3种致病性弧菌选择性鉴别培养基的研制
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摘要
水产品是人类赖以生存的基础物质和重要蛋白来源,深得消费者的喜爱,消费量也在日益提高。致病性弧菌是水产品中引发人体疾病的主要致病菌,会引发人的季节性传播流行性的肠道疾病,导致人类发生严重的腹泻等消化道疾病或创伤感染病变、创伤感染或发生败血症,甚至死亡。研究和建立致病性弧菌快速检测的新技术和新方法受到各国研究机构的重视。用选择性鉴别培养基即可满足抽检率,更真实的反应水产品的污染状况,又能克服标准方法的费时、繁琐和成本较高等许多不足。
     本论文主要围绕以下几个方面开展了一些工作:
     1霍利斯弧菌选择性鉴别培养基的研制
     基于霍利斯弧菌的基础营养和特殊生态环境需求,优化了其增菌培养基及培养条件。通过单因素试验结合响应面组合试验得到如下结果:培养基组成成分为混合蛋白胨2.11%(胰蛋白胨:鱼蛋白胨为1:1)、酵母浸膏0.210%、NaCl2.13%、pH7.5;培养温度为36土1℃。经过8h增菌后,该培养基的菌液浓度是GB/T4789.7-2008中规定方法的碱性蛋白胨水(APW)增菌菌液浓度的1.39倍,增菌效果明显。
     以霍利斯弧菌特有的酶系统及其代谢特点和对某些特定抑菌成分的抵抗力为基础,设计研制了霍利斯弧菌选择性鉴别培养基(VhDM)。试验中对VhDM的显色效果、平板效率、灵敏度和特异性进行评价。结果显示:VhDM对霍利斯弧菌具有较好的选择性和特异性;用VhDM在36±1℃培养16h-24h,霍利斯弧菌菌落为黄色;其它各种弧菌及非弧菌属致病菌菌落呈红色或未形成有效的可见菌落;VhDM对霍利斯弧菌的出菌效率与嗜盐琼脂相比为(90.65±1.72)%;检出限为101cfu/mL:因此,VhDM对海产品中霍利斯弧菌分离鉴别与检测是可行的,且具有操作简便、经济、结果易于观察等优点。
     2河弧菌选择性鉴别培养基的研制
     基于河弧菌的基础营养和特殊生态环境需求,优化了其增菌培养基及培养条件。通过单因素试验结合响应面组合试验得到如下结果:培养基组成成分为混合蛋白胨2.24%(胰蛋白胨:鱼蛋白胨为1:3)、酵母浸膏0.204%、NaCl1.81pH8.0;培养温度为36±1℃。经过8h增菌后,该培养基的菌液浓度是GB/T4789.7-2008中规定方法的碱性蛋白胨水(APW)增菌菌液浓度的1.59倍,增菌效果明显。
     以河弧菌特有的酶系统及其代谢特点和对某些特定抑菌成分的抵抗力为基础,设计研制了河弧菌选择性鉴别培养基(VfDM)。试验中对VfDM的显色效果、平板效率、灵敏度和特异性进行评价。结果显示:VfDM对河弧菌具有较好的选择性和特异性;用VfDM在36±1℃培养18h-24h,河弧菌菌落为深褐色;其它各种弧菌及非弧菌属致病菌菌落呈红色或未形成有效的可见菌落;VfDM对河弧菌的出菌效率与嗜盐琼脂相比为(92.80±2.88)%;检出限为101cfu/mL;因此,VfDM对海产品中河弧菌分离鉴别与检测是可行的,且具有操作简便、经济、结果易于观察等优点。
     3弗尼斯弧菌选择性鉴别培养基的研制
     基于弗尼斯弧菌的基础营养和特殊生态环境需求,优化了其增菌培养基及培养条件。通过单因素试验结合响应面组合试验得到如下结果:培养基组成成分为混合蛋白胨2.08%(胰蛋白胨:鱼蛋白胨为1:3)、酵母浸膏0.221%、NaCl1.94%、pH8.5;培养温度为36±1℃。经过8h增菌后,该培养基的菌液浓度是GB/T4789.7-2008中规定方法的碱性蛋白胨水(APW)增菌菌液浓度的1.48倍,增菌效果明显。
     以弗尼斯弧菌特有的酶系统及其代谢特点和对某些特定抑菌成分的抵抗力为基础,设计研制了弗尼斯弧菌选择性鉴别培养基(VfuDM)。试验中对VfuDM的显色效果、平板效率、灵敏度和特异性进行评价。结果显示:VfuDM对弗尼斯弧菌具有较好的选择性和特异性;用VhDM在36±1℃培养18h-24h,弗尼斯弧菌菌落为黄色;其它各种弧菌及非弧菌属致病菌菌落呈蓝色或未形成有效的可见菌落;VfuDM对弗尼斯弧菌的出菌效率与嗜盐琼脂相比为(92.98±2.58)%;检出限为101cfu/mL;因此, VfuDM对海产品中弗尼斯弧菌分离鉴别与检测是可行的,且具有操作简便、经济、结果易于观察等优点。
     通过增菌培养基与选择性鉴别培养基结合检测3种致病性弧菌的方法,与常规方法(TCBS结合法国梅里埃细菌鉴定系统API20E试剂条或弧菌科生化鉴定管)相比,提高了目的菌的检出率,检测结果直观,易于观察,灵敏度高、特异性强,且降低检测成本,操作简便,减少工作量,具有更高的检测效率和鉴别能力,为构建同时快速筛检12种致病性弧菌的增菌和选择性鉴别培养基系统做了部分工作。
Aquatic products are the survival foundation material and important protein source of human. It is loved by the consumers with a continuous increase of consumption. Pathogenic Vibrio in the aquatic products was the main pathogenic bacteria which causes human diseases. It can cause the intestinal diseases which spread seasonally and epidemically, such as severe diarrhea, wound infection and even septicemia. Research and setting up new techniques and methods of rapid detection of Pathogenic Vibrio were taken seriously by research institutions of various countries. The selective differential medium can not only meet the need of the rate of inspection, but also reflect the contamination status of the aquatic products. Moreover, it can overcome the weak points of the standard method, which was time-consuming, cockamamie and high-cost.
