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    Special Article
  • Special Article
    FANG Fu-De
  • YANG Yue1, # , XIAO Yao1, # , ZHAO Nan1, 2, # , GUAN Si-Jia1, QU Ai-Juan1, 2, △
    Atherosclerosis, characterized by excess lipid deposition and chronic inflammation, is the common pathological basis of cardiovascular diseases. Macrophages, as important immune cells, are involved in the entire process of atherosclerosis. Recent studies have shown that macrophage efferocytosis is a homeostatic mechanism responsible for the clearance of dead/apoptotic cells and the resolution of inflammation. In atherosclerosis, the capacity of macrophages to participate in efferocytosis is hampered, resulting in the abnormal accumulation of apoptotic cells and necrotic tissue within the plaques, which leads to the enlargement of necrotic core, increased luminal stenosis, plaque inflammation, and ultimate plaque destabilization or rupture. In this review, we summarized the efferocytic machinery that is normally implicated in cardiovascular physiology and then highlighted the mechanisms by which efferocytosis fails in atherosclerosis, aiming to provide therapeutic approaches for this pathological process.
  • WANG Rui1, 2, 3, QI Yong-Fen1, 2, 3, CHAI San-Bao4, △
    Leptin is a protein hormone primarily synthesized and secreted by adipocytes. It exerts various physiological functions, including appetite suppression, regulation of energy metabolism, promotion of lipolysis, and modulation of inflammatory responses, through its interaction with leptin receptors. In recent years, extensive research has demonstrated that leptin plays a critical role in the occurrence and progression of various cardiovascular diseases (CVDs), including heart failure, myocardial infarction, atherosclerosis, vascular calcification, and hypertension, making it a significant target in CVD research. This review focuses on the molecular biological characteristics of leptin and recent advances in its regulatory mechanisms in several common CVDs, aiming to provide a theoretical basis for research on obesity-associated cardiovascular metabolic diseases.
  • GU Jia-Jie1, LUO Jian-Biao1, ZHENG Xiang-Long2, WANG Wan-Chun2, DONG De-Gang1, △
    Snakebites are among the deadliest yet most neglected tropical diseases worldwide. Following a venomous bite, the circulatory system serves as both the medium for venom dissemination and the most direct target of the venom. Victims experience impaired hemostasis and coagulation, leading to a series of blood-associated toxic reactions, such as abnormal blood cells, platelet irregularities, microvascular issues, and blood pressure changes. These hematotoxicities also trigger secondary cardiovascular complications, which are major contributors to the high mortality and morbidity rates associated with venomous bites. This article reviews the research progress on venom-induced changes in hematotoxicity parameters, venom components and their mechanisms of action, clinical manifestations, and treatment strategies, aiming to provide a reference for the clinical treatment of snakebite victims.
  • WANG Yan-Bo1, 2, YAO Lei1, 2, JING Rui1, LIU Li-Jun1, HU Yuan1, △
    Depression is a prevalent mental disorder characterized by a multifaceted pathogenesis involving theories such as neurotransmitter dysregulation, microglial activation, hypothalamicpituitary-adrenal (HPA) axis dysregulation, inflammasome activation, microbiome alterations, and impaired neuroplasticity. Current first-line antidepressants, including selective serotonin reuptake inhibitors (SSRIs) and serotonin-norepinephrine reuptake inhibitors (SNRIs), exhibit limitations such as delayed onset, low efficacy rates, and significant interindividual variability. In recent years, driven by advances in molecular biology and immunopsychiatry research, growing evidence has indicated an interplay between immune-inflammatory pathways and depression. The kynurenine pathway, a predominant route for tryptophan metabolism, generates metabolites that play significant roles in neural, immune, and inflammatory regulation, particularly exhibiting complex dual effects in immune modulation. It is essential to construct a comprehensive view of the peripheral-central immune network and delve into the mechanistic role of the tryptophankynurenine metabolic pathway within this network in the pathogenesis of depression, thus further advancing our knowledge of the pathophysiological mechanisms of depression and facilitating drug development.
