1.Tuina plus Ultrasonic Therapy for Infantile Muscular Torticollis
Zhifang SHEN ; Kaitao LUO ; Gaofeng ZHU ; Yueqin JIN
Journal of Acupuncture and Tuina Science 2014;(6):389-392
Objective:To observe the clinical efficacy of tuina plus ultrasonic therapy in treating infantile muscular torticollis. <br> Methods:Seventy kids with muscular torticollis were intervened by tuina plus ultrasonic therapy, and the efficacy was evaluated after 8-month treatment. <br> Results: After 8-month treatment, 41 subjects were cured, accounting for 58.6%, 27 were improved, occupying 38.6%, 2 failed, occupying 2.8%, and the total effective rate was 97.2%. <br> Conclusion: Tuina plus ultrasonic therapy can produce a significant efficacy in treating infantile muscular torticollis, without adverse effects.
2.Microsurgical treatment of infected extremities after blood vessel prosthesis
Zhongnan ZUO ; Shaobin YU ; Xi ZUO ; Gaofeng JIN ; Yongjun DU ; Xueliang DU ; Degui LI
Chinese Journal of Microsurgery 2009;32(5):369-371,illust 2
Objective To report the clinical effects of microsurgery in treatment of infected extremities after blood vessel prosthesis were transplanted.Methods From Jan.1998 to Dec.2008,8 cases of major vascular injuries in extremities were blood-supplied by cross bridge vascular anastomosis from uninjured extremities,including 4 cases of femoral artery and vein,2 cases of popliteal artery and vein,and 2 cases of brachial artery and vein. Results After 3 years of follow-up,blood circulation of infected extremities were reestablished in each of 8 cases,as well as function and appearance recovered.Conclusion The procedure of cross bridge vascular anastomosis from uninjured extremities may efficiently restitute the blood supply of the infected extremities after blood vessel prosthesis were transplanted,and decrease the rate of amputation.
3.Effects of naloxone at different doses on neurons of cerebral cortex in rats
Chaowu LI ; Mingyi TU ; Suming ZHANG ; Hailing NIE ; Yanni MA ; Yong CHENG ; Gaofeng MAO ; Huang FANG ; Jin ZHANG
Chinese Journal of Tissue Engineering Research 2005;9(13):204-205
BACKGROUND: Naloxone has a significant arousal effect on many types of comas. It is usually believed that this is because its inhibition on endogenous opioid peptides. But depth of coma is not necessarily positively correlated to endorphin (EP).OBJECTIVE: Based on existing findings on direct stimulating effect of naloxone on cerebral cortex, further studies need to be done to explore whether it is dose-dependent or not.DESIGN: Single-factor design based on cells.SETTING: Neurology department in a university hospital and the neurology department in a hospital of a military medical university of Chinese PLA.MATERIALS: This study was completed in the Laboratory Center of Tongji Medical College, Huazhong University of Science and Technology. Thirty healthy new born Wistar rats, regardless of their gender, aging 8 - 12 days and weighing 150 -250 g, were selected.METHODS: The experiment was performed at room temperature. The perfusion slot were placed on the microscope stage, and cells with smooth surfaces, triangle or pyramidal shapes, strong refraction and more than one neurites were selected for patch clamp experiment. Patch clamp whole-cell recording technique was used to measure the pyramidal cells of the frontal lobe immediately after separated from the Wistar rats, and to investigate the fluctuations of their membrane potential of cerebral cortex neurons and the frequencies of their spontaneous electric activities after administration of naloxone at different doses.MAIN OUTCOME MEASURES: The neural excitatory reaction rate, depolarization amplitude and increasing rate of spontaneous electric activities after administration of different doses of naloxone were selected as main outcome measurements.RESULTS: The excitatory reaction rates of cerebral cortex neurons immediately after separation to doses of naloxone(100, 50, 10, 1, 0. 1 μmol/L)were 83%, 67%, 86%, 71% and 33%; while the depolarization amplitude of them were 9. 8, 9.6, 8.4, 5.2 and 1. 3 mV respectively; and the corresponding spontaneous electric activity were increased by 587% , 375% ,291%, 125% and 69%.CONCLUSION: Naloxone can induce excitatory reactions in cerebral cortex neurons directly, and the reactions have proved to be dose-dependent.
