Primers used in RTqPCR. by Lorenza Cutrone (21144285)

“…In lymphatic endothelial cells infected with KSHV and in gastric cancer cells positive for EBV, ectopic HSF2 enhances the expression of lytic genes; While knocking down HSF2 significantly decreases their expression. HSF2 overexpression is accompanied by decreased levels of repressive histone marks at the promoters of the lytic regulators KSHV ORF50 and EBV BZLF1, both characterized by poised chromatin features. …”

HSF2 regulates ORF50 expression in an RTA independent manner. by Lorenza Cutrone (21144285)

HSF2 regulates lytic gene expression in latency and during the lytic phase. by Lorenza Cutrone (21144285)

HEK.219 cells were treated with the indicated siRNAs for 24h. by Lorenza Cutrone (21144285)

HSF2 binds the ORF50 promoter and remodels the local chromatin landscape. by Lorenza Cutrone (21144285)

qPCR and Western blotting of CK8 knockdown blocking the rTsSPc-activated pathway and -reduced TJs expression. by Wen Wen Zheng (17721404)

The ROCK1 pathway inhibitor Y27632 prevented rTsSPc from activating the ROCK1 pathway and reducing TJs expression. by Wen Wen Zheng (17721404)

PAS staining of intestinal sections from <i>T. spiralis</i>-infected mice pretreated with DAS and Y27632. by Wen Wen Zheng (17721404)

Effects of allopurinol on PG-LPS-induced phospho-CaMKII by Akinaka Morii (12709672)

Effects of allopurinol on PG-LPS-induced increases in NOX4 by Akinaka Morii (12709672)

HSF2 is degraded during KSHV lytic reactivation. by Lorenza Cutrone (21144285)

Juvenile demyelination impairs the maturation of PV interneurons in the PFC. by Sara Hijazi (21656615)

“…Average action potential (AP) frequency in response to 0-650 pA current steps illustrating a significant decrease in PV interneuron firing frequency in cuprizone-treated mice. …”

All data points from Fig 2. by Sara Hijazi (21656615)

“…We also found a significant impairment in PV interneuron autaptic self-inhibitory transmission, a feature implicated in temporal control of PV interneuron firing during cortical network activity. …”

All data points from Fig 5. by Sara Hijazi (21656615)

“…We also found a significant impairment in PV interneuron autaptic self-inhibitory transmission, a feature implicated in temporal control of PV interneuron firing during cortical network activity. …”

All data points from Fig 8. by Sara Hijazi (21656615)

“…We also found a significant impairment in PV interneuron autaptic self-inhibitory transmission, a feature implicated in temporal control of PV interneuron firing during cortical network activity. …”

All data points from Fig 3. by Sara Hijazi (21656615)

“…We also found a significant impairment in PV interneuron autaptic self-inhibitory transmission, a feature implicated in temporal control of PV interneuron firing during cortical network activity. …”

All data points from Fig 1. by Sara Hijazi (21656615)

“…We also found a significant impairment in PV interneuron autaptic self-inhibitory transmission, a feature implicated in temporal control of PV interneuron firing during cortical network activity. …”

All data points from Fig 4. by Sara Hijazi (21656615)

“…We also found a significant impairment in PV interneuron autaptic self-inhibitory transmission, a feature implicated in temporal control of PV interneuron firing during cortical network activity. …”

All data points from Fig 9. by Sara Hijazi (21656615)

“…We also found a significant impairment in PV interneuron autaptic self-inhibitory transmission, a feature implicated in temporal control of PV interneuron firing during cortical network activity. …”

All data points from Fig 7. by Sara Hijazi (21656615)

“…We also found a significant impairment in PV interneuron autaptic self-inhibitory transmission, a feature implicated in temporal control of PV interneuron firing during cortical network activity. …”