  • LV Wen-Fei1, WANG Jun-Yu1, GU Zhi-Yu2, CHEN Yuan-Jin1, WANG Qian1, △ , LIU Yun-Kun2, △
    Lactylation modification, a recently identified post-translational modification of proteins, plays a crucial role in various pathophysiological processes such as gene expression and cellular metabolism, and contributes to disease treatment. However, research on lactylation modification in the field of stomatology remains in its initial stages. This article reviews the regulatory mechanisms and influencing factors of lactylation modification, and details recent advances in its roles within stomatology, covering periodontitis, oral squamous cell carcinoma, orthodontic treatment, and tooth development, with the aim of providing new directions and potential breakthroughs for disease prevention, targeted therapy, and drug development in this field.
  • WU Ri-Han1, 2, YANG Hao2, △
    Tumor-associated macrophages (TAMs) are highly plastic innate immune cells in the tumor microenvironment of lung cancer and other solid tumors, playing key roles in tumor development, immune resistance, and therapeutic response. With the advent of single-cell sequencing and spatial transcriptomics, the heterogeneity, lineage origins, and dynamic functions of TAMs have been increasingly elucidated, challenging the traditional M1/M2 polarization model. This review summarizes the origins, distribution, polarization states, and metabolic regulation of TAMs in lung cancer, highlighting the impact of lactate-hypoxia axis, lipid metabolism, and cholesterol metabolism on their immunosuppressive functions. We also discuss the roles of TAMs in immune surveillance, tumor proliferation, angiogenesis, metastasis, and immune resistance, with a focus on TREM2+ lipid-associated TAMs in the formation of immune-cold regions and resistance to immune checkpoint inhibitors. Finally, we summarize strategies targeting TAM recruitment, phenotypic reprogramming, metabolic intervention, and combination immunotherapy, and propose personalized interventions based on TAM heterogeneity, providing a theoretical basis for optimizing lung cancer immunotherapy.
  • XU Jie-Bin1, ZHU Jin-Rui1, LIU Sheng-Bing1, 2, △
    Colorectal cancer (CRC) is characterized by a high incidence and poor prognosis. Its pathogenesis is intricately linked to disorders of bile acid metabolism. Bile acid-activated receptors, such as the farnesoid X receptor (FXR), G protein-coupled bile acid receptor 1 (GPBAR1/TGR5), vitamin D receptor (VDR), pregnane X receptor (PXR), and constitutive androstane receptor (CAR), modulate various physiological functions via multiple signaling pathways and a multitude of signaling molecules. During the pathogenesis of CRC, notable changes occur in the expression patterns and regulatory mechanisms of these bile acid receptors. This review focuses on bile acid receptors to explore the relationship between bile acids and the initiation and progression of CRC, as well as the potential regulatory mechanisms involved. The overarching objective of this review is to offer novel insights into the roles and research advances of bile acid receptors in CRC.
  • YU Rui-Yuan1, YU Xiao2, LIU Jin-Xing2, △
    The ovaries are vital female reproductive organs. Impairment of ovarian function not only adversely affects fertility but also reduces women's quality of life. Psychological stress refers to the emotional and psychological responses individuals exhibit when confronted with various pressures and challenges, with multiple factors acting as stressors. Chronic psychological stress can disrupt the body's internal homeostasis and even induce diseases. A growing body of research has demonstrated that psychological stress can affect local ovarian physiological functions through neuroendocrine networks and metabolic pathways, causing significant changes in ovarian function, leading to female health issues. This article primarily reviews the research progress on the effects of psychological stress on ovarian function, aiming to provide new insights for associated clinical diagnosis, treatment, and research.
