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Organizing biological data
Genome Sequencing and Assembly of Devosia sp. ZW T5_3, Microbacterium spp. ZW CA_36, ZW T2_14, ZW T5_45, ZW T5_56, ZW T6_19, Novosphingobium sp. ZW T3_23, Rhizobium sp. ZW T2_16 and Sphingobium sp. ZW T5_29
soil metagenome
Metatranscriptome of soil microbial communities from Hopland Research and Extension Center, CA, USA - 3_100_16
Capsella grandiflora isolate:female(Cg89.3 x Cg81) x male(Cg89.16 x Cg94)
Capsella grandiflora isolate:female(Cg89.3 x Cg81) x male(Cg89.16 x Cg94) Genome sequencing
DOS-3 mediates cell-non-autonomous DAF-16/FOXO activity in antagonizing age-related loss of C. elegans germline stem
3 and 16 month 3xTg AD mice, 3 and 16 month WT mice
LMO J.Pinhassi_20_04
LMO 2011-16 (0.2, 3-0.2, 3) resequencing
Panicum virgatum cultivar:FLAME 1021-16-1-3 Pv
Panicum virgatum FLAME 1021-16-1-3 Pv Resequencing genome sequencing
Panicum virgatum cultivar:FLAME 1022-16-4-3 Pv
Panicum virgatum FLAME 1022-16-4-3 Pv genome sequencing
Panicum virgatum cultivar:FLAME 1022-16-3-10 Pv
Panicum virgatum FLAME 1022-16-3-10 Pv genome sequencing
Panicum virgatum cultivar:FLAME 1022-16-3-9 Pv
Panicum virgatum FLAME 1022-16-3-9 Pv genome sequencing
Panicum virgatum cultivar:FLAME 1022-16-3-8 Pv
Panicum virgatum FLAME 1022-16-3-8 Pv genome sequencing
Panicum virgatum cultivar:FLAME 1022-16-3-7 Pv
Panicum virgatum FLAME 1022-16-3-7 Pv genome sequencing
Panicum virgatum cultivar:FLAME 1022-16-3-6 Pv
Panicum virgatum FLAME 1022-16-3-6 Pv genome sequencing
Panicum virgatum cultivar:FLAME 1022-16-3-5 Pv
Panicum virgatum FLAME 1022-16-3-5 Pv genome sequencing
Panicum virgatum cultivar:FLAME 1022-16-3-4 Pv
Panicum virgatum FLAME 1022-16-3-4 Pv genome sequencing
Panicum virgatum cultivar:FLAME 1022-16-3-3 Pv
Panicum virgatum FLAME 1022-16-3-3 Pv genome sequencing
Panicum virgatum cultivar:FLAME 1022-16-3-2 Pv
Panicum virgatum FLAME 1022-16-3-2 Pv genome sequencing
Panicum virgatum cultivar:FLAME 1022-16-3-1 Pv
Panicum virgatum FLAME 1022-16-3-1 Pv genome sequencing
Panicum virgatum cultivar:FLAME 1022-16-2-3 Pv
Panicum virgatum FLAME 1022-16-2-3 Pv genome sequencing
Dissecting iNKT cell selection and subset differentiation in real-time
To systematically investigate the earliest phases of iNKT cell development and subsequent subset differentiation, we generated a genetic system to induce a timed wave of iNKT cell generation upon 4-hydroxytamoxifen (4-OHT) administration in mice bearing CD4-CreERt2 (Sledzinska et al., 2013) and Vα14iStopF (Vahl et al., 2013) knock-in transgenes. We globally investigated the transcriptional changes that guide early iNKT cell development by bulk 3’-sequencing of poly(A)-RNA of induced developing iNKT cells between 12h and 5d after induction in comparison to DP thymocytes, stage 0 CD24+ iNKT cells as well as NKT1, NKT2 and NKT17 mature subsets. Briefly, CD4-CreERt2 Vα14iStopF (± Traj18KO) mice were administered with 4-OHT and sacrificed at different timepoints after administration (between 12h and 120h). 1000 cells of the following samples were FACS purified for RNA-seq analyses: 9 timepoints of induced iNKT cells (from 12h to 120h) (gated as mCD1d-PBS57- Tetramer+ CD44low NK1.1−); DP = DP thymocytes (TCRβ− mCD1d-PBS57-Tetramer− CD4+ CD8+ CD69−); CD24+ = early wildtype iNKT cells (mCD1d-PBS57-Tetramer+ CD44− CD24+); NKT1 (mCD1d-PBS57-Tetramer+ CD44+ NK1.1+ CD27+ CD138−); NKT2 (mCD1d- PBS57-Tetramer+, NK1.1− PLZFeGFP+ ICOS+ IL17RB+ CD138−); NKT17 (mCD1d- PBS57-Tetramer+ CD19− ICOS+ CD138+). For each condition, four biological replicates were sequenced (except for 96h timepoint, where two samples of the same mouse where sequenced). For the NKT17 samples and two NKT2 samples, 2 mice were pooled. For CD24+ samples, 4-6 mice were pooled. Library preparation for bulk 3’-sequencing of poly(A)-RNA was done as described previously (Parekh et al., 2016). The library was sequenced on a NextSeq 500 (Illumina) with 16 cycles for the barcodes and UMIs and 50 cycles for the cDNA.
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