41157 Gene septin 5
- Known as:
- 41157 Gene septin 5
- Catalog number:
- 41157
- Category:
- -
- Supplier:
- Transposagen
- Gene target:
- 41157 Gene septin 5
Ask about this productRelated genes to: 41157 Gene septin 5
- Gene:
- FOXD3 NIH gene
- Name:
- forkhead box D3
- Previous symbol:
- -
- Synonyms:
- Genesis, HFH2
- Chromosome:
- 1p31.3
- Locus Type:
- gene with protein product
- Date approved:
- 1999-12-22
- Date modifiied:
- 2015-08-25
Related products to: 41157 Gene septin 5
α - Calcitonin Gene Related Peptide, α - CGRP, rat-14 gene protein,Alpha-globin regulatory element-containing gene protein,C16orf35,CGTHBA,Homo sapiens,Human,MARE,Nitrogen permease regulator 3-like protein,NPRL3,Protein CGTHBA10.3 kDa proline-rich protein DAMS,DAMS,Homo sapiens,Human,SMAD5 antisense gene protein 1,SMAD5 antisense RNA 1,SMAD5 opposite strand protein,SMAD5-AS1,SMAD5OS14-3-3 β_α Polyclonal Antibody, Reactivity: H M R, Gene ID: 7529, Synonyms: YWHAB14-3-3 β_α Polyclonal Antibody, Reactivity: H M R, Gene ID: 7529, Synonyms: YWHAB14-3-3 ε Polyclonal Antibody, Reactivity: H M R , Gene ID: 7531, Synonyms: YWHAE14-3-3 ε Polyclonal Antibody, Reactivity: H M R , Gene ID: 7531, Synonyms: YWHAE14-3-3 ζ_δ Polyclonal Antibody, Reactivity: H M R , Gene ID: 7534, Synonyms: YWHAZ14-3-3 ζ_δ Polyclonal Antibody, Reactivity: H M R , Gene ID: 7534, Synonyms: YWHAZ14-3-3 τ Polyclonal Antibody, Reactivity: H M R, Gene ID: 10971, Synonyms: YWHAQ14-3-3 τ Polyclonal Antibody, Reactivity: H M R, Gene ID: 10971, Synonyms: YWHAQ14_3_3_sigma (SFN) Gene Promoter Reporter Vector15-oxoprostaglandin 13-reductase,D3T-inducible gene 1 protein,Dig1,DIG-1,Dithiolethione-inducible gene 1 protein,Ltb4dh,NADP-dependent leukotriene B4 12-hydroxydehydrogenase,PRG-1,Prostaglandin reduct160 kDa nucleoporin,Gene trap locus 1-13 protein,Gtl1-13,GTL-13,Kiaa0197,Mouse,Mus musculus,Nuclear pore complex protein Nup160,Nucleoporin Nup160,Nup16018 kDa Sin3-associated polypeptide,2HOR0202,Cell growth-inhibiting gene 38 protein,GIG38,Histone deacetylase complex subunit SAP18,Homo sapiens,Human,SAP18,Sin3-associated polypeptide p18 Related articles to: 41157 Gene septin 5
- The neural crest is a vertebrate stem cell population with broad developmental potential. While a gene regulatory network describing establishment of these cells has been generated, much remains to be learned about the dynamics of this process. Here, we use fluorescent in situ hybridization chain reaction to quantify the spatiotemporal dynamics of neural crest formation in Xenopus. We find that the initial onset of neural crest genes is broad and partially overlapping, with distinct anterior-posterior and medio-lateral biases. A shared neural crest domain emerges, but some genes retain relative expression differences that persist into migratory stages, producing stream-specific gene expression patterns. These differences correlate with dynamic expression of the neural plate border factors pax3 and zic1. Correlating relative intensities of pax3 and zic1 with the presence or absence of nascent neural crest transcripts predicts that these factors can differentially regulate snai2 and sox8, which we confirm experimentally. Strikingly, later stages display an inverse correlation between neural crest and neural plate border factors, suggesting that pax3 and zic1 initially promote neural crest gene activation but are downregulated as neural crest identity emerges. - Source: PubMed
Publication date: 2026/02/20
Montequin AndrewLaBonne Carole - Motor Exit Point (MEP) glia are spinal cord-derived glial cells that myelinate peripheral motor axons, bridging the central and peripheral nervous systems. They have a hybrid profile, sharing features with oligodendrocytes and Schwann cells. Yet, significant gaps remain in our understanding of complex MEP glial lineage and identity. MEP glia express neural tube and canonical oligodendrocyte lineage markers and , as well as the neural crest marker . Here, we show that the oligodendrocyte markers and are not expressed in MEP glia. These findings refine the molecular signature of MEP glia, enhancing their peripheral identity. - Source: PubMed
Publication date: 2026/01/21