     The researches carried out in this paper would be described as follows:
     1. Study on Vibrio hollisae Differential Medium(VhDM)
     To save enrichment culture time and enhance the detection efficiency, the enrichment mediums of Vibrio hollisae(Vh) were optimized based on nutrient requirements and living environment demands. The results showed as follow:Vh enrichment medium compositions for mixture peptone2.11%(tryptone:fish peptone=l:l), yeast extract0.210%, NaCl2.13%, pH7.5; temperature of culturing was36±1℃. After8hours culturing, the bacteria liquid concentration of Vh enrichment medium was1.39times than that of Vh cultured on APW (GB/T4789.7-2008) under the same condition, it was obvious.
     Based on the specific enzyme systems and the corresponding metabolisms of Vh, according to the resistibility to different antibacterial ingredients, VhDM was designed for the rapid separation, identification or detection of Vh. The tests of color effects, plating efficiency, sensitivity and specificity were done to evaluate the efficiency of VhDM. The results showed that:VhDM has good selectivity and specificity for Vh. After incubation for16-24h at36±1℃, The Vh formed yellow colonies on VhDM. The other strains did not form colonies or formed red colonies.VhDM showed a mean plating efficiency of Vh cells of (90.65±1.72)%and its detection limit was101cfu/mL. Accordingly, VhDM is suitable for kinds of inspection agencies to detect Vh, which is simple operation, lower cost, convenient for observation and so on.
     2. Study on Vibrio flurialis Differential Medium(VfDM)
     To save enrichment culture time and enhance the detection efficiency, the enrichment mediums of Vibrio flurialis(Vf) were optimized based on nutrient requirements and living environment demands. The results showed as follow:Vf enrichment medium compositions for mixture peptone2.24%(tryptone:fish peptone=l:3), yeast extract0.204%, NaCl1.81%, pH8.0; temperature of culturing was36±1℃. After8hours culturing, the bacteria liquid concentration of Vf enrichment medium was1.59times than that of Vfcultured on APW (GB/T4789.7-2008) under the same condition, it was obvious.
