Diabetic kidney disease （DKD）， a common complication of diabetes mellitus， is a leading global cause of end-stage renal disease （ESRD）. Current therapeutic strategies primarily focus on symptomatic management but exhibit limited efficacy in halting disease progression to ESRD， and some drugs carry non-negligible toxic side effects. Traditional Chinese medicine （TCM） has a long history in treating DKD， with single TCM and TCM compounds demonstrating unique advantages in multi-target， multi-pathway， and multi-effect therapeutic interventions. Tripterygium wilfordii （TW）， known for its effects in promoting blood circulation， dredging collaterals， dispelling wind， removing dampness， reducing swelling， and alleviating pain， contains bioactive components such as Tripterygium glycosides （TWG）， triptolide （TPL）， tripdiolide （TPD）， and celastrol （CEL）. The active ingredients possess various functions， including regulating immune-inflammatory balance， ameliorating renal fibrosis and glomerulosclerosis， combating oxidative stress， protecting podocytes， and improving glucose and lipid metabolism， all of which play a significant role in the treatment of DKD. This review summarized the mechanisms underlying the therapeutic effects of T. wilfordii and its active ingredients on DKD， aiming to provide insights for clinical management and novel drug development of DKD.

Palliative care is a way to help end-of-life populations improve their quality of life， and its development in practice cannot be separated from the level of education in palliative care. At present， some medical schools in palliative care education compared with western developed countries have problems such as imperfect construction of hospice curriculum system， lack of medical students’ hospice knowledge； insufficient interdisciplinary teaching faculty， weak palliative care awareness of medical students； single teaching evaluation mode； weak palliative care practice teaching links. To this end， it is necessary to improve the palliative care curriculum system， explore rich and diverse teaching methods； strengthen interdisciplinary teaching and faculty development， enhancing the awareness of palliative care among medical students；establish a scientific and effective evaluation method， carry out multi-dimensional dynamic assessment； expand the palliative care practice teaching base， and accurately improve the practical skills of medical students in palliative care， and other countermeasures to improve the level of palliative care education， and to help the strategy of Healthy China.

Objective This study aims to improve the evaluation index system for the operation of department levels in tertiary public hospitals,strengthen process management,and promote the comprehensive reform and high-quality development of public hospitals.Methods Through literature retrieval and theoretical analysis,a framework for the evaluation index system of department-level operation in tertiary general public hospitals was constructed,and evaluation indicators were initially proposed.Based on the Delphi method,a systematic sorting and adjustment of the evaluation indicators for department-level operation in public hospitals were carried out,and the evaluation index system was finally established.Results The response rates and effec-tive rates of the two rounds of questionnaires using the Delphi method were 90.00％and 83.33％,respectively.The authority co-efficient was 0.8,and the differences in coordination coefficients were statistically significant.The indicators passed the consis-tency test,and the final evaluation index system was composed of 5 first-level indicators,14 second-level indicators,and 43 third-level indicators.Conclusion The evaluation indicators for the operation of department levels in tertiary general public hos-pitals are conducive to guiding hospitals to improve their internal management level and providing support for the implementation of the high-quality development strategy of public hospitals.

