1.The technology of fecal microbiota transplantation and its application progress
Shuo YUAN ; Yi-fan ZHANG ; Peng GAO ; Jun LEI ; Ying-yuan LU ; Peng-fei TU ; Yong JIANG
Acta Pharmaceutica Sinica 2025;60(1):82-95
Fecal microbiota transplantation (FMT) technology originated in China during the Eastern Jin Dynasty and has rapidly developed over the past two decades, becoming a primary method for studying the causal relationship between gut microbiota and the occurrence and progression of diseases. At the same time, the therapeutic effects of FMT in the field of gastrointestinal diseases have gained widespread recognition and are gradually expanding into other disease areas. The FMT procedure is relatively complex, and there is currently no standardized method; its success is influenced by various factors, including the donor, recipient, processing of the fecal material, and the method of implantation. Given the increasingly recognized relationship between gut microbiota and various diseases, FMT has become a research hotspot in both scientific studies and clinical applications, achieving a series of significant advancements. To help researchers better understand this technology, this paper will outline the development history of FMT, summarize common operational methods in research and clinical settings, review its application progress, and look forward to future development directions.
2.Bioinformatic approaches of liquid–liquid phase separation in human disease
Jun SUN ; Yilong CHEN ; Ruiye BI ; Yong YUAN ; Haopeng YU
Chinese Medical Journal 2024;137(16):1912-1925
Biomolecular aggregation within cellular environments via liquid–liquid phase separation (LLPS) spontaneously forms droplet-like structures, which play pivotal roles in diverse biological processes. These structures are closely associated with a range of diseases, including neurodegenerative disorders, cancer and infectious diseases, highlighting the significance of understanding LLPS mechanisms for elucidating disease pathogenesis, and exploring potential therapeutic interventions. In this review, we delineate recent advancements in LLPS research, emphasizing its pathological relevance, therapeutic considerations, and the pivotal role of bioinformatic tools and databases in facilitating LLPS investigations. Additionally, we undertook a comprehensive analysis of bioinformatic resources dedicated to LLPS research in order to elucidate their functionality and applicability. By providing comprehensive insights into current LLPS-related bioinformatics resources, this review highlights its implications for human health and disease.
3.Study on Down-regulation of Interleukin-1β Secretion by Inhibiting ABCC1/MRP1 Transporter
Yuan-Yuan CHEN ; Pei-Ting YING ; Wen-Wen WENG ; Mei-Xin FANG ; Jiang LI ; Ze-Bin LUO ; Ming JIA ; Xiao-Ping GUO ; Ling-Yan ZHANG ; Xiao-Jun XU ; Yong-Min TANG
Journal of Experimental Hematology 2024;32(3):911-919
Objective:To screen interleukin(IL)-1β secretion-related membrane transporters by macrophage experiment in vitro and conventional knockout mice.Methods:THP-1 cell line was differentiated to obtain human THP-1-derived macrophages,and the primary macrophages were obtained from human peripheral blood.FVB wild-type mice with the same sex and age were used as the controls of MRP1 knockout mice.The macrophages in abdominal cavity and bone marrow of mice were cultivated.The cells were treated with ABCC1/MRP1,ABCG2/BCRP,ABCB1/P-gp,OATP1B1,and MATE transporter inhibitors,then stimulated by lipopolysaccharide and adenosine triphosphate.The secretion level of IL-iβ was detected by ELISA,Western blot,and immunofluorescence.Results:After inhibiting ABCC1/MRP1 transporter,the secretion of IL-1β decreased significantly,while inhibition of the other 4 transporters had no effect.In animal experiment,the level of IL-1 β secreted by macrophages in bone marrow of MRP1 knockout mice was significantly lower than control group(P<0.05).Conclusion:ABCC1/MRP1 transporter is a newly discovered IL-1β secretion pathway,which is expected to become a new target for solving clinical problems such as cytokine release syndrome.