  • Physiological Science and Clinical Medicine
  • Physiological Science and Clinical Medicine
    Li Yan-Ni# , Kang Ji-Hong△
    Coffee, a globally consumed beverage, has gained increasing attention for its effects on metabolic health. In this review, we explore the potential mechanisms by which coffee influences metabolism through the gut microbiota. Specifically, we review the mechanisms by which coffee polyphenols and caffeine are metabolized by gut microbes into short-chain fatty acids (SCFAs) and other metabolites, which subsequently regulate glucose metabolism, lipid metabolism, inflammatory responses, and bile acid metabolism.
  • Physiological Science and Clinical Medicine
    ZHANG Zhi-He1, WEI Xiao-Fan2, △
    As one of the most widely consumed beverages globally, coffee's relationship with digestive health has drawn significant attention. Recent studies indicate that coffee exerts bidirectional regulatory effects on the occurrence and progression of gastric ulcers. On one hand, polyphenolic compounds such as chlorogenic acid in coffee exert protective effects on the gastric mucosa by inhibiting inflammatory responses and promoting the growth of beneficial gastrointestinal bacteria. On the other hand, caffeine stimulates gastric acid secretion through multiple signaling pathways, potentially increasing the risk of ulcer development. This article systematically elucidates the regulatory mechanisms of coffee's bioactive constituents in the pathological progression of gastric ulcers, based on evidence from in vivo, in vitro, and clinical studies. It further analyzes the association between coffee consumption and gastric ulcer risk across different populations. The aim is to provide scientific recommendations for coffee consumption to the public and to offer a theoretical basis for further research and applications of coffee in digestive health.
  • Physiological Science and Clinical Medicine
    YANG Jia1, HU Zhi-Wen1, LI Shu-Yan2, △
    Coffee, as a globally prevalent beverage, has garnered considerable research attention regarding its association with liver health. Drawing upon recent domestic and international research, this article systematically reviews the preventive and protective effects of coffee consumption on chronic liver diseases. Specifically, it focuses on the protective roles of coffee in diseases such as metabolic dysfunction-associated fatty liver disease (MAFLD), liver cancer, and other chronic liver diseases, as well as the underlying molecular mechanisms. Evidence indicates that moderate coffee intake enhances liver function and health primarily via anti-inflammatory, antioxidant, and metabolic regulatory pathways. Notably, these effects exhibit variations across genders and populations. By integrating clinical evidence with mechanistic research, this review provides a theoretical basis and reference for understanding the role of coffee in chronic liver diseases, and offers scientific recommendations for coffee consumption.
  • Monograph
  • Monograph
    ZHAO Hai-Bei, GU Hui-Ying, ZHOU Chong-Yang, CHEN Juan△
    Tumor development is closely related to the aberrant post-transcriptional regulation mediated by RNA-binding proteins (RBPs), which play a key role in tumor progression by regulating mRNA splicing, stability, and translation. This review systematically investigates the molecular mechanisms underlying the abnormal expression or dysfunction of RBPs during tumor development, the molecular basis of RBPs in promoting tumor progression through regulating tumor-associated signalling pathways, and the roles of RBPs in malignant transformation and therapeutic resistance, aiming to provide an important theoretical basis for developing anti-tumor therapies targeting RBPs.
  • Monograph
    WU Xin-Nan1, # , YU Ling-Ying1, YANG Shu-Ya2, △
    Breast cancer, the most prevalent malignant tumor in women, exhibits high mortality rates primarily due to its metastatic potential and drug resistance. In recent years, metabolic reprogramming has been proven to play a critical role in the occurrence and development of breast cancer. Previous research has mainly focused on aberrant glucose metabolism, with limited investigation of fatty acid metabolism. Recent studies have shown that breast cancer cells provide energy and biosynthetic precursors for rapid proliferation, metastasis, and drug resistance by abnormally activating fatty acid metabolic pathways including uptake, synthesis, storage, and oxidative decomposition. This article systematically reviews the latest research progress on fatty acid metabolic reprogramming in breast cancer, and provides an in-depth exploration of potential therapeutic targets and targeted intervention strategies.
  • Subject Index
  • Subject Index
    2025, 56(6): 622-624.