     Based on the specific enzyme systems and the corresponding metabolisms of Vf according to the resistibility to different antibacterial ingredients, VfDM was designed for the rapid separation, identification or detection of Vf. The tests of color effects, plating efficiency, sensitivity and specificity were done to evaluate the efficiency of VfDM. The results showed that:VhDM has good selectivity and specificity for Vf. After incubation for18-24h at36±1℃, The Vf formed yellow colonies on VfDM. The other strains did not form colonies or formed red colonies.VfDM showed a mean plating efficiency of Vf cells of (92.80±2.88)%and its detection limit was101cfu/mL. Accordingly, VfDM is suitable for kinds of inspection agencies to detect Vf, which is simple operation, lower cost, convenient for observation and so on.
     3. Study on Vibrio furnissii Differential Medium(VfuDM)
     To save enrichment culture time and enhance the detection efficiency, the enrichment mediums of Vibrio furnissii(Vfu) were optimized based on nutrient requirements and living environment demands. The results showed as follow:Vfu enrichment medium compositions for mixture peptone2.08%(tryptone:fish peptone=l:3), yeast extract0.211%, NaCl1.94%, pH8.5; temperature of culturing was36±1℃. After8hours culturing, the bacteria liquid concentration of Vfu enrichment medium was1.48times than that of Vh cultured on APW (GB/T4789.7-2008) under the same condition, it was obvious.
     Based on the specific enzyme systems and the corresponding metabolisms of Vfu, according to the resistibility to different antibacterial ingredients, VfuDM was designed for the rapid separation, identification or detection of Vfu. The tests of color effects, plating efficiency, sensitivity and specificity were done to evaluate the efficiency of VfuDM. The results showed that:VfuDM has good selectivity and specificity for Vfu. After incubation for16-24h at36±1℃, The Vfu formed yellow colonies on VfuDM. The other strains did not form colonies or formed red colonies.VfuDM showed a mean plating efficiency of Vfu cells of (90.65±1.72)%and its detection limit was101cfu/mL. Accordingly, VhDM is suitable for kinds of inspection agencies to detect Vfu, which is simple operation, lower cost, convenient for observation and so on.
     We have successfully established an isolation and identification method for Vibrio hollisae, Vibrio flurialis, and Vibrio furnissii. As compared with the conventional methods (TCBS combined with the API20E system or biochemistry assessor of Vibrionaceae), vibrio enrichment mediums combined with three Selective Differential medias respectively, used for isolation and detection of Pathogenic Vibrio, possess the advantages of simple operation, economic, convenient for observation, high sensitivity and specificity, which could lay the foundation for the further study.
引文
[1]蒋原主编.食源性病原微生物检测指南[M].北京:中国标准出版社,2010:1-2.
    [2]DIANE G N, MARION K, LINDA V, et al. Food-borne diseases. The challenges of 20 years ago still persist while new ones continue to emerge [J]. International Journal of Food Microbiology,2010 (139):S3-S15.
    [3]MEAD P S, SLUTSKER L, DIETZ V, et al. Food-related illness and death in the United States[J]. Emerging Infectious Diseases,1999(5):607-625.
    [4]尹伊君.食源性疾病的控制[J].品牌与标准化,2011,(06):16.
    [5]黄显.食源性疾病:谨防病从口入[N].北京晨报,2006.09.11.5.
    [6]消化微创诊疗中心.食源性疾病危险因素来源[DB/OL].(2008.11.11)http://jzxh k.cnkme.com/lectures/show/5037.
    [7]陈伟.六种食源性致病微生物PCR检测及固相化试剂盒的研究[D].重庆大学,2008.
    [8]孙晓飞,赵凯,王金斌,等.食源性病原菌检测方法研究进展[J].食品科学,2010,(14):334-336.
    [9]焦豫良.六种食品致病菌的多重PCR检测[D].西北大学,2005.
    [10]工蕾,蔡苍.食源性病原微生物快速分析与检测[J].食品安全导刊,2011,(03):28.
