Chronic liver diseases are a group of diseases in which the liver is subjected to a variety of injuries over a long period of time， resulting in irreversible pathological changes that last longer than 6 months. Emodin （EMO） is a natural anthraquinone derivative derived from Rheum officinale， and its pharmacological effect has been extensively studied， exhibiting a variety of biological properties and involving multiple signaling molecules and pathways. Western medicine or surgical treatment is currently the main treatment regimen for chronic liver diseases， and the advance in treatment is limited by various reasons such as side effects and high costs. Due to its natural origin and efficacy， EMO has unique advantages in the treatment of chronic liver diseases and has now become a research hotspot. This article summarizes the therapeutic effect of EMO on chronic liver diseases and its mechanism， in order to provide a certain scientific basis for the traditional Chinese medicine treatment of chronic liver diseases and the development of drugs in clinical practice.

OBJECTIVE To focus on the classic NOD-like receptor protein 3 （NLRP3）/Caspase-1/gasdermin D （GSDMD） pyroptosis pathway and explore the mechanism by which Huatan qushi huoxue formula （HQHF） inhibits macrophage pyroptosis to ameliorate metabolic dysfunction-associated steatohepatitis （MASH）. METHODS RAW264.7 cells were divided into 5 groups： Control group （10% blank serum）， Model group [10% blank serum+5 μg/mL lipopolysaccharide （LPS）]， HQHF-L group （2.5% drug-containing serum+7.5% blank serum+5 μg/mL LPS）， HQHF-M group （5% drug-containing serum+5% blank serum+5 μg/mL LPS）， and HQHF-H group （10% drug-containing serum+5 μg/mL LPS）. After 24 h of routine culture post-administration， cells and supernatants were collected for assays. Cell morphology was observed via scanning electron microscopy and phase-contrast microscopy； localization and expression of gasdermin D-N （GSDMD-N） were observed by immunofluorescence. Interleukin-1β （IL-1β） and IL-18 contents in supernatants were detected by ELISA； mRNA and protein expressions of NLRP3， Caspase-1， and GSDMD were measured using real-time PCR and Western blot. RESULTS Compared with the Control group， the Model group showed typical pyroptotic morphology （cell membrane bulging and pore formation）， increased aggregation and fluorescence intensity of GSDMD-N on the cell membrane （ P ＜0.05）， significantly increased the contents of IL-1β and IL-18 in cell supernatants （ P ＜0.05）， and significantly up-regulated mRNA and protein expressions of NLRP3， Caspase-1， and GSDMD in cells （ P ＜0.05）. Compared with the Model group， the HQHF-L， HQHF-M and HQHF-H groups showed improved pyroptotic morphology， reduced membrane localization and significantly weakened fluorescence intensity of GSDMD-N （ P ＜0.05）， significantly decreased the contents of IL-1β and IL-18 in cell supernatants （ P ＜0.05）， and significantly down-regulated mRNA and protein expressions of NLRP3， Caspase-1， and GSDMD in cells （ P ＜0.05）. CONCLUSIONS HQHF inhibits LPS-induced macrophage pyroptosis， and its mechanism of improving MASH may be associated with the suppression of the activation of the classical NLRP3/Caspase-1/GSDMD pyroptosis pathway.

