Monika Gladka (@monikagladka) 's Twitter Profile
Monika Gladka

@monikagladka

Assistant Professor I Principal Investigator I Amsterdam UMC I Medical Biology I 🫀🧫Cardiac repair I 🧬Single-cell sequencing I Gene therapy I ISHR-ES

ID: 825774295888576512

calendar_today29-01-2017 18:35:09

264 Tweet

863 Followers

633 Following

ISHR European Section (@ishr_es) 's Twitter Profile Photo

After a wonderful meeting of the European Section in Toulouse, we are now looking forward to the International Congress in beautiful Nara, Japan. Book your flights and accommodation early! ishr2025nara.jp/index.html #cardiovascular ISHR International ECI Committee MCI-ISHR Early Career Investigators @ISHR North America ISHR North American Section ISHR Australasian Section

After a wonderful meeting of the European Section in Toulouse, we are now looking forward to the International Congress in beautiful Nara, Japan. Book your flights and accommodation early! ishr2025nara.jp/index.html #cardiovascular <a href="/ISHR_ECI/">ISHR International ECI Committee</a> <a href="/IshrMci/">MCI-ISHR</a> <a href="/ECI_ISHR/">Early Career Investigators @ISHR North America</a> <a href="/ISHR_NAS/">ISHR North American Section</a> <a href="/ISHR_AUS/">ISHR Australasian Section</a>
Monika Gladka (@monikagladka) 's Twitter Profile Photo

Did you know that genetically modified pigs could revolutionize organ transplantation? PRV's latest podcast delves into how pig organs, when appropriately gene-modified and immunologically matched, can be a viable solution for overcoming the critical shortage of human organ

Monika Gladka (@monikagladka) 's Twitter Profile Photo

Discover how early extracellular matrix (ECM) softening triggers thoracic aortic dissection (TAD) by down-regulating microRNA-143/145, leading to vascular smooth muscle cell phenotype switching. The latest study published in @JMCCCardiology highlights miR-143/145 as a potential

Journal of Molecular and Cellular Cardiology (@jmccardiology) 's Twitter Profile Photo

Open access alert! Inhibition of #autophagy prevents #cardiac dysfunction at early stages of #cardiomyopathy in Bag3-deficient hearts: buff.ly/4fwua9g Dr Kate Weeks @monikagladka @vagnozzirj Elsevier Cardiology

Open access alert! Inhibition of #autophagy prevents #cardiac dysfunction at early stages of #cardiomyopathy in Bag3-deficient hearts: buff.ly/4fwua9g 

<a href="/k8weeks/">Dr Kate Weeks</a> @monikagladka @vagnozzirj <a href="/ELS_Cardiology/">Elsevier Cardiology</a>
Journal of Molecular and Cellular Cardiology (@jmccardiology) 's Twitter Profile Photo

Study by Mohammed Abdul and colleagues reveals a novel mechanism by which nicotine regulates PHLPP1 expression through ERK-4E-BP1 signaling axis to drive cardiomyocyte injury: buff.ly/4co8cm4 Dr. Nikki Purcell Khaja Shameem, PhD Dr Kate Weeks @vagnozzirj @monikagladka Elsevier Cardiology

Study by Mohammed Abdul and colleagues reveals  a novel mechanism by which nicotine regulates PHLPP1 expression through ERK-4E-BP1 signaling axis to drive cardiomyocyte injury: buff.ly/4co8cm4 

<a href="/nhpetunia/">Dr. Nikki Purcell</a> <a href="/khajashameem/">Khaja Shameem, PhD</a> <a href="/k8weeks/">Dr Kate Weeks</a> @vagnozzirj @monikagladka <a href="/ELS_Cardiology/">Elsevier Cardiology</a>
Monika Gladka (@monikagladka) 's Twitter Profile Photo

Did you know that glucose levels in your body are tightly regulated not just by insulin and glucagon, but also by your brain? The central nervous system plays a key role by monitoring glucose concentrations and controlling the release of these hormones to maintain balance! Check

Journal of Molecular and Cellular Cardiology (@jmccardiology) 's Twitter Profile Photo

Open Access alert! Study by Mohammed Abdul and colleagues reveals a novel mechanism by which nicotine regulates PHLPP1 expression through ERK-4E-BP1 signaling axis to drive cardiomyocyte injury: buff.ly/4co8cm4 Dr. Nikki Purcell Khaja Shameem, PhD Dr Kate Weeks @vagnozzirj @monikagladka

Open Access alert! Study by Mohammed Abdul and colleagues reveals a novel mechanism by which nicotine regulates PHLPP1 expression through ERK-4E-BP1 signaling axis to drive cardiomyocyte injury: buff.ly/4co8cm4 

<a href="/nhpetunia/">Dr. Nikki Purcell</a> <a href="/khajashameem/">Khaja Shameem, PhD</a> <a href="/k8weeks/">Dr Kate Weeks</a> @vagnozzirj @monikagladka
Monika Gladka (@monikagladka) 's Twitter Profile Photo

While reperfusion saves the heart after a heart attack, it can paradoxically cause further damage to the heart. This review, published in Physiological Reviews by Stéphanie Barrère-Lemaire and colleagues, dives into the mechanisms behind ischemia-reperfusion injury and explores how