    [11]钟耀广.中国水产品质量安全存在的主要问题及其对策[J].上海食品药品监管情报研究,2007,89(06):8-11.
    [12]金少胜.杭州市水产品消费现状及趋势[J].中国渔业经济,2003,(01):29-30.
    [13]李泰然.中国食源性现状及管理建议[J].中国流行病学杂志,2003,8:651-653.
    [14]胡萍,李红,韩淑杰,等.深圳市2005-2007年食物中毒情况分析[J].华南预防医学,2010,36(03):55-57.
    [15]吴燕燕,李凤霞,李来好.水产品病原菌及其检测与控制技术研究进展[J].微生物学通报,2009,36(1):113-119.
    [16]陈奖励,何招阳,赵文.水产微生物学[M].北京:农业出版社,1993:363-418.
    [17]KAYSNER C A, DEPAOLA A. Vibrio [M/OL]. US FDA. Bacteriological analytical manual online. (2004-05). http://www.cfgan.fda.gov/-ebam/bam-9.html.
    [18]郭秀平.微生物制剂在水产养殖中的推广心用研究[D],华中农业大学,2009.
    [19]科技部.“十五”重大专项项目可行性研究报告[R].2002.
    [20]梁兆强,谢梅冬,蕈晓明,等.畜产品安全风险分析现状和对策[J].农产品质量与安全,2010(03):50-52.
    [21]夏凡,杨丽君,王静,等.病原性海洋弧菌致病机理及其快速检测方法研究进展[J].食品工业科技,2011,32(01):366-376.
    [22]DAVID H B, JOHN G, HOLT. Bergey's manual of determinative bacteriology (9th ed)[M]. Baltimore:Williams WikinsCo,1994:190-194.
    [23]BALOWS A. Manual of Clinical Microbiology,5 th ed[M]. Washington DC,1991: 384-389.
    [24]MARIANNE D. MILIOTIS, JEFFREY W B. International handbook of foodborne patho-gens[M]. Marcel Dekker, Inc., New York,2003:295-322.
    [25]THOMPSON F L, IIDA T, SWINGS J. Biodiversity of Vibrios[J]. Microbiology and Molecular Biology Reviews,2004,68(3):403-431.
    [26]李玉英,李槿年.致病性弧菌致病机理研究进展[J].水利渔业,2003,23(01):56-57.
    [27]MARTINEZ U J, LOZANO L A, DEPAOLA A, et al. Characterization of pathogenic Vibrio parahaemolyticus isolates from clinical sources in Spain and comparison with Asian and North American pandemic isolates[J]. Journal of Clinical Microbiology,2004, (42):4672-4673.
    [28]BEATTY M E, JACK T, SIVAPALASINGAM S, et al. An Outbreak of Vibrio cholerae 01 infections on Ebeye Island, Republic of the Marshall Islands, associated with use of an adequately chlorinated water source[J]. Clinical Infectious Diseases,2004, (38):1-2.
    [29]CHANG-CHIEN C H, DING H T, LIU C, et al. Vibrio infection associated with finning in-jury of the hand[J]. Injury,2007, (38):614-615.
    [30]刘秀梅.食源性疾病监控技术技术的研究[J].中国食品卫生杂志,2004,16(01):3-9.
    [31]WONG H C, LEE Y S. Regulation of iron on bacterial growth and production ofthermostable direct hemolysin by Vibrio parahaemolyticus in intraperitoneal infectedmice[J]. Microbiology and Immunology,1994,38 (5):367-371
    [32]LESMANA M, SUBEKTI D S, TJANIADI P, et al. Spectrum of vibriospecies associated with acute diarrhea in North Jakarta, Indonesia[J]. Diagn Microbiol Infectious Disesses,2002, (43):91-92.
    [33]KLONTZ K C, COVER D E, HYMAN F, et al. Fatal gastroenteritis due to Vibrio fluvialis and nonfatal bacteremia due to Vibrio mimicus:unusual vibrio infections in two patients[J]. Clinical Infectious Diseases,1994, (19):541-542.
