桑树组织中生物碱DNJ的提取及应用研究
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摘要
本论文主要对蚕业资源综合利用中桑枝的综合利用做一定的分析研究。在蚕业综合利用的各项分支中,桑枝的总量大,利用率低,平均每亩桑园年夏伐桑枝可达到500-800kg,按安徽省近50万亩桑园计算,夏伐桑枝的总产量达到2.5×105~4×105吨,桑枝中含有0.1%~0.2%的生物碱1-脱氧野尻霉素(DNJ),DNJ是一种高效抑制人体内α-葡萄糖苷酶活性、可以用于治疗糖尿病的天然产物,价格昂贵。桑枝中按照0.1%左右的提取量提取10%~30%的DNJ粗提物,可生产成品1000~8000吨,作为糖尿病治疗的保健药品可创收数亿元。通过本实验研究,对夏伐桑枝中生物碱DNJ的提取利用和降血糖效果进行了分析,桑枝中DNJ的提取利用可以为桑枝的综合利用提供理论参考。
     本实验首先用蒸馏水粗提桑树不同组织中的生物碱1-脱氧野尻霉素(DNJ),通过阳离子交换柱层析对粗提液进行纯化后,用紫外分光光度法测定不同组织中DNJ的含量,并比较不同组织样品中DNJ的含量变化。结果表明:桑树不同组织的样品中DNJ含量有一定差异,桑芽、桑枝和发芽前桑皮中所含DNJ含量较高,桑枝中的含量可达0.15%,发芽前桑皮和桑芽次之,发芽后桑皮、桑叶和桑根中所含DNJ不高,发芽后桑皮所含DNJ只有0.03%,发芽前桑皮中DNJ的含量高于发芽后的桑皮,实验结果为桑树不同组织的提取选择和DNJ的利用提供参考。
     将桑树组织中DNJ含量较高的桑枝作为研究对象,选择不同的溶剂和提取条件提取DNJ,比较、分析桑枝中提取DNJ的最佳工艺。对桑枝(主要为夏伐桑枝)的提取工艺研究中,乙醇的提取效果高于蒸馏水,60℃、80%乙醇的条件下提取2小时为DNJ的最佳提取条件,提取率可达到0.176%,对桑枝的三个主要提取条件温度、提取溶液、提取时间进行正交试验,对DNJ提取效果的影响条件中提取温度>提取溶液>提取时间,实验结果为夏伐桑枝中DNJ的提取利用提供了基础。
     对不同存放时间的夏伐桑枝进行DNJ的提取实验和分析。结果表明:随着夏伐桑枝存放时间的延长,桑枝中DNJ的含量发生一定的变化,存放半年、存放一年、存放一年半的夏伐桑枝中DNJ的含量分别为0.148%、0.139%、0.126%。
     提取、分析桑树不同组织中1-脱氧野尻霉素(DNJ)的含量变化后,参照桑枝中DNJ的含量,通过高血糖小白鼠的动物实验,测定桑枝提取液的降血糖效果,实验结果表明:桑枝提取液的降血糖作用明显,比较不同的小白鼠动物实验组,灌胃等量桑枝提取液、二倍量桑枝提取液、降糖药盐酸二甲双胍片的高血糖小白鼠组血糖值四周后分别下降了7.63%、15.72%、18.41%。同时,在不同存放时间的夏伐桑枝的降血糖作用效果的高血糖小白鼠动物实验中,灌胃存放半年的等量桑枝提取液、存放一年的等量桑枝提取液的高血糖小白鼠组血糖值四周后分别下降了15.83%和6.81%。实验结果为桑枝中DNJ的可提取利用性和夏伐桑枝的存放条件、利用价值提供了参考依据。
The study mainly talks about the utilization of mulberry branches, as a major by-products produced in the sericulture. According to the report, the production of cutting branches can reach to500-800kg/mu for one year and a total output of 2.5×105-4×105 tons was acquired from mulberry gardens of 500 thousand mu in Anhui province. There are 0.1%-0.2% of alkaloids 1-deoxynojirimycins in mulberry branch which used as efficient and expensive diabetes for disease treatment. According to extraction rate of 0.1% DNJ from the tissues, these branches could produce 1000-8000 tons of 10%-30% of DNJ crude extracts and bring out several millions RMB income. In this experiment, extract method and hypoglycemic effect of DNJ from mulberry is analyzed and this study may provide theoretical reference for the further utilization of cutting mulberry branches in summer.
