Mus musculus
Ontology highlight
ABSTRACT:
PROVIDER: PRJNA354299 | ENA |
REPOSITORIES: ENA
Dataset's files
| Action | DRS | |||
|---|---|---|---|---|
| SRR5027052_1.fastq.gz | Fastqsanger.gz | |||
| SRR5027052_2.fastq.gz | Fastqsanger.gz | |||
| SRR5027053_1.fastq.gz | Fastqsanger.gz | |||
| SRR5027053_2.fastq.gz | Fastqsanger.gz | |||
| SRR5027054_1.fastq.gz | Fastqsanger.gz |
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Project description:Cancer progression is mediated by processes that are also important in wound repair. As a result, cancers have been conceptualized as overhealing wounds or "wounds that do not heal," and gene expression signatures reflective of wound repair have shown value as predictors of breast cancer survival. Despite the widespread acknowledgment of commonalities between host responses to wounds and host responses to cancer, the gene expression responses of normal tissue adjacent to cancers have not been well characterized.
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Project description:Cancer progression is mediated by processes that are also important in wound repair. As a result, cancers have been conceptualized as overhealing wounds or "wounds that do not heal," and gene expression signatures reflective of wound repair have shown value as predictors of breast cancer survival. Despite the widespread acknowledgment of commonalities between host responses to wounds and host responses to cancer, the gene expression responses of normal tissue adjacent to cancers have not been well characterized. Using RNA extracted from histologically normal breast tissue from 105 patients, 121 arrays were performed, including 72 arrays representing 58 reduction mammoplasty patients and 49 arrays representing 47 cancer patients, we measured whole genome expression profiles and identified a gene expression signature that is induced in response to breast cancer.
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Project description:Tissue stem cells govern tissue regeneration and wound-repair. Tumors often hijack these normal cellular programs and exploit them for malignancy. Here, we identify such a phenomenon in skin, where stem cells of the epidermis and hair follicle remain faithfully restricted to fueling their own tissue during homeostasis. They lose lineage fidelity during tumorigenesis. Moreover, breakdown of stem cell lineage confinement – granting privileges associated with both fates – is not only a hallmark, but also obligatory for malignancy. Intriguingly, we find that lineage plasticity is also critical in wound-repair, where it functions transiently to redirect fates. Probing mechanism, we show that irrespective of cellular origin, lineage infidelity occurs in wounding when stress-responsive enhancers are activated and override the normal enhancers that govern lineage-specificity. In cancer, stress-responsive transcription factor levels rise, causing lineage commanders to reach excess. When lineage and stress factors collaborate, they activate new oncogenic enhancers that distinguish cancers from wounds.
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Project description:While considerable progress has been made towards understanding the complex processes and pathways that regulate human wound healing, regenerative medicine has been unable to develop therapies that coax the natural wound environment to heal scar-free. The inability to induce perfect skin regeneration stems partly from our limited understanding of how scar-free healing occurs in a natural setting. Here we have investigated the wound repair process in adult axolotls and demonstrate that they are capable of perfectly repairing full thickness excisional wounds made on the flank. In the context of mammalian wound repair, our findings reveal a substantial reduction in hemostasis, reduced neutrophil infiltration and a relatively long delay in production of new extracellular matrix (ECM) during scar-free healing. Additionally, we test the hypothesis that metamorphosis leads to scarring and instead show that terrestrial axolotls also heal scar-free, albeit at a slower rate. Analysis of newly forming dermal ECM suggests that low levels of fibronectin and high levels of tenascin-C promote regeneration in lieu of scarring. Lastly, a genetic analysis during wound healing comparing epidermis between aquatic and terrestrial axolotls suggests that matrix metalloproteinases may regulate the fibrotic response. Our findings outline a blueprint to understand the cellular and molecular mechanisms coordinating scar-free healing that will be useful towards elucidating new regenerative therapies targeting fibrosis and wound repair. We used microarray analysis to determine the gene expression changes that take place during scar free wound healing in aquatic and terrestrial axolotl salamanders. Epidermal tissue was harvested using a 4mm biopsy punch. Two wounds were made along the flank and posterior to the forelimbs. Harvested epidermis was pooled for each animal. Four biological replicates were collected from uninjured epidermis (D0) and at 1, 3, and 7 days post injury.
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