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      Multiple molecular and cellular mechanisms of the antitumour effect of dihydromyricetin (Review)

      review-article
      ,
      Biomedical Reports
      D.A. Spandidos
      dihydromyricetin, proliferation, apoptosis, reactive oxygen species, drug combination

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          Abstract

          Dihydromyricetin (DHM) is a natural flavonoid compound with multiple antitumour effects, including inhibition of proliferation, promotion of apoptosis, inhibition of invasion and migration, clearance of reactive oxygen species (ROS) and induction of autophagy. For example, DHM can effectively block the progression of the tumour cell cycle and inhibit cell proliferation. In different types of cancer cells, DHM can regulate the PI3K/Akt pathway, mTOR, and NF-κB pathway components, such as p53, and endoplasmic reticulum stress can alter the accumulation of ROS or induce autophagy to promote the apoptosis of tumour cells. In addition, when DHM is used in combination with various known chemotherapy drugs, such as paclitaxel, nedaplatin, doxorubicin, oxaliplatin and vinblastine, it can increase the sensitivity of tumour cells to DHM and increase the therapeutic effect of chemotherapy drugs. In the present review, the multiple molecular and cellular mechanisms underlying the antitumour effect of DHM, as well as its ability to increase the effects of various traditional antitumour drugs were summarized. Through the present review, it is expected by the authors to draw attention to the potential of DHM as an antitumour drug and provide valuable references for the clinical translation of DHM research and the development of related treatment strategies.

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          Most cited references97

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          The machinery of macroautophagy.

          Autophagy is a primarily degradative pathway that takes place in all eukaryotic cells. It is used for recycling cytoplasm to generate macromolecular building blocks and energy under stress conditions, to remove superfluous and damaged organelles to adapt to changing nutrient conditions and to maintain cellular homeostasis. In addition, autophagy plays a critical role in cytoprotection by preventing the accumulation of toxic proteins and through its action in various aspects of immunity including the elimination of invasive microbes and its participation in antigen presentation. The most prevalent form of autophagy is macroautophagy, and during this process, the cell forms a double-membrane sequestering compartment termed the phagophore, which matures into an autophagosome. Following delivery to the vacuole or lysosome, the cargo is degraded and the resulting macromolecules are released back into the cytosol for reuse. The past two decades have resulted in a tremendous increase with regard to the molecular studies of autophagy being carried out in yeast and other eukaryotes. Part of the surge in interest in this topic is due to the connection of autophagy with a wide range of human pathophysiologies including cancer, myopathies, diabetes and neurodegenerative disease. However, there are still many aspects of autophagy that remain unclear, including the process of phagophore formation, the regulatory mechanisms that control its induction and the function of most of the autophagy-related proteins. In this review, we focus on macroautophagy, briefly describing the discovery of this process in mammalian cells, discussing the current views concerning the donor membrane that forms the phagophore, and characterizing the autophagy machinery including the available structural information.
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            Targeting autophagy in cancer

            Background Autophagy is a conserved, self-degradation system that is critical for maintaining cellular homeostasis during stress conditions. Dysregulated autophagy has implications in health and disease. Specifically, in cancer, autophagy plays a dichotomous role by inhibiting tumor initiation but supporting tumor progression. Early results of clinical trials repurposing hydroxychloroquine for cancer suggest autophagy inhibition could be a promising approach for advanced cancers. Methods Literature Review Results Here we review fundamental advances in the biology of autophagy, approaches to targeting autophagy, the preclinical rationale and clinical experience with HCQ in cancer clinical trials, the potential role of autophagy in tumor immunity, and recent developments in next generation autophagy inhibitors that have clinical potential. Conclusions Autophagy is a promising target for drug development in cancer.
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              Apoptosis and apoptotic body: disease message and therapeutic target potentials

              Apoptosis is widely known as programmed cell death eliciting no inflammatory responses. The intricacy of apoptosis has been a focus of an array of researches, accumulating a wealth of knowledge which led to not only a better understanding of the fundamental process, but also potent therapies of diseases. The classic intrinsic and extrinsic signaling pathways of apoptosis, along with regulatory factors have been well delineated. Drugs and therapeutic measures designed based on current understanding of apoptosis have long been employed. Small-molecule apoptosis inducers have been clinically used for eliminating morbid cells and therefore treating diseases, such as cancer. Biologics with improved apoptotic efficacy and selectivity, such as recombinant proteins and antibodies, are being extensively researched and some have been approved by the FDA. Apoptosis also produces membrane-bound vesicles derived from disassembly of apoptotic cells, now known as apoptotic bodies (ApoBDs). These little sealed sacs containing information as well as substances from dying cells were previously regarded as garbage bags until they were discovered to be capable of delivering useful materials to healthy recipient cells (e.g., autoantigens). In this review, current understandings and knowledge of apoptosis were summarized and discussed with a focus on apoptosis-related therapeutic applications and ApoBDs.
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                Author and article information

                Journal
                Biomed Rep
                Biomed Rep
                BR
                Biomedical Reports
                D.A. Spandidos
                2049-9434
                2049-9442
                May 2024
                26 March 2024
                26 March 2024
                : 20
                : 5
                : 82
                Affiliations
                National Clinical Research Center for Child Health, The Children's Hospital of Zhejiang University School of Medicine, Hangzhou, Zhejiang 310052, P.R. China
                Author notes
                Correspondence to: Professor Runzhi Zhu, National Clinical Research Center for Child Health, The Children's Hospital of Zhejiang University School of Medicine, 3333 Binsheng Road, Changhe Street, Binjiang, Hangzhou, Zhejiang 310052, P.R. China doctor_heart_wanglijunemail.ncu.edu.cn runzhizhu@ 123456zju.edu.cn
                Article
                BR-20-5-01769
                10.3892/br.2024.1769
                11019658
                38628627
                fd08426f-2d52-4d96-8a77-2f35ff81191d
                Copyright: © 2024 Xia and Zhu.

                This is an open access article distributed under the terms of the Creative Commons Attribution-NonCommercial-NoDerivs License, which permits use and distribution in any medium, provided the original work is properly cited, the use is non-commercial and no modifications or adaptations are made.

                History
                : 18 December 2023
                : 13 March 2024
                Funding
                Funding: No funding was received.
                Categories
                Review

                dihydromyricetin,proliferation,apoptosis,reactive oxygen species,drug combination

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