    [34]HICKMAN F, FARMER J, HOLLIS D, et al. Identification of Vibrio hollisae sp. nov. from patients with diarrhea[J]. Clinical Microbiol,1982, (15):395-401.
    [35]张保强,董力群,王逊,等.致病性弧菌的研究概况[J].职业与健康,2006,22(24):2171-2172.
    [36]徐晓红,贾硕柱.一起由霍利斯弧菌引起食物中毒的调查分析[J].中国当代医药,2009,16(23):144-145.
    [37]柳增善主编.食品病原微生物学[M].北京:中国轻工业出版社,2007:134-136.
    [38]LEE J V, SHREAD P, FURNISS L, et al. Taxonomy and description of Vibrio fluvialis sp. nov. (synonym group F vibrios, group EF6)[J]. Journal of Applied Bacteriology,1981, (50):73-94.
    [39]LEE J V, SHREAD P. The taxonomy of group F organisms:relationships to Vibrio and Aeromonas[J]. Journal of Applied Bacteriology,1978, (45):19.
    [40]尹振田,牟道群,王建芬.河弧菌生物学特性及菌型分布[J].中华医学检疫杂志,1995,18(06):357.
    [41]张保强,王逊,祁鲁萍,等.市售水产品致病性弧菌的调查.中国卫生捡验杂志,2000,10(5):555.
    [42]LOCK WOOD D E, KREGER A S, RICHARDSON S H. Detection of toxins produced by Vibrio fluvialis[J]. Infectious and Immunity,1982, (35):702-708.
    [43]NISHIBUCHI M, SEIDLER R J. Medium-dependent production of extracellular enterotoxins by non-O1 Vibrio cholerae, Vibrio mimicus, and Vibrio fluvialis[J]. Applied and Environmental Microbiology,1983, (45):228-231.
    [44]AMEL B K, AMINE B. Survival of Vibrio fluvialis in seawater under starvation conditions [J]. Microbiology Research,2006, (9):1-6.
    [45]YAN Q, ZHAO M, WANG X, et al. Adhesion mechanisms of Vibrio fluvialis to skin mucus of Epinephelus awoara[J]. Chinese Journal of Oceanology and Limnology,2010,26(2):260-266.
    [46]KHAN M U, SHAHIDULLAH M. Epidemiological pattern of diarrhoea caused by non-agglutinating vibrios (NAG) and EF-6 organisms in Dacca[J]. Tropicao and Geographical Medicine,1982, (34):19-27.
    [47]BRENNER D J, HICKMAN F W, BRENNER, et al. Vibrio furnissii (formerly aerogenic biogroup of Vibrio fluvialis), a new species isolated from human feces and the environment[J]. Clinical Microbiol,1983, (18):816-824.
    [48]FARMER J, HICKMAN-BRENNER F. The Genera Vibrio and Photobacterium[J]. Prokaryotes,2006, (6):508-563.
    [49]刘军剑,贾宝斌.以起由弗尼斯弧菌引起的食物中毒调查[J].中华综合医学,2002,(01):92-93.
    [50]郭振坤,张晓兵,韩明琳,等.本溪地区首次从食物中毒标本中检出弗尼斯弧菌(V.furnissii)[J].中国卫生检验杂志,2000,10(4):457-458.
    [51]韦兵,刘永松,赵明.食源性致病菌快速检测方法研究进展[J].河北农业科学.2008,12(02):3-5.
    [52]GB/T 4789.7-2008.中华人民共各国国家标准[S].
    [53]陈庆森,冯水强,黄宝华.食品中致病菌的快速检测技术的研究现状与进展[J].食品科学,2003,(11):148-152.
    [54]KAYSNER A, DEPAOLA A. Bacteriological Analytical Manual Online-Chapter: Vibrio. Food and Drug Administration of United States,2004. http://www.cfsanfd--agov/-ebam/bam-9.html.
    [55]宫航宇,石铭,韩博.基因探针技术在传染病诊断中的应用[J].临床肝胆病杂志,2005,21(06):380-382.
    [56]王鑫,车振明,黄韬睿.分子生物学方法在食品安全检测中的应用[J].食品工程,2007,(3):7-10.
