Prenatal stress alters mouse offspring dorsal striatal development and placental function in sex-specific ways
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ABSTRACT:
PROVIDER: PRJNA1214673 | ENA |
REPOSITORIES: ENA
Dataset's files
| Action | DRS | |||
|---|---|---|---|---|
| SRR32090119_1.fastq.gz | Fastqsanger.gz | |||
| SRR32090119_2.fastq.gz | Fastqsanger.gz | |||
| SRR32090120_1.fastq.gz | Fastqsanger.gz | |||
| SRR32090120_2.fastq.gz | Fastqsanger.gz | |||
| SRR32090121_1.fastq.gz | Fastqsanger.gz |
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Project description:Prenatal stress is a risk factor for neurodevelopmental disorders (NDDs), including autism spectrum disorder (ASD). However, how early stress modification of brain development contributes to this pathophysiology is poorly understood. Ventral forebrain regions such as dorsal striatum are of particular interest: dorsal striatum modulates movement and cognition, is altered in NDDs, and has a primarily GABAergic population. Here, we examine effects of prenatal stress on adult movement, cognition, and dorsal striatum neurobiology in mice using striatal-dependent behavioral assays, immunohistochemistry, embryonic ventral forebrain transcriptomics, and placental transcriptomics. We found prenatal stress affected adult procedural, habit, and reversal learning in sex-specific ways. Stress also increased adult dorsal striatal GABAergic neurons – an effect largely driven by males. We sought to examine the developmental origins of these adult brain changes. We found similar sex-specific dorsal striatal cellular changes in earlier points of development. The dorsal striatum primordium--embryonic ventral forebrain—showed that prenatal stress increased DNA replication and cell cycle pathways in male but not female transcriptomics and cellular biology. Unique signatures may have arisen from male-female placental differences. Stress-induced placental transcriptomics showed upregulated morphogenesis pathways in males while females downregulated morphogenic, hormonal, and cellular response pathways. Our findings suggest that prenatal stress could affect placenta function and also alter the GABAergic population of dorsal striatum differentially between the sexes.
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Project description:Following a prenatal stress model, we collected RNA from ileum of offspring at 2 weeks of age. We sequenced the RNA to identify genes that are differentially expressed compared to offspring from unstressed controls. We identified DEGs and a number of biological and signaling pathways in the offsping in response to gesstational stress. We discuss the implications of these stress-induced genes on the development of inflammatory diseases in the gut of the offsping.
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Project description:Recent studies suggested that microglia, the primary brain immune cells, can affect circuit connectivity and neuronal function. Microglia infiltrate the neuroepithelium early in embryonic development and are maintained in the brain throughout adulthood. Several maternal environmental factors, such as aberrant microbiome, immune activation, and poor nutrition, can influence prenatal brain development. Nevertheless, it is unknown how changes in the prenatal environment instruct the developmental trajectory of infiltrating microglia, which in turn affect brain development and function. Here we show that after maternal immune activation (MIA) microglia from the offspring have a long-lived decrease in immune reactivity (blunting) across the developmental trajectory. The blunted immune response was concomitant with changes in the chromatin accessibility and reduced transcription factor occupancy of the open chromatin. Single-cell RNA sequencing revealed that MIA does not induce a distinct subpopulation but rather decreases the contribution to inflammatory microglia states. Prenatal replacement of MIA microglia with physiological infiltration of naïve microglia ameliorated the immune blunting and restored a decrease in presynaptic vesicle release probability onto dopamine receptor type-two medium spiny neurons, indicating that aberrantly formed microglia due to an adverse prenatal environment impacts the long-term microglia reactivity and proper striatal circuit development.
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Project description:Prenatal stress (PS) could cause depression of offprsing. Here, relative quantitative phosphoproteomics of hippocampus of PS-S and CON offspring rats were performed using LC-MS/MS to confirm known pathways and identify new areas of depression. A total of 6,790 phosphopeptides, 9,817 phosphorylation sites and 2978 phosphoproteins were detected. Among the 2978 phosphoproteins, 1760 (59.09%) with more than two phosphorylated sites, ENSRNOP00000023460 protein has more than 117 phosphorylated sites, and the average distribution of modification sites per 100 amino acids was 2.97. There were 197 different phophpeptides, including 140 increased phosphopeptides and 57 decreased phosphopeptides in PS-S offspring rats when compared to the CON offspring rats. These differential phosphopeptides corresponded to 100 upregulated and 44 downregulated phosphoproteins respectively. GO enrichment analysis these different phosphoproteins in the first five enrichments of CC category, MF category and BP category were involved in a total of 35 different phosphoproteins and these phosphoproteins were mainly related to myelin, microtubule and synapse associated proteins. The first five enrichment of KEGG pathways were found to be involved in many essential biological pathways, and the first five pathways included amphetamine addiction, insulin secretion, cushing syndrome and circadian entrainment signaling pathway. And these first five pathways were related to nine proteins including Adcy9, Apc, Cacna1c, Camk2a, Camk2b, Camk2g, Ctnnd2, Grin2a, Stx1a. Further research is needed to understand the precise role of these pathways in the depressive-like behavior of offspring rats caused by PS.
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