Objective: To develop a prediction model for mild cognitive impairment (MCI) risk among the elderly, so as to provide a tool for MCI early screening. Methods : From July 2022 to September 2024, a multi-stage stratified random cluster sampling method was used to recruit permanent residents aged ≥65 years from the Xinjiang Uygur Autonomous Region as study participants. Data on sociodemographic characteristics, nutritional status, body composition indices, bone mineral density, and handgrip strength were collected through questionnaires and physical examinations. Sarcopenia was defined based on appendicular skeletal muscle index and handgrip strength. MCI was assessed using the Mini-Mental State Examination, with adjustments for educational level. Participants were randomly divided into a training set and a validation set in a 7∶3 ratio. LASSO regression and multivariable logistic regression models were employed to screen for predictors and construct an MCI risk prediction model. The predictive performance of the model was evaluated using receiver operating characteristic (ROC) curve and decision curve analysis (DCA). Results: A total of 1 641 participants were surveyed, including 755 males (46.01%) and 886 females (53.99%). The majority of participants were aged 65-<75 years, comprising 1 154 individuals (70.32%). MCI was detected in 517 participants, corresponding to a detection rate of 31.51%. Resultsfrom LASSO regression and multivariate logistic regression analysis showed that residence (rural, OR = 2.323, 95% CI: 1.682-3.210), age (75-<85 years, OR = 1.405, 95% CI: 1.019-1.937; ≥85 years, OR = 3.655, 95% CI: 1.696-7.875), educational level (primary school, OR = 0.341, 95% CI: 0.247-0.472; junior high school, OR = 0.255, 95% CI: 0.160-0.408; high school, OR = 0.286, 95% CI: 0.154-0.531; bachelor's degree or above, OR = 0.120, 95% CI: 0.041-0.351), history of alcohol consumption (yes, OR = 3.216, 95% CI: 2.164-4.779), risk of malnutrition (yes, OR = 1.464, 95% CI: 1.064-2.014), sarcopenia (yes, OR = 3.197, 95% CI: 2.332-4.385), and waist-to-hip ratio (abnormal, OR = 1.540, 95% CI: 1.159-2.048) were identified as predictive factors for MCI among the elderly. In the training set, the area under the ROC curve, sensitivity, and specificity were 0.788, 0.719, and 0.712, respectively. In the validation set, the corresponding values were 0.784, 0.913, and 0.542, respectively. DCA demonstrated that the model provided a higher clinical net benefit for predicting MCI risk when the risk threshold probability ranged from 0.124 to 0.764. Conclusion The prediction model developed in this study demonstrates good discriminative ability and clinical utility, indicating its substantial value for predicting the MCI risk among the elderly.

The development of atherosclerosis （AS） is closely associated with endothelial dysfunction and mitochondrial metabolic abnormalities. These alterations are fundamentally characterized by metabolic reprogramming， in which the tricarboxylic acid （TCA） cycle serves as a central regulatory hub. Disruption of the homeostasis of TCA cycle intermediates， including succinate， α -ketoglutarate， and itaconate， contributes to AS progression through multiple mechanisms， such as the modulation of oxidative stress， inflammation， and glucose and lipid metabolic networks. Owing to their multi-target and multi-pathway regulatory properties， bioactive compounds derived from traditional Chinese medicine （TCM） have demonstrated unique advantages in correcting metabolic dysregulation. Flavonoids， glycosides， and other bioactive constituents of TCM can target key enzymes and metabolites involved in the TCA cycle， thereby restoring aberrant metabolic reprogramming， alleviating endothelial injury induced by oxidative stress， inflammation， and glucose and lipid metabolic disorders， ultimately improving metabolic homeostasis and attenuating the progression of AS.

The development of atherosclerosis （AS） is closely associated with endothelial dysfunction and mitochondrial metabolic abnormalities. These alterations are fundamentally characterized by metabolic reprogramming， in which the tricarboxylic acid （TCA） cycle serves as a central regulatory hub. Disruption of the homeostasis of TCA cycle intermediates， including succinate， α -ketoglutarate， and itaconate， contributes to AS progression through multiple mechanisms， such as the modulation of oxidative stress， inflammation， and glucose and lipid metabolic networks. Owing to their multi-target and multi-pathway regulatory properties， bioactive compounds derived from traditional Chinese medicine （TCM） have demonstrated unique advantages in correcting metabolic dysregulation. Flavonoids， glycosides， and other bioactive constituents of TCM can target key enzymes and metabolites involved in the TCA cycle， thereby restoring aberrant metabolic reprogramming， alleviating endothelial injury induced by oxidative stress， inflammation， and glucose and lipid metabolic disorders， ultimately improving metabolic homeostasis and attenuating the progression of AS.