     After being extracted by distilled water, DNJ was purified by iron-exchange column chromatography and its content distributed in different tissues was determined by UV spectrophotometric. The results show DNJ content in various parts of mulberry was different: higher levels of DNJ in buds, branches and barks before germinate of mulberry were found, 0.15% in the branches and DNJ contents in barks and buds were followed. However, lower DNJ concentration was determined in leaves and roots of mulberry and was lowest as 0.03% in barks after germinating. These results lay the base for the extraction of DNJ from different tissues of mulberry.
     Taken the branches as experimental material, choose the various conditions such as solvents, time and temperature to analyze the technical parameters. By comparison of different extraction conditions, 80% of ethanol, 60℃and 2 hours treament was optimum and the DNJ extraction rate reaches 0.176% ,while extracted with ethanol is better than distilled water. As far as the infuencing factors on DNJ extraction was concerned, the temperature was more than solvent and time.
     We also found that with the time increases, the DNJ content in the deposited mulberry branches decreases: 0.148 % for half a year, 0.139% for one year and 0.126% for one and half a year,respectively.
     To investigate the blood-glucose lowering effect of DNJ from mulbeery, the animal experiment was performed using hyperglycemic mices model. The results indicates the blood sugar of mice decreases by 7.63%,15.72% and 18.41% after being gavaged with equivalent extract, double amount of extract and metformin, respectively. In addition, blood sugar value of treated mice after 4 weeks decreases with different deposited time of mulberry branches, namely, 15.83% and 6.81% for half a year and one year respectively.
引文
[1]柯益富.桑树栽培及育种学.北京:中国农业出版社,1995
    [2]顾国达.蚕业经济管理.杭州:浙江大学出版社,2003
    [3]朱祥瑞.蚕桑综合利用的现状和展望.蚕桑通报,1995,26(1):13~15
    [4]计成秀,李祖发,叶楚华.湖北蚕业资源的综合开发利用及产业化发展.北方蚕业,2006,27(3): 22-23
    [5]郑其群,许开玲.浅析桑蚕及其副产品综合利用.汉中科技,2007,2:16-17
    [6]姚建忠,许德余.蚕沙中叶绿素a降解过程的化学研究.中草药,1999,30(8):568~571
    [7]黄东亮,田智得,冯健玲.蚕业资源在医疗保健方面的应用.广西蚕业,1999,36 (3):43~47
    [8]平林洁,秋山大二郎,陈开利.全面开发利用茧丝.蚕学通讯,1994,(3):58~60
    [9]桂仲争,傅志强,刘金明,等.蚕、桑叶初提物降血糖的作用效果.蚕业科学,2006,32(1):63~66