4.NO inhibitory constituents from Glycosmis craibii var.glabra
Hongwei CHEN ; Meng DING ; Jun LIN ; Shuo YUAN ; Kewu ZENG ; Pengfei TU ; Yong JIANG
Chinese Journal of Natural Medicines (English Ed.) 2024;22(11):1040-1046
Six novel compounds,comprising three quinolones(1a,1b,and 2)and three flavanones(3-5),along with seven known analogs(6-13),were isolated from the 95%EtOH extract of the stems and leaves of Glycosmis craibii var.glabra.The structures of the new compounds were elucidated using HR-ESI-MS,UV,and 1D and 2D nuclear magnetic resonance(NMR)data analysis.The ab-solute configurations were determined through Mosher ester and electronic circular dichroism(ECD)spectral analysis.Compounds 2,6,9,and 10 demonstrated inhibition of nitric oxide(NO)production stimulated by lipopolysaccharide in BV-2 microglial cells,with IC50 values ranging from 13.5 to 20.1 μmol·L-1,comparable to the positive control,dexamethasone.
5.Effects of xanthohumol on proliferation and apoptosis of thyroid cancer cells B-CPAP through the Notch signaling pathway
Jun QI ; Yong SUN ; Yuan-Peng ZHANG ; Bin LU ; Tao LI ; Yan-Tao ZHANG
Chinese Journal of Current Advances in General Surgery 2024;27(4):282-285
Objective:Xanthohumol is a kind of isoamyl olefinic flavonoid natural compounds,which have antitumor activity and impact on a variety of cell signaling pathways,The objective of this study was to explore the effects of xanthohumol on proliferation and apoptosis of thyroid cancer cells B-CPAP through the Notch signaling pathway.Methods:B-CPAP cells were cultivated in vitro,Xanthohumol was divided into control group(0 μ mol/L),low dose group(10 μ mol/L),middle dose group(20 μ mol/L),high dose group(40 μ mol/L)according to the different concentrations,The logarithmic growth cells were cultivated with different concentrations of xanthohumol intervention,application of MTT colorimetry in the detection of proliferation inhibition rates of B-CPAP cells.B-CPAP cells morphological changes were observed by using fluorescence microscope after appli-cation of Hoechst 33258 dyeing.B-CPAP cells apoptosis were detected by Annexin V-FITC/PI flow cytometry.Notch signaling pathway related proteins were determined?by?Western blotting.Re-sults:MTT showed that low dose group,middle dose group and high dose group,respectively pro-cessing after 24h,48h,72h,proliferation inhibition rates of the three groups were statistical?signifi-cance(F=189.34,131.73,124.51,P<0.05);Respectively treated after 24h,48h,72h,proliferation in-hibition rates of xanthohumol increased over time in the same group,The differences were statisti-cally significant(F=204.51,169.64,183.15,P<0.05).B-CPAP cells of high dose group appeared ob-viously apoptosis morphological changes compared with the control group through Hoechst33258 dying.Flow cytometry showed apoptosis rates of concrol group,low dose group and high dose group compared were statistical?significance(F=1235.54,P<0.05).Apoptosis rate was higher in the high-dose group.Western blotting showed that Notch1,Treatment was performed for 72h,Hes1,Bcl-2 expression were significantly decreased in low dose group,middle dose group and high dose group compared with the control group(F=203.22,161.52,224.78),while cleaved caspase-3 ex-pression significantly increased(F=463.27),the differences were statistically significant(P<0.05).Conclusions:Xanthohumol inhibits B-CPAP cells proliferation and induces cells apoptosis maybe through the Notch signaling pathway.
