Objective:To assess the prevalence of metabolic syndrome(MS) and its relationship with hyperuricemia(HUA) in perimenopausal women in Anning city, Yunnan province.Methods:This is a cross-sectional survey. In May 2021, a multi-stage stratified sampling method was used to collect demographics and clinical data [ethnicity, living community, height, weight, waist circumference, blood pressure, fasting plasma glucose, triglycerides(TG), serum uric acid, high density lipoprotein-cholesterol(HDL-C), alanine transaminase(ALT), etc] in a total of 6 721 perimenopausal women aged 45-60 years.Results:A total of 6 721 perimenopausal women were included in this study. The prevalences of MS and HUA were 14.05%(95% CI 13.22%-14.88%) and 6.46%(95% CI 5.88%-7.07%), respectively. The average age, HDL-C, urea, direct bilirubin, and albumin levels in the perimenstrual HUA population were lower than those in the non-HUA population while the levels of TG, ALT, heart rate, body mass index(BMI), and creatinine were higher(all P<0.05). The prevalence of HUA in perimenopausal women with ethnic minorities and family history of chronic diseases was higher than that in Han nationality and without family history of chronic diseases. The prevalence of MS in perimenopausal women was increased with the increase of serum uric acid( Z=-15.313 8, P<0.001). Multivariate logistic regression model showed that HUA was positively correlated with MS( OR=1.526, 95% CI 1.192-1.954) after adjusting for covariates such as BMI and ethnicity, and the incidence of MS in perimenopausal women in HUA group was 1.526 folds higher than that in non-hyperuricemia group. Conclusion:HUA is highly positively correlated with MS in perimenopausal women. The management of uric acid level in perimenopausal women should be strengthened.

Glioblastoma(GBM)is a lethal cancer with limited therapeutic options.Dendritic cell(DC)-based cancer vaccines provide a promising approach for GBM treatment.Clinical studies suggest that other immu-notherapeutic agents may be combined with DC vaccines to further enhance antitumor activity.Here,we report a GBM case with combination immunotherapy consisting of DC vaccines,anti-programmed death-1(anti-PD-1)and poly I:C as well as the chemotherapeutic agent cyclophosphamide that was integrated with standard chemoradiation therapy,and the patient remained disease-free for 69 months.The patient received DC vaccines loaded with multiple forms of tumor antigens,including mRNA-tumor associated antigens(TAA),mRNA-neoantigens,and hypochlorous acid(HOCl)-oxidized tumor lysates.Furthermore,mRNA-TAAAs were modified with a novel TriVac technology that fuses TAAs with a destabilization domain and inserts TAAs into full-length lysosomal associated membrane protein-1 to enhance major histo-compatibility complex(MHC)class Ⅰ and Ⅱ antigen presentation.The treatment consisted of 42 DC cancer vaccine infusions,26 anti-PD-1 antibody nivolumab administrations and 126 poly I:C injections for DC infusions.The patient also received 28 doses of cyclophosphamide for depletion of regulatory T cells.No immunotherapy-related adverse events were observed during the treatment.Robust antitumor CD4+and CD8+T-cell responses were detected.The patient remains free of disease progression.This is the first case report on the combination of the above three agents to treat glioblastoma patients.Our results suggest that integrated combination immunotherapy is safe and feasible for long-term treatment in this patient.A large-scale trial to validate these findings is warranted.