    [10]周耀祖.丝素粉的简易加工法与用途开发.蚕桑通报, 1997,(4):51
    [11]平林洁.全面开发利用蚕丝.蚕学通讯,1994 (3):57~60
    [12]张袁松.丝素的多功能开发与应用.蚕学通讯,1999 (4):54~56
    [13]沈以红,朱见.桑树资源综合利用研究概述.蚕学通讯,2007,27 (1):5~9
    [14]陈福君,卢军,张水烃.桑叶降血糖有效组分对糖尿病动物糖代谢的影响.沈阳大学学报,1996,13(1):24
    [15]佐藤修二.桑叶提取物对大鼠小肠二糖类吸收的抑制作用.国外医学中医药分册,1999,21(4):54
    [16]Asano N,Kizu H. Sugars with nitrogen in the ring isolated from the leaves of Mqrus bombycis. Carbohydrate Research,1994,263:235~245
    [17]饭冢幸澄.桑叶对二糖酶的抑制作用.国外医学中医药分册,1999,21(3):54
    [18]Kimura M,Chen F. Antihypeglycemic effects of N-Containing sugars derived from mulberry leaves in strctozocin induced diabetic mice. Wankan lyakuagaku Zasshi,1995,12(3):214~219
    [19]苏海涯,吴跃明,刘建新.桑叶中的营养物质和生物活性物质.饲料研究,2001(9):1~3
    [20]杨海霞.桑叶中DNJ分离纯化及含量测定的研究:[硕士学位论文].浙江大学,2003
    [21]朱祥瑞,鲍惠金.桑叶超氧物歧化酶(SOD)的研究.蚕业科学,1995,21(4):214~218
    [22]Kim SY,Gao JJ,Kang HK. Two flavonoids from the leaves of Morus alba induce differentiation of the human promyelocytic leukemia(HL-60)cell line. Biol Pharm Bull,2000,23(4):451
    [23]江苏新医学院.中药大辞典.上海:上海科学技术出版社,2003:1969
    [24]肖培根.新编中药志.北京:化学工业出版社,2002:665
    [25]梁晓霞,肖学云.浅析桑树的药用价值.中华医学丛刊杂志,2002,2(9):67
    [26]中国医学科学院药用植物资源开发研究所.中药志.北京:人民卫生出版社,1994:482~483
    [27]吴志平,顾振纶,谈建中等.桑枝总黄酮的降血糖作用.中草药,2005,(增刊):239~241
    [28]王蓉,卢笑从,王有为.桑枝提取物及抗炎作用研究.武汉植物学研究,2002,20(6):467~469
    [29]郭宝荣,赵泉霖,钱秋海等.桑枝颗粒剂治疗Ⅱ型糖尿病40例.山东中医药大学学报,1999,23(1):46~47
    [30]王国建.白芥子配桑枝治疗肩周炎.中医研究,1998,11(4):48
    [31]刘明月,牟英,李善福等.桑枝95%乙醇提取物抗炎作用的实验研究.实验中医药学,2003,4(2):13~14
    [32]李娜,李全宏.桑副产品的综合利用.中国食品工业,2006,(7):22~23
    [33]黄月清,郑社会,余建妹.循环利用蚕桑下脚资源发展食用菌生产.今日科技,2008,(1):42~43
    [34]黄文亚.全杆桑枝制浆.四川造纸,1998,9 (20):62~63
    [35]李白琼.提升蚕桑副产物的药物开发利用价值.广西蚕业,2006,43(1):51~54
    [36]吴志平,姜乃珍,谈建中等.用分光光度法测定不同品种桑枝总黄酮含量.蚕业科学,2006,32(1):138~141
    [37]廖森泰,何雪梅,邹宇晓等.广东桑桑枝总黄酮含量测定及与体外抗氧化活性的相关性研究.蚕业科学,2007,33 (3):345~349
    [38]中华人民共和国卫生部药典委员会.中华人民共和国药典.北京:化学工业出版社,2000
    [39]何雪梅,廖森泰,刘吉平.桑树的营养功能性成分及药理作用研究进展.蚕业科学,2004,30 (4):390~394
    [40]廖森泰,肖更生.蚕桑资源创新利用.北京:中国农业科学技术出版社,2006:121~134
    [41]Hughes A B,Rudge A J.Deoxynojirimycin Synthesis and biological activity. Nat Prod Rep,1994,11(2):l35~162.
    [42]邹宇晓,吴娱明,廖森泰等.桑枝的化学成分、药理活性及综合利用研究进展.全国桑树种质资源及育种和蚕桑综合利用学术研讨会,2005,(11):314~3l8.
    [43]姜乃珍,薄铭,昊志平等.中药桑枝化学成分及药理活性研究进展.江西蚕业,2006,(2):124~127.