6.Identification of in vivo metabolites of Cynanchum auriculatum extract in functional dyspepsia rats by UHPLC Q-Exactive Plus Orbitrap HRMS
Zong-Qin WU ; Jian GOU ; Yong-Jun LI ; Yuan LU ; Qiao-Qiao RAN ; Jia SUN
Chinese Traditional Patent Medicine 2024;46(9):2876-2884
AIM To identify the in vivo metabolites of Cynanchum auriculatum Royle ex Wight extract in functional dyspepsia rats by UHPLC Q-Exactive Plus Orbitrap HRMS.METHODS The rat models for functional dyspepsia were established.The analysis was performed on a 40℃ thermostatic Hypersil GOLD C18 column(2.1 mm×100 mm,1.9 μm),with the mobile phase comprising of water(containing 0.1%formic acid)-acetonitrile(containing 0.1%formic acid)flowing at 0.3 mL/min in a gradient elution manner,and electrospray ionization source was adopted in positive and negative ion scanning.RESULTS Total 4 prototypes(baishouwubenzophenone,deacylmetaplexigenin,qingyangshengenin,syringic)and 110 metabolites were identified,12 of which were common metabolites in feces and urine,56 of which were unique metabolites in urine,42 of which were unique metabolites in feces.The metabolic pathway of prototypes contained phase Ⅰ metabolism(reduction,oxidization,etc.),phase Ⅱ metabolism(sulfonation,glucuronidation,etc.)and phase Ⅰ,Ⅱ composite reactions.CONCLUSION This effective and comprehensive method can lay the theoretical foundation for further discovery of potential active metabolites in C.auriculatum.
7.Chemical constituents of lignans and terpenoids from Alangium chinense subsp.pauciflorum
Jian-Ping YANG ; Ting YANG ; Min-Hui ZHU ; Xue MA ; Yuan LU ; Jia SUN ; Yong-Jun LI
Chinese Traditional Patent Medicine 2024;46(11):3683-3691
AIM To study the lignans and terpenoids from Alangium chinense(Lour.)Harms subsp.pauciflorum Fang.METHODS The 70%ethanol extract was isolated and purified by various column chromatography,then the structures of obtained compounds were identified by physicochemical properties and spectral data.RESULTS Twenty-four compounds were isolated and identified and identified as(+)-pinoresinol)(1),medioresinol(2),syringaresinol(3),dehydrodiconifery alcohol-9′-β-D-glucopyranoside(4),7,9,9′-trihydroxy-3,3′-dimethoxy-8-O-4′-neolignan-4-O-β-D-glucopyranoside(5),citrusin B(6),dihydrodehydrodiconiferyl alcohol-4-O-β-D-glucopyranosides(7),5-methoxy-(+)-isolariciresinol(8),rel-(7R,8S)-3,3′,5-trimethoxy-4′,7-epoxy-8,5′-neolignan-4,9,9′-triol-9-β-D-glucopyranoside(9),(+)-lyoniresinol-3α-O-β-D-glucopyranoside(10),longifloroside B(11),(7S,8R)-1-[4-O-(β-D-glucopyranosyl)-3-methoxyphenyl]-2-[4-(3-hydroxypropyl)-2,6-dimethoxyphenoxy]-1,3-propanediol(12),(7R,8S)-4,9,9′-trihydroxyl-3-methoxyl-7,8-dihydrobenzofuran-1′-propylneolignan-3′-O-β-D-glucopyranoside(13),(7S,8R)-4,9,9′-trihydroxy-3,3′,5-trimethoxy-8,4′-oxy-neolignan-4-O-β-D-glucopyranoside(14),cedrusin-4-O-β-D-glucopyranoside(15),2,6,2′,6′-tetramethoxy-4,4′-bis(2,3-epoxy-1-hydroxypropyl)biphenyl(16),3-oxo-11α,12α-epoxy-olean-28,13β-olide(17),mansonone E(18),mansonone G(19),mansonone H(20),roseoside(21),bullatantriol(22),3-O-α-L-arabinopyranosyl-28-O-β-D-glucopyranosyl pomolic acid(23),Hederagenin(24).CONCLUSION Compounds 1-16 are lignans,and 17-24 are terpenoids.Compounds 3-9,11-17,22-24 are isolated from Alangium genus for the first time;compounds 1,2,10,18-21 are first isolated from this plant.
