Mus musculus
Ontology highlight
ABSTRACT:
PROVIDER: PRJNA106769 | ENA |
REPOSITORIES: ENA
Similar Datasets
Project description:C57BLKS/J mice are susceptible to diabetes, because of islet dysfunction, whereas C57BL6/J mice are not. Differences in gene expression between the two strains may account for this sensitivity. Furthermore these differences may only be evident in the hyperstimulated (diabetic or hyperglycemic) state. To this end profiling islets from these two strains cultured in both low and high glucose may reveal the underlying mechanism. Keywords: Mouse strain comparison under different culture conditions In the study presented here, pancreatic islets from 20 mice grown in low and high glucose conditions were assayed for differences in gene expression. (five C57BLKS/J low glucose, four C57BLKS/J high glucose, six C57BL6/J low glucose, five C57BL6/J high glucose). Technical replicates are achieved by labeling each sample with both Cy3 and Cy5, and combining the values for each hybridization.
2008-12-30 | E-GEOD-11257 | biostudies-arrayexpress
Project description:Gene expression profiling of pancreatic stem cell derived islet like clusters vs native islets
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Project description:The primary driver of Type I diabetes are the autoimmune T cells that destroy insulin-producing beta-cells within the islets of Langerhans in the pancreas. Pancreatic macrophages have also been variably linked to disease onset and progression. As macrophage-mediated removal of dying cells via ‘efferocytosis’ regulate tissue homeostasis and immune responses, we addressed whether efferocytosis by intra-islet macrophages influences the immune environment of pancreatic islets. Here, using a series of complementary omics-based and functional approaches, we identify a subset of anti-inflammatory intra-islet ‘efferocytic macrophages’ (e-Mac) within the pancreas of mice and humans. When limited beta-cell apoptosis is induced in vivo in wild type C57BL/6 mice and diabetic-prone NOD mice, islet macrophages adopt this e-Mac phenotype without an apparent increase in total intra-islet macrophage numbers. Strikingly, such induction of limited beta-cell apoptosis and increase in e-Mac numbers in NOD mice led to long-term suppression of autoimmune diabetes. These data advance a concept that efferocytosis-associated reprogramming of the islet macrophages and its subsequent influence on the adaptive immune response could be beneficial in modulating diabetic autoimmunity.
2025-08-09 | GSE304620 | GEO
Project description:The primary driver of Type I diabetes are the autoimmune T cells that destroy insulin-producing beta-cells within the islets of Langerhans in the pancreas. Pancreatic macrophages have also been variably linked to disease onset and progression. As macrophage-mediated removal of dying cells via ‘efferocytosis’ regulate tissue homeostasis and immune responses, we addressed whether efferocytosis by intra-islet macrophages influences the immune environment of pancreatic islets. Here, using a series of complementary omics-based and functional approaches, we identify a subset of anti-inflammatory intra-islet ‘efferocytic macrophages’ (e-Mac) within the pancreas of mice and humans. When limited beta-cell apoptosis is induced in vivo in wild type C57BL/6 mice and diabetic-prone NOD mice, islet macrophages adopt this e-Mac phenotype without an apparent increase in total intra-islet macrophage numbers. Strikingly, such induction of limited beta-cell apoptosis and increase in e-Mac numbers in NOD mice led to long-term suppression of autoimmune diabetes. These data advance a concept that efferocytosis-associated reprogramming of the islet macrophages and its subsequent influence on the adaptive immune response could be beneficial in modulating diabetic autoimmunity.
2025-08-09 | GSE304616 | GEO
Project description:The primary driver of Type I diabetes are the autoimmune T cells that destroy insulin-producing beta-cells within the islets of Langerhans in the pancreas. Pancreatic macrophages have also been variably linked to disease onset and progression. As macrophage-mediated removal of dying cells via ‘efferocytosis’ regulate tissue homeostasis and immune responses, we addressed whether efferocytosis by intra-islet macrophages influences the immune environment of pancreatic islets. Here, using a series of complementary omics-based and functional approaches, we identify a subset of anti-inflammatory intra-islet ‘efferocytic macrophages’ (e-Mac) within the pancreas of mice and humans. When limited beta-cell apoptosis is induced in vivo in wild type C57BL/6 mice and diabetic-prone NOD mice, islet macrophages adopt this e-Mac phenotype without an apparent increase in total intra-islet macrophage numbers. Strikingly, such induction of limited beta-cell apoptosis and increase in e-Mac numbers in NOD mice led to long-term suppression of autoimmune diabetes. These data advance a concept that efferocytosis-associated reprogramming of the islet macrophages and its subsequent influence on the adaptive immune response could be beneficial in modulating diabetic autoimmunity.
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Project description: Not available
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Project description:C57BLKS/J mice are susceptible to diabetes, because of islet dysfunction, whereas C57BL6/J mice are not. Differences in gene expression between the two strains may account for this sensitivity. Furthermore these differences may only be evident in the hyperstimulated (diabetic or hyperglycemic) state. To this end profiling islets from these two strains cultured in both low and high glucose may reveal the underlying mechanism. Keywords: Mouse strain comparison under different culture conditions
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2014-12-04 | GSE61417 | GEO