Oral potentially malignant disorders (OPMDs) are a group of oral mucosal diseases with different morphological characteristics that have an increased risk of progressing to oral squamous cell carcinoma (OSCC). Epidemiological studies indicate that approximately 4.67% of the global population may have an OPMD, and meta-analysis results show that the risk of progression to OSCC in patients with OPMD is 2.5 times that of the general population. The progression of an OPMD to OSCC is a complex process driven by risk factors including smoking, alcohol consumption, betel quid chewing, and oral microbiota. It is characterized by intricate interactions among genetic alterations, epigenetic modifications, and dysregulation of the tumor microenvironment. At the molecular level, the intrinsic basis of epithelial carcinogenesis is established by genomic loss of heterozygosity and cascading dysregulation of critical signaling pathways, while crucial external support for malignant transformation is provided by the immunosuppressive microenvironment, including M2 macrophage polarization, immune evasion mediated by programmed death-ligand 1, and the pro-tumorigenic effects of oral microbiota. Although a variety of therapeutic modalities (e.g., pharmacotherapy, surgical treatment, and photodynamic therapy) have been employed for the prevention of OPMD malignant transformation, no universally accepted treatment has been proven to completely eradicate the risk of cancer development at present. In recent years, artificial intelligence technologies have demonstrated promising performance in predicting the malignant transformation risk of OPMD by integrating multi-dimensional clinical, pathological, and molecular data, thereby providing new decision-support tools for advancing individualized risk stratification and precise follow-up management. This review summarizes recent advances in the prevention of OPMD malignant transformation, with the aim of offering a reference for the clinical management of OPMDs.

Cuproptosis, recently defined as a unique form of cell death distinct from programmed cell death, is triggered by copper overload within mitochondria. Genes associated with cuproptosis have been found to correlate with tumorigenesis and tumor progression, making the targeting of cuproptosis pathways a promising direction for anti-tumor therapies. Copper ion carriers can transport copper ions into cells, inducing cuproptosis and laying the foundation for its application in cancer treatment. This article elaborates on the homeostasis of copper and the mechanisms related to cuproptosis, further clarifying the relationship between cuproptosis and lung cancer treatment targets. This review aims to summarize current progress in research related to cuproptosis and lung cancer, providing new theories and bases for the clinical treatment of lung cancer.

The morphological characteristics and pathological progression of vulnerable plaques in atherosclerosis （AS） exhibit a high degree of similarity to the concept of "abscesses and ulcers" in traditional Chinese medicine （TCM）. Therefore， vulnerable atherosclerotic plaques can be analogized as "abscesses and ulcers within the vessels"， for which deficiency， stasis and toxin constitute the core pathogenesis. The pathological evolution progresses through three sequential stages， deficiency leading to pathological substances， with phlegm and stasis accumulating into a mass； the mass transforming into putridity， with internal decay and external thinning； putridity brewing toxin， and toxin accumulation threatening rupture， ultimately resulting in plaque instability. Accordingly， a stage-specific treatment strategy is established. In the early stage， it is suggested to supplement deficiency， resolve the mass， dissipate stasis， and prevent putridity， using Liujunzi Decoction （六君子汤） combined with Danshen Decoction （丹参饮） with modifications. In the middle stage， the treatment should focus on transforming putridity to generate new tissue， and rectifying healthy qi to consolidate the body， with modified Tuoli Xiaodu Powder （托里消毒散）. In the late stage， the treatment principle is clearing and resolving putridity toxin， cooling the blood， and preventing ulcerative rupture， using modified Simiao Yong'an Decoction （四妙勇安汤） combined with Xijiao Dihuang Decoction （犀角地黄汤）.