8.Current situation,problems and suggestions of medical simulation technology for mobile medical service detachment training
Jun-Xiang HUANG ; Pei-Yuan XIN ; Yong-Shun ZHANG ; Zheng-Yu LIU ; Ke FANG ; Zhou LU
Chinese Medical Equipment Journal 2024;45(10):88-92
The current situation of medical simulation technology was introduced when applied in medical service of foreign armies.The current situation and problems of medical simulation technology in mobile medical service detachment training of the PLA were described.Some suggestions were put forward including completing medical simulation management system,optimizing personnel managment and training mode and promoting standardization and modular construction of medical simulation system.References were provided for enhancing combat-oriented training and medical service support capability of levels of medical service institutions and mobile medical service detachment of the PLA.[Chinese Medical Equipment Journal,2024,45(10):88-92]
9.A multi-center epidemiological study on pneumococcal meningitis in children from 2019 to 2020
Cai-Yun WANG ; Hong-Mei XU ; Gang LIU ; Jing LIU ; Hui YU ; Bi-Quan CHEN ; Guo ZHENG ; Min SHU ; Li-Jun DU ; Zhi-Wei XU ; Li-Su HUANG ; Hai-Bo LI ; Dong WANG ; Song-Ting BAI ; Qing-Wen SHAN ; Chun-Hui ZHU ; Jian-Mei TIAN ; Jian-Hua HAO ; Ai-Wei LIN ; Dao-Jiong LIN ; Jin-Zhun WU ; Xin-Hua ZHANG ; Qing CAO ; Zhong-Bin TAO ; Yuan CHEN ; Guo-Long ZHU ; Ping XUE ; Zheng-Zhen TANG ; Xue-Wen SU ; Zheng-Hai QU ; Shi-Yong ZHAO ; Lin PANG ; Hui-Ling DENG ; Sai-Nan SHU ; Ying-Hu CHEN
Chinese Journal of Contemporary Pediatrics 2024;26(2):131-138
Objective To investigate the clinical characteristics and prognosis of pneumococcal meningitis(PM),and drug sensitivity of Streptococcus pneumoniae(SP)isolates in Chinese children.Methods A retrospective analysis was conducted on clinical information,laboratory data,and microbiological data of 160 hospitalized children under 15 years old with PM from January 2019 to December 2020 in 33 tertiary hospitals across the country.Results Among the 160 children with PM,there were 103 males and 57 females.The age ranged from 15 days to 15 years,with 109 cases(68.1% )aged 3 months to under 3 years.SP strains were isolated from 95 cases(59.4% )in cerebrospinal fluid cultures and from 57 cases(35.6% )in blood cultures.The positive rates of SP detection by cerebrospinal fluid metagenomic next-generation sequencing and cerebrospinal fluid SP antigen testing were 40% (35/87)and 27% (21/78),respectively.Fifty-five cases(34.4% )had one or more risk factors for purulent meningitis,113 cases(70.6% )had one or more extra-cranial infectious foci,and 18 cases(11.3% )had underlying diseases.The most common clinical symptoms were fever(147 cases,91.9% ),followed by lethargy(98 cases,61.3% )and vomiting(61 cases,38.1% ).Sixty-nine cases(43.1% )experienced intracranial complications during hospitalization,with subdural effusion and/or empyema being the most common complication[43 cases(26.9% )],followed by hydrocephalus in 24 cases(15.0% ),brain abscess in 23 cases(14.4% ),and