4.Study on Metabolic Differences of Cajanonic Acid A in Different Species of Liver Microsomes by UPLC-MS/MS
Li ZHANG ; Jin CAI ; Yujuan BAN ; Gaofeng ZHU ; Rui CHEN ; Jianta WANG ; Lei TANG ; Jing HUANG
China Pharmacy 2019;30(18):2497-2502
OBJECTIVE: To establish a determination method for the concentration of cajanonic acid A (CAA) in liver microsome incubation system, and to compare the metabolism characteristics of it in different species of liver microsomes. METHODS: CAA was dissolved in liver microsome incubation system of rat, Beagle dog and human initiated by reduced nicotinamide adenine dinucleotide phosphate (NADPH), and was incubated in water at 37 ℃. The reaction was terminated with acetonitrile at 0, 5, 10, 15, 30, 45 and 60 min, respectively. Using genistein as internal standard, the concentration of CAA in different incubation systems was determined by UPLC-MS/MS. The determination was performed on Waters BEH C18 column with mobile phase consisted of water (containing 0.1% formic acid)-acetonitrile (containing 0.1% formic acid) (45 ∶ 55, V/V) at the flow rate of 0.25 mL/min. The column temperature was 30 ℃, and the sample size was 2 μL. The electrospray ionization source was used to the select reaction monitoring mode for negative ion scanning. The ion pairs for quantitative analysis were m/z 353.14→309.11 (CAA), m/z 269.86→224.11 (internal standard) respectively. The residual percentage and enzymatic kinetic parameters of CAA in different incubation systems were calculated according to the mass concentration of CAA at 0 min. RESULTS: The linear range of CAA was 0.05-20 μg/mL; the limit of quanti- tation was 0.05 μg/mL, and the lowest detection limit was 0.01 μg/mL. RSDs of intra-day and inter-day were lower than 10%; relative errors ranged -4.83%-8.94%; extraction method and matrix effect did not affect the determination of the substance to be measured. At 60 min of incubation, residual percentages of CAA in rat, Beagle dog and human liver microsomes were(62.79±9.99)%,(64.07±11.59)%,(96.66±5.71)%, respectively. The half-life period (72.19, 68.61 min) of CAA in rat and Beagle dog liver microsomes were significantly shorter than human liver microsome (364.74 min). The clearance rates [0.019 2, 0.020 2 mL/(min·mg)] were significantly higher than human liver microsome [0.003 8 mL/(min·mg)] (P<0.05). CONCLUSIONS: Established UPLC-MS/MS method is simple, rapid, specific and sensitive, and can be used for the determination of CAA concentration in liver microsome incubation system and the study of metabolism stability in vitro. The stability of CAA metabolism in rat and Beagle dog liver microsomes are poorer than human liver microsome.
5.Clinical treatment guideline for pulmonary blast injury (version 2023)
Zhiming SONG ; Junhua GUO ; Jianming CHEN ; Jing ZHONG ; Yan DOU ; Jiarong MENG ; Guomin ZHANG ; Guodong LIU ; Huaping LIANG ; Hezhong CHEN ; Shuogui XU ; Yufeng ZHANG ; Zhinong WANG ; Daixing ZHONG ; Tao JIANG ; Zhiqiang XUE ; Feihu ZHOU ; Zhixin LIANG ; Yang LIU ; Xu WU ; Kaican CAI ; Yi SHEN ; Yong SONG ; Xiaoli YUAN ; Enwu XU ; Yifeng ZHENG ; Shumin WANG ; Erping XI ; Shengsheng YANG ; Wenke CAI ; Yu CHEN ; Qingxin LI ; Zhiqiang ZOU ; Chang SU ; Hongwei SHANG ; Jiangxing XU ; Yongjing LIU ; Qianjin WANG ; Xiaodong WEI ; Guoan XU ; Gaofeng LIU ; Junhui LUO ; Qinghua LI ; Bin SONG ; Ming GUO ; Chen HUANG ; Xunyu XU ; Yuanrong TU ; Liling ZHENG ; Mingke DUAN ; Renping WAN ; Tengbo YU ; Hai YU ; Yanmei ZHAO ; Yuping WEI ; Jin ZHANG ; Hua GUO ; Jianxin JIANG ; Lianyang ZHANG ; Yunfeng YI
Chinese Journal of Trauma 2023;39(12):1057-1069
Pulmonary blast injury has become the main type of trauma in modern warfare, characterized by externally mild injuries but internally severe injuries, rapid disease progression, and a high rate of early death. The injury is complicated in clinical practice, often with multiple and compound injuries. Currently, there is a lack of effective protective materials, accurate injury detection instrument and portable monitoring and transportation equipment, standardized clinical treatment guidelines in various medical centers, and evidence-based guidelines at home and abroad, resulting in a high mortality in clinlcal practice. Therefore, the Trauma Branch of Chinese Medical Association and the Editorial Committee of Chinese Journal of Trauma organized military and civilian experts in related fields such as thoracic surgery and traumatic surgery to jointly develop the Clinical treatment guideline for pulmonary blast injury ( version 2023) by combining evidence for effectiveness and clinical first-line treatment experience. This guideline provided 16 recommended opinions surrounding definition, characteristics, pre-hospital diagnosis and treatment, and in-hospital treatment of pulmonary blast injury, hoping to provide a basis for the clinical treatment in hospitals at different levels.