This review summarizes the key receptors, regulatory mechanisms, and the latest research on ER-phagy in various inflammation-related diseases, aiming to draw academic attention to the important value of ER-phagy in inflammatory diseases.
Abstract
The endoplasmic reticulum (ER) is responsible for the synthesis, modification, and folding of various intracellular proteins. Under strong external stimuli, the ER often undergoes significant structural disorganization and functional abnormalities, a process that generally accelerates the onset and progression of inflammatory responses and related diseases, such as infections and sepsis, digestive system diseases, cancer, neurological disorders, circulatory diseases, and musculoskeletal diseases. Therefore, maintaining ER homeostasis is crucial for delaying the inflammatory process. As an important type of selective autophagy, ER-phagy has transcended merely “waste removal” to become a key cellular hub integrating immune and stress signals. It not only effectively curbs the excessive activation of the NF-κB pathway and the NLRP3 inflammasome by timely clearing inflammatory pathogens and ER fragments damaged by calcium store abnormalities and oxidation but also maintains immune cell homeostasis, thereby inhibiting the initiation and spread of excessive inflammatory responses. This review summarizes the key receptors, regulatory mechanisms, and the latest research on ER-phagy in various inflammation-related diseases, aiming to draw academic attention to the important value of ER-phagy in inflammatory diseases.
In insights on the research regarding therapeutic approaches of NDs which intend to target molecular components, a general understanding of proteostasis, ER stress, UPR signalling and how these cellular processes are related to neurodegeneration is provided.
E. Çoban, A. Cerkezkayabekir· Neurochemical Journal· 0 citations
This review delineates how the canonical UPR sensors transduce metabolic stress into pro-inflammatory signaling cascades and discusses the organ-specific consequences of ERS in the liver, pancreas, adipose tissue, vascular endothelium, and hypothalamus, highlighting how this stress sustains a self-reinforcing cycle of...
B. Wen, Xiaojin Wu, Kaiying Zhang et al.· Pharmacological Research· 0 citations
The LSR network is established as a central regulator of cellular homeostasis, thereby emerging as a promising therapeutic target in cancer and other lysosome-associated disorders.
Amruta Singh, Soumyadip Sinha, Prakash Kumar Senapati et al.· Biochimica et biophysica act...· 0 citations
How cells balance this tightrope between adaptation and cell death in the context of cancer is dissected, and how UPR signaling drives angiogenesis, metastasis, immune-evasion, and chemoresistance is explored before finally discussing its therapeutic potential.
It is posited that these are divergent manifestations of a common ancestral homeostatic process of membrane atg8ylation and provide an overview of how they affect immunity and inflammation.
This review systematically synthesizes the molecular mechanisms governing macrophage autophagy and its dual role in allergic diseases, and summarizes potential therapeutic strategies targeting macrophage autophagy, such as budesonide/simvastatin combination therapy and rapamycin derivatives, along with their clinical t...
Kaihang Fan, Zhaowei Gu, Yunxiu Wang· International Immunopharmaco...· 0 citations
We use cookies to run the site and, with your consent, for analytics and to show ads.
See our Cookie Policy.