cerebral hemorrhage in 8 cases(5.0% ).Subdural effusion and/or empyema and hydrocephalus mainly occurred in children under 1 year old,with rates of 91% (39/43)and 83% (20/24),respectively.SP strains exhibited complete sensitivity to vancomycin(100% ,75/75),linezolid(100% ,56/56),and meropenem(100% ,6/6).High sensitivity rates were also observed for levofloxacin(81% ,22/27),moxifloxacin(82% ,14/17),rifampicin(96% ,25/26),and chloramphenicol(91% ,21/23).However,low sensitivity rates were found for penicillin(16% ,11/68)and clindamycin(6% ,1/17),and SP strains were completely resistant to erythromycin(100% ,31/31).The rates of discharge with cure and improvement were 22.5% (36/160)and 66.2% (106/160),respectively,while 18 cases(11.3% )had adverse outcomes.Conclusions Pediatric PM is more common in children aged 3 months to under 3 years.Intracranial complications are more frequently observed in children under 1 year old.Fever is the most common clinical manifestation of PM,and subdural effusion/emphysema and hydrocephalus are the most frequent complications.Non-culture detection methods for cerebrospinal fluid can improve pathogen detection rates.Adverse outcomes can be noted in more than 10% of PM cases.SP strains are high sensitivity to vancomycin,linezolid,meropenem,levofloxacin,moxifloxacin,rifampicin,and chloramphenicol.[Chinese Journal of Contemporary Pediatrics,2024,26(2):131-138]
10.Chinese expert consensus on blood support mode and blood transfusion strategies for emergency treatment of severe trauma patients (version 2024)
Yao LU ; Yang LI ; Leiying ZHANG ; Hao TANG ; Huidan JING ; Yaoli WANG ; Xiangzhi JIA ; Li BA ; Maohong BIAN ; Dan CAI ; Hui CAI ; Xiaohong CAI ; Zhanshan ZHA ; Bingyu CHEN ; Daqing CHEN ; Feng CHEN ; Guoan CHEN ; Haiming CHEN ; Jing CHEN ; Min CHEN ; Qing CHEN ; Shu CHEN ; Xi CHEN ; Jinfeng CHENG ; Xiaoling CHU ; Hongwang CUI ; Xin CUI ; Zhen DA ; Ying DAI ; Surong DENG ; Weiqun DONG ; Weimin FAN ; Ke FENG ; Danhui FU ; Yongshui FU ; Qi FU ; Xuemei FU ; Jia GAN ; Xinyu GAN ; Wei GAO ; Huaizheng GONG ; Rong GUI ; Geng GUO ; Ning HAN ; Yiwen HAO ; Wubing HE ; Qiang HONG ; Ruiqin HOU ; Wei HOU ; Jie HU ; Peiyang HU ; Xi HU ; Xiaoyu HU ; Guangbin HUANG ; Jie HUANG ; Xiangyan HUANG ; Yuanshuai HUANG ; Shouyong HUN ; Xuebing JIANG ; Ping JIN ; Dong LAI ; Aiping LE ; Hongmei LI ; Bijuan LI ; Cuiying LI ; Daihong LI ; Haihong LI ; He LI ; Hui LI ; Jianping LI ; Ning LI ; Xiying LI ; Xiangmin LI ; Xiaofei LI ; Xiaojuan LI ; Zhiqiang LI ; Zhongjun LI ; Zunyan LI ; Huaqin LIANG ; Xiaohua LIANG ; Dongfa LIAO ; Qun LIAO ; Yan LIAO ; Jiajin LIN ; Chunxia LIU ; Fenghua LIU ; Peixian LIU ; Tiemei LIU ; Xiaoxin LIU ; Zhiwei LIU ; Zhongdi LIU ; Hua LU ; Jianfeng LUAN ; Jianjun LUO ; Qun LUO ; Dingfeng LYU ; Qi LYU ; Xianping LYU ; Aijun MA ; Liqiang MA ; Shuxuan MA ; Xainjun MA ; Xiaogang MA ; Xiaoli MA ; Guoqing MAO ; Shijie MU ; Shaolin NIE ; Shujuan OUYANG ; Xilin OUYANG ; Chunqiu PAN ; Jian PAN ; Xiaohua PAN ; Lei PENG ; Tao PENG ; Baohua QIAN ; Shu QIAO ; Li QIN ; Ying REN ; Zhaoqi REN ; Ruiming RONG ; Changshan SU ; Mingwei SUN ; Wenwu SUN ; Zhenwei SUN ; Haiping TANG ; Xiaofeng TANG ; Changjiu TANG ; Cuihua TAO ; Zhibin TIAN ; Juan WANG ; Baoyan WANG ; Chunyan WANG ; Gefei WANG ; Haiyan WANG ; Hongjie WANG ; Peng WANG ; Pengli WANG ; Qiushi WANG ; Xiaoning WANG ; Xinhua WANG ; Xuefeng WANG ; Yong WANG ; Yongjun WANG ; Yuanjie WANG ; Zhihua WANG ; Shaojun WEI ; Yaming WEI ; Jianbo WEN ; Jun WEN ; Jiang WU ; Jufeng WU ; Aijun XIA ; Fei XIA ; Rong XIA ; Jue XIE ; Yanchao XING ; Yan XIONG ; Feng XU ; Yongzhu XU ; Yongan XU ; Yonghe YAN ; Beizhan YAN ; Jiang YANG ; Jiangcun YANG ; Jun YANG ; Xinwen YANG ; Yongyi YANG ; Chunyan YAO ; Mingliang YE ; Changlin YIN ; Ming YIN ; Wen YIN ; Lianling YU ; Shuhong YU ; Zebo YU ; Yigang YU ; Anyong YU ; Hong YUAN ; Yi YUAN ; Chan ZHANG ; Jinjun ZHANG ; Jun ZHANG ; Kai ZHANG ; Leibing ZHANG ; Quan ZHANG ; Rongjiang ZHANG ; Sanming ZHANG ; Shengji ZHANG ; Shuo ZHANG ; Wei ZHANG ; Weidong ZHANG ; Xi ZHANG ; Xingwen ZHANG ; Guixi ZHANG ; Xiaojun ZHANG ; Guoqing ZHAO ; Jianpeng ZHAO ; Shuming ZHAO ; Beibei ZHENG ; Shangen ZHENG ; Huayou ZHOU ; Jicheng ZHOU ; Lihong ZHOU ; Mou ZHOU ; Xiaoyu ZHOU ; Xuelian ZHOU ; Yuan ZHOU ; Zheng ZHOU ; Zuhuang ZHOU ; Haiyan ZHU ; Peiyuan ZHU ; Changju ZHU ; Lili ZHU ; Zhengguo WANG ; Jianxin JIANG ; Deqing WANG ; Jiongcai LAN ; Quanli WANG ; Yang YU ; Lianyang ZHANG ; Aiqing WEN
Chinese Journal of Trauma 2024;40(10):865-881
Patients with severe trauma require an extremely timely treatment and transfusion plays an irreplaceable role in the emergency treatment of such patients. An increasing number of evidence-based medicinal evidences and clinical practices suggest that patients with severe traumatic bleeding benefit from early transfusion of low-titer group O whole blood or hemostatic resuscitation with red blood cells, plasma and platelet of a balanced ratio. However, the current domestic mode of blood supply cannot fully meet the requirements of timely and effective blood transfusion for emergency treatment of patients with severe trauma in clinical practice. In order to solve the key problems in blood supply and blood transfusion strategies for emergency treatment of severe trauma, Branch of Clinical Transfusion Medicine of Chinese Medical Association, Group for Trauma Emergency Care and Multiple Injuries of Trauma Branch of Chinese Medical Association, Young Scholar Group of Disaster Medicine Branch of Chinese Medical Association organized domestic experts of blood transfusion medicine and trauma treatment to jointly formulate Chinese expert consensus on blood support mode and blood transfusion strategies for emergency treatment of severe trauma patients ( version 2024). Based on the evidence-based medical evidence and Delphi method of expert consultation and voting, 10 recommendations were put forward from two aspects of blood support mode and transfusion strategies, aiming to provide a reference for transfusion resuscitation in the emergency treatment of severe trauma and further improve the success rate of treatment of patients with severe trauma.

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