Global Expression Profiling Identifies a Novel Hyaluronan Synthases 2 Gene in the Pathogenesis of Lower Extremity Varicose Veins

Lower extremities varicose veins (VV) are among the most easily recognized venous abnormalities. The genetic mechanism of VV is largely unknown. In this study, we sought to explore the global expressional change of VV and identify novel genes that might play a role in VV. We used next-generation rib...

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Veröffentlicht in:Journal of clinical medicine 2018-12, Vol.7 (12), p.537
Hauptverfasser: Hsieh, Chia-Shan, Tsai, Chia-Ti, Chen, Yau-Hung, Chang, Sheng-Nan, Hwang, Juey-Jen, Chuang, Eric Y, Wu, I-Hui
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Sprache:eng
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Zusammenfassung:Lower extremities varicose veins (VV) are among the most easily recognized venous abnormalities. The genetic mechanism of VV is largely unknown. In this study, we sought to explore the global expressional change of VV and identify novel genes that might play a role in VV. We used next-generation ribonucleic acid (RNA) sequence (RNA seq) technology to study the global messenger RNA expressional change in the venous samples of five diseased and five control patients. We identified several differentially expressed genes, which were further confirmed by conventional reverse transcription polymerase chain reaction (RT-PCR). Using these significant genes we performed in silico pathway analyses and found distinct transcriptional networks, such as angiogenesis, cell adhesion, vascular injury, and carbohydrate metabolisms that might be involved in the mechanism of VV. Among these significant genes, we also found hyaluronan synthases 2 gene ( ) played a pivotal role and governed all these pathways. We further confirmed that expression was decreased in the venous samples of patients with VV. Finally, we used a zebrafish model with fluorescence emitting vasculature and red blood cells to see the morphological changes of the venous system and blood flow. We found that knockdown in zebrafish resulted in dilated venous structural with static venous flow. may modulate the transcriptional networks of angiogenesis, cell adhesion, vascular injury, and carbohydrate metabolisms in venous tissues and downregulation of may underlie the mechanism of VV.
ISSN:2077-0383
2077-0383
DOI:10.3390/jcm7120537