Zika virus dysregulates the expression of astrocytic genes involved in neurodevelopment.
Muhammad Adnan ShereenNadia BashirRui SuFang LiuKailang WuZhen LuoJian-Guo WuPublished in: PLoS neglected tropical diseases (2021)
Zika virus (ZIKV) is a kind of flavivirus emerged in French Polynesia and Brazil, and has led to a worldwide public health concern since 2016. ZIKV infection causes various neurological conditions, which are associated with fetus brain development or peripheral and central nervous systems (PNS/CNS) functional problems. To date, no vaccine or any specific antiviral therapy against ZIKV infection are available. It urgently needs efforts to explore the underlying molecular mechanisms of ZIKV-induced neural pathogenesis. ZIKV favorably infects neural and glial cells specifically astrocytes, consequently dysregulating gene expression and pathways with impairment of process neural cells. In this study, we applied a model for ZIKV replication in mouse primary astrocytes (MPAs) and profiled temporal alterations in the host transcriptomes upon ZIKV infection. Among the RNA-sequencing data of 27,812 genes, we examined 710 genes were significantly differentially expressed by ZIKV, which lead to dysregulation of numerous functions including neurons development and migration, glial cells differentiation, myelinations, astrocytes projection, neurogenesis, and brain development, along with multiple pathways including Hippo signaling pathway, tight junction, PI3K-Akt signaling pathway, and focal adhesion. Furthermore, we confirmed the dysregulation of the selected genes in MPAs and human astroglioma U251 cells. We found that PTBP1, LIF, GHR, and PTBP3 were upregulated while EDNRB and MBP were downregulated upon ZIKV infection. The current study highlights the ZIKV-mediated potential genes associated with neurodevelopment or related diseases.
Keyphrases
- zika virus
- induced apoptosis
- signaling pathway
- cell cycle arrest
- pi k akt
- dengue virus
- aedes aegypti
- gene expression
- public health
- endoplasmic reticulum stress
- oxidative stress
- cell death
- blood brain barrier
- cell proliferation
- genome wide
- single cell
- magnetic resonance imaging
- dna methylation
- neuropathic pain
- multiple sclerosis
- spinal cord injury
- computed tomography
- white matter
- risk assessment
- big data
- quality improvement
- artificial intelligence
- genome wide identification
- stress induced