Dallo Tessa CFontenas Laura - Precise genome editing remains a major challenge in functional genomics, particularly for generating knock-in (KI) alleles in model organisms. Here, we introduce the mini-golden system, a versatile Golden Gate-based subcloning platform that enables rapid assembly of donor constructs containing homology arms and a gene of interest. This system offers a library of middle entry vectors including diverse genes, enhancing the preparation of donor minicircles for KI applications. Using the mini-golden system, we efficiently generated a foxd3CreER KI zebrafish line, allowing conditional recombination in neural crest cells. To further improve genome editing precision, we developed a synthetic exon-based donor template strategy combined with fluorescence screening. Using this approach, we successfully engineered a targeted isoleucine-to-valine substitution (Ile-to-Val) in hbaa1.2, one of the two adult hemoglobin alpha genes in zebrafish. Importantly, despite the high sequence similarity between hbaa1.2 and its paralog hbaa1.1, our strategy specifically edited hbaa1.2, demonstrating the effectiveness of the synthetic exon approach. This method minimized undesired recombination and significantly improved the identification of lines carrying the edited genome. Together, we provide a robust toolkit for efficient and precise genome engineering in zebrafish, with broad applicability to other model systems. - Source: PubMed
Publication date: 2026/02/18
Rodriguez-Parks AnjelicaBeezley Ella GraceManna SteffaniSilaban IsabellaAlmutawa Sarah ICao SiyangAhmed HossamGuyer MeganBaker SeanRichards Mark PKang Junsu - The roles of long noncoding RNA SENCR (lncRNA SENCR) and its variant rs12420823 in triple-negative breast cancer (TNBC) susceptibility, progression, and molecular mechanisms remain unclear. thus, this study investigated the association of lncRNA SENCR and rs12420823 with TNBC risk and prognosis and explored the functional SENCR/miR-3648/FOXD3 axis. This study involving 205 TNBC patients and 203 controls, the rs12420823 polymorphism was genotyped and clinically correlated, revealing that the C allele is associated with reduced TNBC risk, while the TT genotype correlates with larger tumors, lymph node metastasis, advanced stage, and poorer survival. Prognosis was evaluated using Kaplan. The lncRNA SENCR and its variant rs12420823 play significant roles in TNBC Meier survival analysis and multivariate Cox regression. Through qRT-PCR analysis of serum and cell lines, lncRNA SENCR was found downregulated in TNBC, especially in TT genotype carriers. Mechanistic investigations, including luciferase reporter and RNA immunoprecipitation (RIP) assays, demonstrated that lncRNA SENCR directly binds to miR-3648, which targets FOXD3. Functional assays such as MTT and Transwell experiments showed that SENCR overexpression suppresses TNBC cell proliferation, migration, and invasion, effects reversed by a miR-3648 mimic. Furthermore, SENCR upregulates FOXD3 mRNA, an effect also abolished by miR-3648. In conclusion, the rs12420823 C allele confers protection against TNBC, and lncRNA SENCR acts as a tumor suppressor by sponging miR-3648 to regulate FOXD3, underscoring its prognostic and therapeutic relevance. - Source: PubMed
Publication date: 2026/01/07
Kong LingjunXue JiajieYang JiaqiChen JianxingMo Caiqin - Unlike regeneration-competent species, mammals lack epimorphic regeneration capacity, except for the most distal part of their digits. Here, we show that E10.5 mouse embryos can initiate regeneration of their forelimb bud (FB), but this capacity is lost by E12.5. Using comparative transcriptomics and in vivo lineage tracing approaches in the mouse embryo, we were able to identify a population of neural crest-derived cells (NCdCs) reexpressing early NC lineage molecular markers, and , specifically associated with regeneration at E10.5. Functional studies further reveal that these cells are required for FB regeneration and that the regenerative capacity lost in limb buds lacking NCdCs can be restored by exogenous transplantation of neural crest cells at E10.5. This work provides valuable information on the potential and prerequisites for regeneration in mammals. - Source: PubMed
Publication date: 2025/12/23
Laplace-Builhé BérylTejedor GautierDe La Cruz JholyBarthelaix AudreyMarmigère FrédéricSapède DoraBahraoui SarahDiouloufet LucieVentéo StéphanieCollignon JérômeJorgensen ChristianDjouad Farida