    [44]陈松.云南野生桑树观察和桑叶1-脱氧野尻霉素含量分析:[硕士学位论文].中国农业大学,2005
    [45]Shigeake Maruo,Hiroshi Yamashita,Katsunori Miyazaki et al. A novel and efficient method for enzymatic synthesis of high purity maltose using moranoline(1-deoxynoJirimycin). Bios ci. Biotech. Biochem.1992,56(9):1406~1409
    [46]Tsutomu Tsuruka,Harumi Fukuyasu,Miyuki Ishii et al. Inhibition of mousetumor metastasis with nojirimycin-related compounds. Journal of Antiboitics,1996,49(2):155~161
    [47]Yohji Ezure,Shigeake Maruo,Katsunori Miyazaki et al. Moranoline (1-deoxynojirimycin)fermentation and its improvement. Agric.Biol.Chem.1995,49(4):1119~1125
    [48]Yohji Ezure. Enzymatic synthesis of D-glucopyranosyl-moranoline. Agric.Biol. Chem,1995, 49(7):2159~2165
    [49]Yohji Ezure,Shigeaki Maruo, Bobutoshi Ojima, et al. Enzymatic preparation of N-substituted D-glucopyranosylmoranoline derivatives. Agric. Biol. Chem.1999. 53(1): 61~68
    [50]Yoshiaki.Yoshikuni.Inhibition of intestinalα-glucosidase activity and postprandial hypergly- -cemia by moranoline and its N-alkyl derivatives. Agric.Biol. Chem,1998,52(1):235
    [51]Yoshiaki A,Hivomu M. The structure of moranoline,a piperidine alkaloid from morus species. Nippon.Nogei Kagaku Kaishi,1986,50(11):571~572
    [52]Hang Sub Kim,Young Ho Kim,Young Soo Hong et al.α-Glucosidase inhibitors from commelina communis. Planta Medica,1999,65:437~439
    [53]Naoki Asano,Atsushi Kato,Miwa Miyauchi et al. Nitrogen-containing furanose and pyranose analogues from hyacinthus orientalis. Nat. Prod,1998,62:625~628
    [54]Naoki Asano,Makoto Nishid,Miwa Miyauchi et al. tyhydroxylated pyrrolidine and piperidine alkaloids from adenophora triphylla var. japonica(campanulaceae),Phytochemistry,2000,53:379~382
    [55]Naoki Asano,Makoto Nishida,Haruhisa Kizu et al. Homonojirimycin isomers and glycosides from aglaonema treubii. Nat. Prod,1997,60:98~101
    [56]Hiroshi Nojima,Ikuko Kimura,Fu-jun Chen et al. Antihyperglycemic effects of N-containing sugars from xanthocercis zambesiaca,morus bombycis,,aglaonematreubii,and castanospermum australe in streptozotocin-diabetic mice. Nat.Prod. 1998,61:397~400
    [57]Naoki Asano,Atsushi Kato,Katsuhiko Matsui. Two subsites on the active center of pig kidney trehalase. Eur. J. Biochem,1996,240:692~698
    [58]Budhan S. Pukazhenthi, Nagaraja Muniappa,Inder K. Vijay. Role of sulfhydryl groups in the function of glucosidase I from mammary gland. Biol. Chem,1993,263(9):6445~6452
    [59]Deng H. K,Liu R,EllmeierW etal. Identification of a major co-receptor for primary isolates of HIV-1,Nature,1996,381:661~666
    [60]Fenouillet E,Gluckman J. C,Jones M. Functions of HIV envelope glycans. Trends. Biochem. Sci,1994,19:65~70