Background Arsenic is a toxicant that can affect the expressions of the cellular anti-apoptotic gene BCL-2 and its protein, but the effects of arsenic on BCL-2α and BCL-2\begin{document}$\beta $\end{document} transcripts have not been reported. Objective To investigate the potential effects of arsenic and its metabolites, methylarsonic acid (MMA) and dimethylarsonic acid (DMA), on BCL-2α, BCL-2\begin{document}$\beta $\end{document}, and BCL-2T (total of α and \begin{document}$\beta $\end{document} transcripts) in human bronchial epithelial cells (16HBE) and human lung adenocarcinoma cells (A549). Methods 16HBE cells and A549 cells were randomly divided into three categories of exposure after in vitro culture: single-selected arsenic compound exposure groups with isoconcentration (16HBE cells were treated with 4.5 μmol·L⁻¹ of MMA, DMA, and sodium arsenite, respectively, while A549 cells were treated with 60 μmol·L⁻¹ of MMA, DMA, and sodium arsenite, respectively), sodium arsenite exposure groups with different concentrations (16HBE cells were treated with 1.5, 3.0, and 4.5 μmol·L⁻¹ of sodium arsenite respectively, while A549 cells were treated with 20, 40, and 60 μmol·L⁻¹ of sodium arsenite respectively), and combined exposure groups (i.e. MMA+sodium arsenite, and DMA+sodium arsenite; the exposure concentrations of 16HBE cells were both 1.5 μmol·L⁻¹ and both 4.5 μmol·L⁻¹ respectively, and those of A549 cells were both 20 μmol·L⁻¹ and both 60 μmol·L⁻¹ respectively). Meanwhile, a blank control group was also set up in each exposure category. After 48 h of continuous exposure, the relative expressions of BCL-2α, BCL-2\begin{document}$\beta $\end{document}, and BCL-2T in both cells were detected by real-time PCR. Results Regarding the single-selected arsenic compound exposure, in 16HBE cells, the expression levels of BCL-2α and BCL-2T under 4.5 μmol·L⁻¹ MMA treatment were lower than those in their control groups (q=3.27, 2.93, both P<0.05), and the expression levels of BCL-2α, BCL-2\begin{document}$\beta $\end{document}, and BCL-2T under 4.5 μmol·L⁻¹ sodium arsenite were lower than those in their respective control groups (q=11.06, 3.65, 10.70, all P<0.05). In A549 cells, the expression level of BCL-2T treated with 60 μmol·L⁻¹ DMA was lower than that in the control group (q=3.12, P<0.05), and the expression levels of BCL-2α, BCL-2\begin{document}$\beta $\end{document}, and BCL-2T treated with 60 μmol·L⁻¹ sodium arsenite were lower than those in their respective control groups (q=7.59, 7.27, 8.06, all P<0.05). Regarding the sodium arsenite exposure: 16HBE cells treated with 1.5 μmol·L⁻¹ sodium arsenite had a lower expression level of BCL-2α and a higher expression level of BCL-2\begin{document}$\beta $\end{document} than those in their respective control groups (q=6.06, 11.92, both P<0.05); the expression level of BCL-2α under 3.0 μmol·L⁻¹ sodium arsenite was lower than that in the control group (q=12.72, P<0.05); and under 4.5 μmol·L⁻¹ sodium arsenite treatment, the expression levels of BCL-2α, BCL-2\begin{document}$\beta $\end{document}, and BCL-2T were lower than those in their respective control groups (q=15.72, 6.79, 6.62, all P<0.05). The expression levels of BCL-2α gradually decreased with increasing concentrations of sodium arsenite (F_{α trend}=144.80, P<0.001), while BCL-2\begin{document}$\beta $\end{document} and BCL-2T decreased in a dose-dependent manner in the range of 1.5-4.5 μmol·L⁻¹ (F\begin{document}${}_{\beta } $\end{document} _trend=135.40, F_{T trend}=38.24, both P<0.001). In A549 cells, the expression levels of BCL-2α, BCL-2\begin{document}$\beta $\end{document}, and BCL-2T under each concentration of sodium arsenite treatments were lower than those in their respective control groups (all P<0.05); the results of further trend tests showed that their expression levels gradually decreased with increasing concentrations of sodium arsenite (F_{α trend} =31.97, F\begin{document}${}_{\beta} $\end{document} _trend=549.50, F_{T trend}=252.40, all P<0.001). Regarding the combined exposure, under MMA+sodium arsenite treatment at both 60 μmol·L⁻¹, the expression levels of BCL-2α, BCL-2\begin{document}$\beta $\end{document}, and BCL-2T in A549 cells were higher than those in their respective control groups (q=6.37, 14.91, 5.33, all P<0.05); under DMA+sodium arsenite treatment at both 60 μmol·L⁻¹, their expression levels in A549 cells were also higher than those in their respective control group (q=8.60, 17.29, 6.91, all P<0.05). Conclusion Exposure to a high concentration (16HBE: 4.5 μmol·L⁻¹, A549: 60 μmol·L⁻¹) of a single arsenic metabolite has no effect on BCL-2 transcripts in 16HBE cells and A549 cells. Exposure to a low concentration (1.5 μmol·L⁻¹) of sodium arsenite alone would decrease the expression level of BCL-2α and increase the expression level of BCL-2\begin{document}$\beta $\end{document} in 16HBE cells, and exposure to all designed concentrations of sodium arsenite alone would decrease the expressions of all transcripts in A549 cells. The combined exposure to high concentrations (both 60 μmol·L⁻¹) of MMA plus sodium arsenite or high concentrations (both 60 μmol·L⁻¹) of DMA plus sodium arsenite would increase the expressions of BCL-2α, BCL-2\begin{document}$\beta $\end{document}, and BCL-2T in A549 cells, which are different from the effects presented by single exposure.