Identification and characterization of artery and vein enhancers in the human genome
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ABSTRACT:
ORGANISM(S): Homo sapiens
PROVIDER: GSE128382 | GEO | 2020/02/14
REPOSITORIES: GEO
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Project description:Identification and characterization of artery and vein enhancers in the human genome
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Project description:Primary outcome(s): metastasis rate of lymph nodes around ileocolic artery and vein
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Project description:The goal and objective of this study was to identify the transcriptional profiles differentiating the artery, vein, and lymphatic lineages in the adult rat vasculature with particular emphasis on the unique elements of the collecting lymphatic vessel transcriptome. A 2 x 3 experimental design was utilized in which parallel arteries, veins, and lymphatics from two different tissue beds were examined. The rat thoracic duct was selected as a large, post-nodal collecting lymphatic vessel that exhibits excellent conduit-type behavior while the rat mesenteric lymphatic was selected as a smaller, pre-nodal collecting lymphatic vessel that exhibits excellent pump behavior (see Gashev AA, et al. Microcirculation. 2004 Sep;11(6):477-92. [PMID: 15371129]). The axillary artery and vein were selected for comparison to the thoracic duct due to their similar anatomical position distal to the common junction of the lymphatic and venous vascular trees and represent a large artery and large vein, respectively. The mesentery artery and vein were selected for comparison to the mesenteric lymphatic vessels due to their parallel position within the mesenteric vasculature and represent a small atery and small vein, respectively.
2012-06-23 | GSE17015 | GEO
Project description:Endothelial cells (EC) lining arteries and veins have distinct molecular and functional signatures. The (epi)genetic regulatory mechanisms underlying this heterogeneity in human EC are incompletely understood. Using genome-wide microarray screening we established a specific fingerprint of freshly isolated arterial (HUAEC) and venous EC (HUVEC) from human umbilical cord comprising 64 arterial and 12 venous genes, representing distinct functions and pathways. Among the arterial genes were 8 transcription factors, including HEY2, a downstream target of Notch signaling and the current ‘golden standard’ pathway for arterial EC specification. Short-term culture of HUAEC or HUVEC abrogated differential gene expression resulting in a default state. Erasure of arterial gene expression was at least in part due to loss of canonical Notch activity and HEY2 expression. Notably, nCounter analysis revealed that restoring HEY2 expression or Delta-like 4 (Dll4)-induced Notch signaling in cultured HUVEC or HUAEC only partially reinstated the arterial EC gene signature while combined overexpression of the 8 transcription factors restored this fingerprint much more robustly. Each transcription factor had a different impact on gene regulation, with some stimulating only few and others boosting a large proportion of arterial genes. Interestingly, although there was some overlap and cross-regulation, the transcription factors largely complemented each other in regulating the arterial EC gene profile. Thus, our study showed that Notch signaling determines only part of the arterial EC signature and identified additional novel and complementary transcriptional players in the complex regulation of human arteriovenous EC identity To identify an arteriovenous (AV) fingerprint in human endothelial cells (EC) across different vascular beds, we used microarrays on RNA from 38 EC samples corresponding to 6 cultured human arterial-EC types (hepatic artery EC or HHAEC, N=3; aorta EC or HAEC, N=2; coronary artery EC or HCAEC, N=2; iliac artery EC or HIAEC, N=2; pulmonary artery EC or HPAEC, N=3; and umbilical artery EC or HUAEC-C, N=5), 4 cultured human venous-EC types (hepatic vein EC or HHVEC, N=3; iliac vein EC or HIVEC, N=3; pulmonary vein EC or HPVEC, N=2; and umbilical vein EC or HUVEC-C, N=5), freshly isolated HUAEC (HUAEC-F, N=4) and freshly isolated HUVEC (HUVEC-F, N=4). Due to the difficulty to obtain biopsies from healthy donors, we did not have access to freshly isolated aEC or vEC matched for all cultured EC types.
2014-01-07 | E-GEOD-43475 | biostudies-arrayexpress
Project description:Occlusive artery disease (CAD) is the leading cause of death worldwide. Bypass graft surgery remains the prevalently performed treatments for occlusive arterial disease, and veins are the most frequently used conduits for surgical revascularization. However, clinical efficacy is highly affected by the long-term potency rates of vein grafts, and no optimal treatments are available for prevention of vein graft restenosis (VGR) until today. Therefore, it is urgent to improve the understanding of molecular mechanisms involved in mediating VGR, and thereby provide potential potent therapeutic targets for prevention of vein graft failure. In this study, we aim to explore potential crucial genes and pathways associated with VGR and provide valid biological information for further investigation of VGR.