    [61]Fenouillet E,Jones I. M. The hyperglycosylation of HIV envelope:anopportunity to alter virus infectivity?Perspect. Drug. Disc. Design,1996,5:203~212
    [62]Moore J. P,Jameson B.A,Weiss R.A et al. The HIV-cell fusion reaction. Viral Fusion mechanisms,1993:230~289
    [63]Emmanuel Fenouillet,Marie-Jenne Papandreou,Ian M. Jonest. Recombinant HIV envelopeexpressed in anα-glucosidase 1-deficient CHO cell line and its parental cell line in the presence of 1-deoxynojirimycin is functional. Virology,1997, 231:89~95
    [64]Prasad S,Sunkara,Terry L et al. Antiretroviral activity of castanospermine and deoxynojirimycin, specific inhibitors of glycoprotein processing. Biochemical and Biophysical Research Communications,1987,148(1):206~210
    [65]P.B.Fischer,M.Collin,GB.Karlsson et al. Theα-glucosidase inhibitor N-buty 1-deoxynojirimycin inhibits Human Immunodeficiency Virus entry at thelevel of post-CD4 binding. Virology,1995,69(9):5791~5797
    [66]陈耀基.近年来糖尿病药物的上市、开发情况.上海医药,2002,23(11):505-506
    [67]李子凤,向红丁.糖尿病的防治.医师进修杂志,2002,25(11):12~14
    [68]郭茜,马小琴.口服降糖药物的临床评价.中国综合临床,2002,18(10):870-871
    [69]杨章群,杨瑞金.口服降糖药物的临床应用.河北职工医学院学报,2002,19(3):36~37
    [70]刘刚.糖尿病的口服降糖药物治疗.中国乡村医药杂志,2002,9(11):4~6
    [71]吴素芳,王建忠.丛亚丽糖尿病药物治疗的新进展.中国医刊,2002,37(9):55~56
    [72]刘刚,黄安家,佟万红等.桑枝的营养功能成分及其综合利用.河北农业科学,2008,(12) 8:114~117
    [73]关丽萍,郑光浩,金晴昊. RP-HPLC测定不同地区、不同采集期桑叶中1-脱氧野尻霉素.中草药,2005 ,36(12):1881~1882
    [74]耿鹏,朱元元,杨洋等.桑树资源中1-脱氧野尻霉素的测定及其生物活性分析.中草药,2005,36(8),1151~1154
    [75]汪茂田,谢培山,王忠东等.天然有机化合物提取分离与结构鉴定.北京:北京化学工业出版社,2004
    [76]金继曙.用大孔吸附树脂分离白芍总苷.中国中药杂志,1994,19(1):31
    [77]张红,童明容,王永耀等.大孔吸附树脂提取喜树碱的研究离子交换. 1995,11(2):145~150
    [78]王新宏,范广平,安睿等.苦参生物碱的高速逆流色谱法制备研究.中草药,2000,31(11);816~818
    [79]蔡定国,余佳红,刘文庸等.高速逆流色谱制备性分离纯化白果内酯和橙皮柑对照品.中药新药与临床药理,1999,10(6):364~366
    [80]江和源,程启坤,杜琪珍.高速逆流色谱在茶黄素分离上的应用.茶叶科学,2000,20(1):40~44
    [81]郭孝武.超声与常规法对部分中药苷类成分提出率的比较.中国医药工业杂志,1998,29(2):51~54
    [82]雷晓燕,黄海华. 1-脱氧野尻霉素及其衍生物的药理学与合成研究进展.沈阳药科大学学报,2000,17(6):456~460
    [83]汪谦.现代医学实验方法.北京:人民卫生出版社,1996
    [84]施新琴,崔为正,裘立群等.用反相高效液相色谱-紫外检测法测定1-脱氧野尻霉素的含量.蚕业科学,2006,32(1):146~149
    [85]欧阳臻,陈钧.不同季节桑叶中1-脱氧野尻霉素(DNJ)含量的测定.食品科学,2004,25(10):211~214
    [86]欧阳臻,陈钧,李永辉.柱前衍生化高效液相色谱荧光检测法测定桑叶中1-脱氧野尻霉素.分析化学研究简报,2005,33(6):817~820
    [87]陈智毅,肖更生,陈卫东等.蚕沙及蚕沙冲剂中1-脱氧野尻霉素的离子色谱法测定.中国蚕业,2003,1:30~31
    [88]马静,刘树兴.桑枝中1-脱氧野民霉素(DNJ)的研究进展.食品科技,2006,9:112~114
    [89]杨海霞,朱祥瑞. 1-脱氧野尻霉素(DNJ)的研究进展.蚕桑通报,2003,34(1):6~10
    [90] Kimuar M, et al. Antihyperglycemic effects of N-containing sugarsderived from mulberry leaves is streptozocin-in-duced diabetic mice. Wakan Iyakugaku Zasshi,1995,12(3):214~219
    [91]李宇亮,李剑敏,吴雅睿. 1-脱氧野尻霉素提取分离方法研究.应用化工,2006,35(9):659~661
    [92]杨海霞,朱祥瑞,陆洪省.桑叶保健制品开发利用研究进展.科技通报,2003,19(1):72~76

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