Objective To prepare neutrophil-responsive luminescent nanomicelles based on self-luminating compound,luminol,and investigate their imaging capability for a mouse burn model at early stage of inflammation.Methods Hexachlorotripolyphosphazene(HCCP)was utilized as the skeleton material to synthesize amphiphilic LHP luminescence materials through chemical synthesis of luminol and polyethylene glycol(PEG).The chemical structure of LHP was characterized using infrared spectrum and nuclear magnetic hydrogen spectrum.Nanomicelle LHP NM was formed by self-assembly of LHP in deionized water,and then its particle size and potential were measured.Transmission electron microscopy(TEM)was applied to observe the morphology of nanomicelles.Optical fiber spectrometer,weak luminescence measuring instrument,and small animal living imager were employed to evaluate the spectroscopic properties,chemiluminescence rules,and in vitro luminescence imaging ability of the nanomicelles.After that,female Balb/c mice were subjected to scalding with hot water at temperatures of 70℃,80℃,and 90℃,respectively to establish a mouse burn model ranging from degree Ⅰ to degree Ⅱ burns.The depth of skin scalds in the model mice was determined through HE staining,while the expression levels of TNF-α,IL-1β,IL-6 and myeloperoxidase(MPO)in the scalded skin tissues were assessed with fluorescence quantitative qPCR.The changes in reactive oxygen species(ROS)levels over time and burn depth in the skin tissues were determined with ROS detection kit.Additionally,the neutrophils within the skin tissues of model mice were labeled with FITC-Ly6G antibody to count the neutrophil number.Finally,a small animal imaging system was utilized to examine the imaging capability of nanomicelle LHP NM in a mouse burn model to analyze the correlation between luminous intensity and number of recruited neutrophil in order to evaluate the effectiveness of luminous nanomicelles for monitoring early inflammatory response and diagnosing burn depth in a mouse burn model.Results Nuclear magnetic resonance(NMR)spectroscopy confirmed the bonding of approximately 5 luminol units and a polyethylene glycol(PEG)chain to 1 HCCP molecule.TEM and particle size determination results demonstrated that the prepared nanomicelles were spherical,hollow structures in a diameter of around 120 nm.In vitro luminescence experiments revealed that the nanomicelles exhibited high brightness and sustained chemiluminescence under varying concentrations of ROS and MPO levels,with luminescence intensity dependent on both ROS level and nanomicelle concentration.The in vitro cellular experiments demonstrated that the nanomicelles exhibited neutrophil-responsive imaging capability.The luminescence intensity was positively correlated with both the number of neutrophils and the dose of LHP NM,with a linear correlation coefficient(r)of 0.98 and 0.99,respectively.In vivo animal study revealed a significant increase(P<0.05)in the count of neutrophils and ROS level in the skin tissue of burned and scalded mice.Notably,at the time point of 24 h,compared to the 80℃and 70℃treatment groups,the number of recruited neutrophils was increased by 86.4％,and the luminescent imaging intensity rose by 71.5％.These findings indicated that the severity of burns was correlated with the extent of neutrophil recruitment in the injured area,and LHP NM could effectively achieve neutrophil-responsive imaging in model mice.The changes in imaging intensity were closely associated with the number of neutrophils and the level of ROS in the injured skin tissue.Conclusion The neutrophil-responsive luminescent nanomicelle LHP NM is successful prepared,and the nanomicelles enable responsive imaging of skin damage in mouse burn model.The luminescence intensity accurately reflects the neutrophil infiltration and ROS level,allowing for real-time monitoring of early inflammatory responses in mouse burn model.Additionally,this study provides methods and strategies for diagnosing burn depth.

Temporal lobe epilepsy(TLE)is the most common form of focal epilepsy in adults,characterized by spontaneous recurrent seizures,with most patients experiencing drug resistance and cognitive dysfunction.MicroRNAs(miRNAs)play a critical role in the pathological process of TLE through their regulation of post-transcriptional gene expression.The pathogenesis of TLE has not been fully elucidated,lacking effective clinical therapeutic targets and prognostic markers.This review sum-marized the expression changes of miRNAs in TLE and their research progress as potential biomarkers,aiming to provide new insights into the early diagnosis,prognosis evaluation,and pathogenic mecha-nisms of TLE.

Immunoglobulin A nephropathy （IgAN） is a common primary glomerular disease and a frequent cause of chronic renal failure. Tripterygium wilfordii is a traditional Chinese herbal medicine， which possesses the effects of promoting blood circulation， relieving swelling and pain， and dispelling wind and dampness. Modern pharmacological studies have shown that T. wilfordii multiglucoside exhibit anti-inflammatory and immunomodulatory effects， inhibit mesangial cell proliferation， protect podocytes， ameliorate endothelial cell injury， and regulate gut microbiota disturbances. Triptolide also possesses anti-inflammatory and immunomodulatory properties， suppresses mesangial cell proliferation， and protects podocytes. Celastrol demonstrates anti- inflammatory and immunomodulatory functions as well as the ability to improve endothelial cell damage. Through these mechanisms， T. wilfordii and its active components can play a role in alleviating clinical symptoms and delaying disease progression in the treatment of IgAN. Future research should focus on in-depth analysis and mechanistic investigation of these active ingredients， promote high-quality clinical studies， systematically evaluate the synergistic effects among them， and emphasize strategies for reducing toxicity and enhancing efficacy， thereby providing more comprehensive and reliable evidence-based foundations for the clinical treatment of IgAN.

