Pharmacology of the WNT Signaling System

Gunnar Schulte · Pawel Kozielewicz

2021년 10월 · Handbook of Experimental Pharmacology 269권 · Springer Nature

eBook

422

페이지

검증되지 않은 평점과 리뷰입니다. 자세히 알아보기

eBook 정보

This book reflects the state of the art of our understanding of the WNT signaling system, which comprises a network of signaling pathways initiated by the secreted WNT lipoglycoproteins, which are crucial for embryonal development, stem cell regulation, tissue homeostasis and repair. Dysfunction of this evolutionarily conserved signaling system leads to many diseases including developmental disorders, diverse forms of cancer, fibrosis, neurodegenerative disease and many more. The WNT signaling system is built upon 19 mammalian, secreted WNT lipoglycoproteins that interact with a plethora of distinct receptors, such as the G protein-coupled receptors called Frizzleds (FZD1-10), LDL receptor-like proteins (LRP5/6), receptor tyrosine kinases (ROR1, 2, RYK and PTK7). In addition, WNT pathways are tightly regulated by many secreted and cell-intrinsic negative regulators, such as soluble FZD-related proteins (SFRPs), Dickkopfs (DKKs), WNT-inhibitory proteins, TIKI, RNF43 and more. Understanding the basic mechanism in terms of receptor-ligand interaction, receptor selectivity, signal initiation and desensitization remain poorly understood, even though substantial advances have been made the recent years. Due to the involvement of the WNT signaling system in human disease, it appears obvious to target diverse branches pharmacologically and therapeutically. However, given the complexity of the system and its importance for stem cell regulation and tissue maintenance, therapy comes with obvious risks for severe side effects. The field is addressing the challenge to identify suitable targets and selective compounds for therapy allowing disease-selective therapeutic effects and balancing unwanted side effects. This book summarizes the current understanding of the basic and applied pharmacology in the WNT signaling system and bridges disciplines such as pharmacology, physiology, neurosciences, oncology and drug development.