2018-05-23 | GSE110398 | GEO
Project description:We performed a transcriptome-wide study to compare gene expression profiles of ECFC, human coronary artery endothelial cells (HCAEC) and human umbilical vein endothelial cells (HUVEC) utilising subcutaneous adipose tissue-derived stromal vascular fraction (SAT-SVF) as a negative control population. Baseline gene expression in ECFC fully corresponds to their endothelial specification and may contribute to the basement membrane organisation, fulfilling the requirements for the suitable cell population for in vitro pre-endothelialisation of tubular scaffolds.
2019-05-31 | GSE131995 | GEO
Project description:The goal and objective of this study was to identify the transcriptional profiles differentiating the artery, vein, and lymphatic lineages in the adult rat vasculature with particular emphasis on the unique elements of the collecting lymphatic vessel transcriptome. A 2 x 3 experimental design was utilized in which parallel arteries, veins, and lymphatics from two different tissue beds were examined. The rat thoracic duct was selected as a large, post-nodal collecting lymphatic vessel that exhibits excellent conduit-type behavior while the rat mesenteric lymphatic was selected as a smaller, pre-nodal collecting lymphatic vessel that exhibits excellent pump behavior (see Gashev AA, et al. Microcirculation. 2004 Sep;11(6):477-92. [PMID: 15371129]). The axillary artery and vein were selected for comparison to the thoracic duct due to their similar anatomical position distal to the common junction of the lymphatic and venous vascular trees and represent a large artery and large vein, respectively. The mesentery artery and vein were selected for comparison to the mesenteric lymphatic vessels due to their parallel position within the mesenteric vasculature and represent a small atery and small vein, respectively. A 2 x 3, reference-based, experimental design was utilized consisting of both large (thoracic) and small (mesenteric) arteries, veins, and collecting lymphatic vessels for a total of 6 sample groups with n=6 biological replicates present in each group. All vessels acquired from the same donor animal have the same numerical label and were handled in parallel through all experimental steps. Each vessel sample RNA sample was amplified, labeled with Cy5, and compared to the same Rat Universal Reference RNA sample (Stratagene, La Jolla, CA) that was amplified and labeled with Cy3 dye. No dye swaps were utilized.
2012-06-22 | E-GEOD-17015 | biostudies-arrayexpress
Project description:To further development of our gene expression approach to cardiovascular disease, we have employed microarray expression profiling as a discovery platform to identify genes with the potential to distinguish the therapeutic target of the vein graft restenosis following coronary artery bypass grafting. Vein graft samples were obtained from model rats which received external jugular vein-carotid bypass grafting at different postoperative timepoints (n=3/group; day 7, 14 and 28, respectively). Vein samples were also obtained from control rats without vascular grafting (n=3/group; day 0). Time-dependent gene expression profiles were described with microarray analysis. Expression of three lncRNA-mRNA pairs (AF062402-Src, BC091437-Edg1 and BC166461- Mcam) from this signature were quantified in the same RNA samples by real-time PCR, confirming the accuracy of the microarray data.
2020-06-16 | GSE152538 | GEO
Project description:Background: Clinical failure of arteriovenous fistulae (AVF) is frequently due to juxta-anastomotic neointimal hyperplasia (JANIH). Although the mouse AVF model recapitulates human AVF maturation, previous studies focused on the outflow vein distal to the anastomosis. We hypothesized that the juxta-anastomotic area (JAA) has increased NIH compared to the outflow vein. Method: AVF were created in C57BL/6 mice without or with chronic kidney disease (CKD). Temporal and spatial changes of the JAA were examined using histology and immunofluorescence. Computational techniques were used to model the AVF. RNA-seq and bioinformatic analyses were performed to compare the JAA with the outflow vein. The jugular vein to carotid artery AVF model was created in Wistar rats. Result: The neointima in the JAA shows increased volume compared to the outflow vein. Computational modeling shows increased volume of disturbed flow at the JAA compared to the outflow vein. Endothelial cells are immediately lost from the wall contralateral to the fistula exit, followed by thrombus formation and JANIH. Gene Ontology (GO) enrichment analysis of the 1862 differentially expressed genes (DEG) between the JANIH and the outflow vein identified 525 overexpressed genes. The rat jugular vein to carotid artery AVF showed changes similar to the mouse AVF. Conclusion: Disturbed flow through the JAA correlates with rapid endothelial cell loss, thrombus formation, and JANIH; late endothelialization of the JAA channel correlates with late AVF patency. Early thrombus formation in the JAA may influence later development of JANIH.
2023-12-08 | GSE249267 | GEO
Project description:We reported the RNAseq analyses of pulmonary vein tissues at the age of postnatal day 21 (P21) on SD rats with or without pulmonary vein stenosis. Pulmonary vein stenosis was induced by performing pulmonary vein banding surgery within 24 hours postnatally. RNAseq analyses of the pulmonary vein tissues was generated at P21 from 3 sham-operated rats and 3 pulmonary vein banding rats. The results revealed that there were 1124 differentially expressed genes between PAB and sham group at P7, among which 714 were upregulated and 410 were downregulated.
2024-07-10 | GSE267175 | GEO