ObjectiveTo investigate the potential targets of 2，5-dihydroxybenzoic acid （2，5-DHBA） in the treatment of metabolic dysfunction-associated fatty liver disease （MAFLD） and the molecular mechanism by which it regulates the phosphatidylinositol 3-kinase （PI3K）/protein kinase B （Akt） signaling pathway. MethodsA network pharmacology analysis was performed at first， and related databases were used to obtain the common action targets of 2，5-DHBA and MAFLD， followed by molecular docking and pathway enrichment analysis to predict the potential biological processes and signaling pathways regulated by these targets. Then mouse normal hepatocytes AML-12 were used for cell experiments， and CCK-8 assay was used to determine the three optimal intervention concentrations of 2，5-DHBA. AML-12 cells were divided into control group， model group （cells cultured in a medium containing 2 mmol/L free fatty acid ［FFA］ to establish a cell model of MAFLD）， and three 2，5-DHBA intervention groups （cells cultured with FFA and 2，5-DHBA at the three different concentrations of 1.25， 5， and 20 μmol/L， respectively）. Oil red O staining was used to observe intracellular lipid accumulation； the fluorescent probe DCFH-DA was used to measure the level of intracellular reactive oxygen species （ROS）； biochemical assays were used to measure the content of triglyceride （TG） and total cholesterol （TC）； quantitative real-time PCR and Western Blot were used to measure the expression levels of related genes and proteins. A one-way analysis of variance was used for comparison between multiple groups， and the Tukey’s test was used for further comparison between two groups. ResultsA total of 32 common targets were obtained for 2，5-DHBA and MAFLD. Within a concentration range of 1.25 — 20 μmol/L， 2，5-DHBA treatment， starting from the concentration of 2.5 μmol/L， increased the viability of AML-12 cells in a dose-dependent manner. The minimum effective concentration of 1.25 μmol/L， the intermediate gradient concentration of 5 μmol/L， and the maximum safe concentration within the effective range of 20 μmol/L were selected for low-， middle-， and high-dose intervention， respectively. Compared with the model group， 2，5-DHBA intervention at concentrations of 1.25， 5， and 20 μmol/L could significantly reduce lipid droplet accumulation in cells （all P<0.05）， and there were significant differences in TG and TC between the model group and the three intervention groups （all P<0.05）. Compared with the control group， the model group had a significant increase in ROS fluorescence intensity （P<0.05）， and compared with the model group， there was a dose-dependent reduction in intracellular ROS level after treatment with 5 μmol/L or 20 μmol/L 2，5-DHBA （P<0.05）. Compared with the model group， 2，5-DHBA treatment at concentrations of 5 and 20 μmol/L significantly downregulated the mRNA expression levels of the lipogenic genes SREBf1 and FASN and upregulated the mRNA expression levels of the key antioxidant gene Nrf2 and its downstream target gene HO-1 （all P<0.05）. Compared with the control group， the expression of p-PI3K/PI3K and p-Akt/Akt in the model group was significantly increased （all P<0.05）. Compared with the model group， the protein expression levels of p-PI3K/PI3K and p-Akt/Akt were significantly decreased after 5 μmol/L 2，5-DHBA treatment （P<0.05）. Compared with the control group， the expression levels of Nrf2 and HO-1 protein in the model group were significantly decreased （all P<0.05）. The protein levels of Nrf2 and HO-1 were significantly increased after treatment with 1.25 μmol/L 2，5-DHBA （P<0.05）. ConclusionNetwork pharmacology and cellular experiments confirm that 2，5-DHBA can alleviate lipid deposition and oxidative stress by regulating the PI3K/Akt signaling pathway， thereby exerting a therapeutic effect on MAFLD.

ObjectiveTo explore the effects of mechanical pressure regulation on the migration and bone-promoting ability of suture dural cells （S-DCs） and non-suture dural cells （NS-DCs）. MethodsDural cells （S-DCs）， non-cranial suture dural cells （NS-DCs） and cranial suture mesenchymal stem cells （CS-MSCs） of 5-day-old SD rats were isolated and cultured. Four experimental conditions， namely S-DCs-Normal， S-DCs-Stress， NS-DCs-Normal and NS-DCs-Stress， were set according to the source of the cells and whether mechanical pressure （1.07 kPa， 24 hours） was applied. The migration ability of dural cells was detected by cell scratch test. Four experimental condition culture media were collected and co-cultured with CS-MSCs for osteogenic induction. Calcium salt deposition was detected by alizarin red staining， and the expression of osteogenesis-related proteins was detected by Western blot. ResultsCompared with the Normal group， the migration abilities of both S-DCs and NS-DCs decreased after Stress treatment （P<0.05）. Compared with S-DCs， NS-DCs has a weaker migration ability under the same processing conditions （P<0.05）. The conditioned medium experiment showed that Stress treatment reduced the osteogenic ability of CS-MSCs （P<0.05）， and the osteogenic effect of the conditioned medium derived from NS-DCs was weaker than that of S-DCs （P<0.05）. The Western blot results were consistent with the trend of alizarin red staining. Both Stress treatment and NS-DCs sources could down-regulate the expression of osteogenesis-related proteins （P<0.05）. ConclusionMechanical stress can significantly inhibit the migration of dural cells and the osteogenic differentiation process of CS-MSCs mediated by it. The mechanical tolerance and osteogenic regulation ability of S-DCs are significantly better than those of NS-DCs.