This study investigated the role of the nuclear factor of activated T cells c3 (NFATc3) in vascular smooth muscle cells (VSMCs) during aortic aneurysm and dissection (AAD) progression and the underlying molecular mechanisms. Cytoplasmic and nuclear NFATc3 levels were elevated in human and mouse AAD. VSMC-NFATc3 deletion reduced thoracic AAD (TAAD) and abdominal aortic aneurysm (AAA) progression in mice, contrary to VSMC-NFATc3 overexpression. VSMC-NFATc3 deletion reduced extracellular matrix (ECM) degradation and maintained the VSMC contractile phenotype. Nuclear NFATc3 targeted and transcriptionally upregulated matrix metalloproteinase 9 (MMP9) and MMP2, promoting ECM degradation and AAD development. NFATc3 promoted VSMC phenotypic switching by binding to eukaryotic elongation factor 2 (eEF2) and inhibiting its phosphorylation in the VSMC cytoplasm. Restoring eEF2 reversed the beneficial effects in VSMC-specific NFATc3-knockout mice. Cabamiquine-targets eEF2 and inhibits protein synthesis-inhibited AAD development and progression in VSMC-NFATc3-overexpressing mice. VSMC-NFATc3 promoted VSMC switch and ECM degradation while exacerbating AAD development, making it a novel potential therapeutic target for preventing and treating AAD.

The persistent high prevalence and poor survival outcomes of lung cancer underscore the urgent need for innovative therapeutic modalities. Here, we present a novel multifunctional delivery platform for the synergistic treatment of lung malignancies, combining in situ-triggerable photodynamic therapy (PDT) with radiotherapy. The new platform CLL was developed by loading a new reactive oxygen species (ROS)-triggerable photosensitizer, luminol-conjugated chlorin e6 (Ce6), into liposomes. CLL can be activated through the bioluminescence resonance energy transfer effect under oxidative stress, thereby producing singlet oxygen for targeted tumor treatment without external irradiation. In vitro studies showed significant cytotoxic effects of CLL in both 4T1 and A549 tumor cells. Furthermore, a PDT-radiopharmaceutical combination nanotherapy CLL-¹⁷⁷Lu was engineered by incorporating the radionuclide ¹⁷⁷Lu into CLL. CLL-¹⁷⁷Lu demonstrated synergistic antitumor effects in 4T1 and A549 tumor cells, as well as in mouse models of 4T1 breast cancer lung metastasis or A549 tumor xenografts. Mechanistically, CLL-¹⁷⁷Lu can induce singlet oxygen/ROS generation, enhance tumor cell apoptosis, and promote M1 macrophage-mediated immunotherapy. Preliminary assessments showed a favorable profile for CLL-¹⁷⁷Lu, highlighting its potential as a promising nanotherapy for cancer treatment. Additionally, CLL can serve as a versatile platform for delivering a range of therapies to achieve synergistic antitumor effects.

Objective:To explore genomic features associated with gemcitabine sensitivity, patient-derived organoid models of biliary tract cancer (BTC) were established and characterized.Methods:This is an experimental study. The tissue specimens of BTC were collected from patients who underwent surgical resection at the Department of Hepatobiliary and Pancreatic Surgery,the Second Affiliated Hospital of Zhejiang University School of Medicine between January 2020 and December 2023. The tumor organoids were cultured in vitro and histologically characterized. Drug sensitivity testing was performed using gemcitabine,cisplatin,paclitaxel,fluorouracil,and lenvatinib etc. to evaluate cell viability. The correlation between the drug sensitivity of organoids and clinical therapeutic response was analyzed.Results:Thirty-eight patient-derived organoids (PDO) models were successfully established from 43 biliary tract malignancy patients with complete follow-up data,including gallbladder cancer PDO 14 cases,distal bile duct cancer PDO 16 cases,intrahepatic cholangiocarcinoma PDO 8 cases,achieving an overall success rate of 88.4%. Drug sensitivity testing (DST) was performed on the successfully generated PDO,with 35 models successfully completing DST experiments. The overall consistency rate between drug responses in PDOs and clinical survival outcomes in corresponding patients was 8/14. Transcriptomic analysis of gemcitabine-sensitive vs. gemcitabine-resistant PDO identified 71 differentially expressed genes in the resistant group,the significantly up-regulated genes including GLDC, LINC01595, IL-27, ANGPTL3, CYP7A1,and AKR1C1;the significantly down-regulated genes including P2RY2,LIPC,and ECHDC3. Conclusion:A biobank of patient-derived organoids of BTC has been established,which demonstrates its potential as preclinical models and tools for predicting chemotherapy responses for BTC patients.