary cholesterol and maintain a heightened state of activation4, and was shared by functional TIL in diverse tumor types in mice and humans. Enforcing CoQ synthesis through Fdft1 deletion or Pdss2 overexpression promoted mitochondrial respiration, memory formation upon viral infection, and enhanced antitumor immunity. In sum, through a systematic exploration of TRM metabolism, we reveal how these programs can be leveraged to empower CD8 T cell memory formation in the context of acute infections and enhance antitumor immunity.
2023-07-10 | GSE207043 | GEO
Project description:Tissue-resident memory CD8 T cells (TRM) offer fast, robust, and long-term protection at sites of re-infection1. Tumor-infiltrating lymphocytes (TIL) with characteristics of TRM maintain enhanced effector functions, predict responses to immunotherapy, and accompany better prognoses2,3. Thus, an improved understanding of the metabolic strategies that enable tissue residency could inform new approaches to empower T cell responses in tissues and solid tumors. To systematically define the basis for the metabolic reprogramming supporting TRM differentiation, survival, and function, we leveraged in vivo functional genomics, untargeted metabolomics, and transcriptomics of virus-specific memory CD8 T cell populations. We found that memory CD8 T cells deployed a range of adaptations to tissue residency, including a marked reliance on non-steroidal products of the mevalonate/cholesterol pathway, such as Coenzyme Q (CoQ), driven by increased activity of the transcription factor Srebp2. This metabolic adaptation was most pronounced in the small intestine (SI), where TRM interface with dietary cholesterol and maintain a heightened state of activation4, and was shared by functional TIL in diverse tumor types in mice and humans. Enforcing CoQ synthesis through Fdft1 deletion or Pdss2 overexpression promoted mitochondrial respiration, memory formation upon viral infection, and enhanced antitumor immunity. In sum, through a systematic exploration of TRM metabolism, we reveal how these programs can be leveraged to empower CD8 T cell memory formation in the context of acute infections and enhance antitumor immunity.
2023-07-10 | GSE207042 | GEO
Project description:Metabolic Programs of T Cell Tissue Residency Empower Tumor Immunity [scRNA-seq]
| PRJNA853359 | ENA
Project description:Metabolic Programs of T Cell Tissue Residency Empower Tumor Immunity [RNA-seq]
| PRJNA853360 | ENA
Project description:Tissue-resident memory CD8 T cells (TRM) offer fast, robust, and long-term protection at sites of re-infection1. Tumor-infiltrating lymphocytes (TIL) with characteristics of TRM maintain enhanced effector functions, predict responses to immunotherapy, and accompany better prognoses2,3. Thus, an improved understanding of the metabolic strategies that enable tissue residency could inform new approaches to empower T cell responses in tissues and solid tumors. To systematically define the basis for the metabolic reprogramming supporting TRM differentiation, survival, and function, we leveraged in vivo functional genomics, untargeted metabolomics, and transcriptomics of virus-specific memory CD8 T cell populations. We found that memory CD8 T cells deployed a range of adaptations to tissue residency, including a marked reliance on non-steroidal products of the mevalonate/cholesterol pathway, such as Coenzyme Q (CoQ), driven by increased activity of the transcription factor Srebp2. This metabolic adaptation was most pronounced in the small intestine (SI), where TRM interface with dietary cholesterol and maintain a heightened state of activation4, and was shared by functional TIL in diverse tumor types in mice and humans. Enforcing CoQ synthesis through Fdft1 deletion or Pdss2 overexpression promoted mitochondrial respiration, memory formation upon viral infection, and enhanced antitumor immunity. In sum, through a systematic exploration of TRM metabolism, we reveal how these programs can be leveraged to empower CD8 T cell memory formation in the context of acute infections and enhance antitumor immunity.
2023-07-27 | GSE238249 | GEO
Project description:Tissue-resident memory CD8 T cells (TRM) offer fast, robust, and long-term protection at sites of re-infection1. Tumor-infiltrating lymphocytes (TIL) with characteristics of TRM maintain enhanced effector functions, predict responses to immunotherapy, and accompany better prognoses2,3. Thus, an improved understanding of the metabolic strategies that enable tissue residency could inform new approaches to empower T cell responses in tissues and solid tumors. To systematically define the basis for the metabolic reprogramming supporting TRM differentiation, survival, and function, we leveraged in vivo functional genomics, untargeted metabolomics, and transcriptomics of virus-specific memory CD8 T cell populations. We found that memory CD8 T cells deployed a range of adaptations to tissue residency, including a marked reliance on non-steroidal products of the mevalonate/cholesterol pathway, such as Coenzyme Q (CoQ), driven by increased activity of the transcription factor Srebp2. This metabolic adaptation was most pronounced in the small intestine (SI), where TRM interface with dietary cholesterol and maintain a heightened state of activation4, and was shared by functional TIL in diverse tumor types in mice and humans. Enforcing CoQ synthesis through Fdft1 deletion or Pdss2 overexpression promoted mitochondrial respiration, memory formation upon viral infection, and enhanced antitumor immunity. In sum, through a systematic exploration of TRM metabolism, we reveal how these programs can be leveraged to empower CD8 T cell memory formation in the context of acute infections and enhance antitumor immunity.
2023-07-28 | GSE239293 | GEO
Project description:Metabolic Programs of T Cell Tissue Residency Empower Tumor Immunity [Human scRNA-seq]
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Project description:Metabolic Programs of T Cell Tissue Residency Empower Tumor Immunity [RNA-seq II]
| PRJNA998454 | ENA
Project description:This SuperSeries is composed of the SubSeries listed below.
2023-07-10 | GSE207044 | GEO
Project description:Tissue-resident memory T (TRM) cells are integral to tissue immunity, persisting in diverse anatomical sites where they adhere to a common transcriptional framework. How these cells integrate distinct local cues to adopt the common TRM cell fate remains poorly understood. Here, we show that while skin TRM cells strictly require TGF-β for tissue residency, those in other locations utilize the metabolite retinoic acid (RA) to drive an alternative differentiation pathway, directing a TGF-β-independent tissue residency program in the liver and synergizing with TGF-β to drive the TRM cells in the small intestine.
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