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<biogps><data><item key="owner">ArrayExpress Uploader</item><item key="pop_total">0</item><item key="species">mouse</item><item key="factors"><item><item key="GSM1176618 1"/></item><item><item key="GSM1176619 1"/></item><item><item key="GSM1176620 1"/></item><item><item key="GSM1176621 1"/></item><item><item key="GSM1176622 1"/></item><item><item key="GSM1176623 1"/></item><item><item key="GSM1176624 1"/></item><item><item key="GSM1176625 1"/></item><item><item key="GSM1176626 1"/></item><item><item key="GSM1176627 1"/></item><item><item key="GSM1176628 1"/></item><item><item key="GSM1176629 1"/></item><item><item key="GSM1176630 1"/></item><item><item key="GSM1176631 1"/></item><item><item key="GSM1176632 1"/></item><item><item key="GSM1176633 1"/></item><item><item key="GSM1176634 1"/></item><item><item key="GSM1176635 1"/></item><item><item key="GSM1176636 1"/></item><item><item key="GSM1176637 1"/></item><item><item key="GSM1176638 1"/></item><item><item key="GSM1176639 1"/></item><item><item key="GSM1176640 1"/></item><item><item key="GSM1176641 1"/></item><item><item key="GSM1176642 1"/></item><item><item key="GSM1176643 1"/></item><item><item key="GSM1176644 1"/></item><item><item key="GSM1176645 1"/></item><item><item key="GSM1176646 1"/></item><item><item key="GSM1176647 1"/></item><item><item key="GSM1176648 1"/></item><item><item key="GSM1176649 1"/></item><item><item key="GSM1176650 1"/></item><item><item key="GSM1176651 1"/></item><item><item key="GSM1176652 1"/></item><item><item key="GSM1176653 1"/></item></item><item key="id">7357</item><item key="ownerprofile_id">arrayexpress_sid</item><item key="platform">6</item><item key="summary_wrapped">Transcriptomic studies revealed that hundreds of mRNAs show differential expression in the brains of sleeping versus awake rats, mice,...</item><item key="geo_gse_id">E-GEOD-48369</item><item key="owner_profile">/profile/8773/arrayexpressuploader</item><item key="factor_count">0</item><item key="sample_count">36</item><item key="tags"><item>brain</item><item>cell</item><item>cerebral cortex</item><item>chromosome</item><item>cortex</item><item>forebrain</item><item>protein</item><item>ribosome</item></item><item key="lastmodified">Dec.12, 2014</item><item key="is_default">False</item><item key="geo_gds_id"/><item key="slug">expression-data-of-sleeping-waking-and-sleep-depri</item><item key="geo_id_plat">E-GEOD-48369_A-AFFY-45</item><item key="name">Expression data of sleeping, waking, and sleep deprived in adult heterozygous Cnp &#8211; eGFP-L10a mice</item><item key="created">Nov.12, 2014</item><item key="summary">Transcriptomic studies revealed that hundreds of mRNAs show differential expression in the brains of sleeping versus awake rats, mice, flies, and sparrows. Although these results have offered clues regarding the molecular consequences of sleep and sleep loss, their functional significance thus far has been limited. This is because  the previous studies pooled transcripts from all brain cells, including neurons and glia. In the following experiment, we studied the specific effects of sleep and wake conditions on glia cells of mouse cerebral cortex using the genetically targeted translating ribosome affinity purification (TRAP) methodology. We used bacterial artificial chromosome (BAC) transgenic mice expressing EGFP tagged ribosomal protein L10a in oligodendrocytes which constitute a defined cellular population of the mouse brain. Using this approach, we could extract only the oligodendrocitic mRNAs, and only those already committed to be translated into proteins (L10a is part of the translational machinery). Six mice for each vigilant state group (sleep (S), waking (W), and sleep deprivation (SD)) were considered. For each animal, one forebrain sample was immediately processed. Samples were immunoprecipitated to isolate oligodendrocytes. The precipitated portion formed the bound sample (IP) containing olidodendrocytes and the remaining part formed the unbound sample (UB) containing all the remaining cell types (neurons and other glia cells). Then, both IP and UB samples were processed and RNA was extracted.</item><item key="source">http://www.ebi.ac.uk/arrayexpress/experiments/E-GEOD-48369</item><item key="sample_source">http://www.ebi.ac.uk/arrayexpress/experiments/E-GEOD-48369/samples/</item></data></biogps>