    [57]AABO S, ANDERSEN J K, OLSEN J E. Research note:detection of Salmonella inminced meat by the polymerase chain reaction method[J]. Letters in Applied Microbiology,1995,(21):180-182.
    [58]ROBERT P A, COPIN S, GAY M, et al. Total and pathogenic Vibrio parahaemolyt--icus in shrimp:Fast and reliable quantification by real-time PCR[J]. International Journal of Food Microbiology,2010,143(10):190-197.
    [59]刘茂军,苏国东周勇岐,等.动物产品生物源性污染及其快速检测技术研究进展[J].江苏农业科学,2006,(06):411-414.
    [60]PANICKER G, MICHAEL L, ASIM K. Rapid Detection of Vibrio vulnificus in Shellfish and Gulf of Mexico Water by Real-Time PCR[J]. Applied and Environmental Microbiology.2004,70(01):498-507.
    [61]CAO J, XU J, ZHENG Q, et al. Rapid Detection of Vibrio metschnikovii in Aqu-atic Products by Real-Time PCR[J]. Folia Microbiol.2010,55 (6):607-613.
    [62]TEH C S, CHUA K H, THONG K L. Simultaneous differential detection of human pathogenic and nonpathogenic Vibrio species using a multiplex PCR based on gyrB and pntA genes[J]. Applied Microbiology.2010, (108):1940-1945.
    [63]杨小鹃,吴青平,张菊梅,等.多重PCR检测无公害畜禽肉和水产品种4种致病菌[J].微生物学通报,2005,32(3):95-101.
    [64]许信刚,张琪.病原微生物检验新技术研究进展[J].畜禽业,2003,(06):6-8.
    [65]张守文,周玉玲,尹蕾.海鲜食品中致病性微生物检测方法概述[J].中国调味品,2010,35(2):42-45.
    [66]陈福生,高志贤,王建华.2004:食品安全检测与现代生物技术[M].北京:化学工业出版社.
    [67]TAMPLINM, MARTINAL, RUPLAD, et al. Enzyme immunoassay for identification of Vibrio vulnificus in seawater, sediment, and oysters [J]. Applied Environmental Microbiology,1991,57(4):1235-1240.
    [68]何彬斌,钟青萍,王斌.抗副溶血弧菌IgY的提纯及检测副溶血弧菌的间接ELISA的建立[J].华南农业大学学报,2008,29(4):95-99.
    [69]范瑾瑾,俞纯山.电化学免疫传感器测定Ag-Ab反应[J].国外医学:临床生物化学与检验学分册,1995,16(4):159-160.
    [70]霍群.电化学免疫传感器[J].临床检验杂志,2003,21(3):181-182.
    [71]曹际娟,闫平平,丁珂,等.变性高效液相色谱检测霍乱弧菌[J].辽宁师范大 学学报:自然科学版,2008,31(3):347-352.
    [72]JAMES D O. The viable but non-culturable state in the human pathogen Vibrio vulnificus[J]. EEMS Microbiology Letters,1995,133:203-208.
    [73]SN/T 1869-2007.中华人民共和国出入境检验检疫标准[SN].
    [74]SN/T 1870-2007.中华人民共和国出入境检验检疫标准[SN].
    [75]日本厚生劳动省.食品卫生检查指针-微生物编[M].日本:社团法人日本食品卫生协会,2004:201-224.
    [76]王晶,王林,黄晓蓉.食品安全快速检测技术[M].北京:化学工业出版社,2007:85-120.
    [77]卢汉兴,车光,王红,等.显色培养基在微生物检验初筛中的应用[J].广西预防医学,2001,7(01):44-47.
    [78]张淑红,吴清平,张菊梅,等.副溶血性弧菌显色培养基检测效果初步评价[J].微生物学通报,2008,25(8):145-148.
    [79]MAMMAD M, BIRGIT K. Comparative evaluation of different chromogenic/ fluorogenic media for detecting Escherichia coli O157:H7 in food[J]. International Journal of Food Microbiology,2001,71(12):257-262.
    [80]YUKIKO H, TOKUHION N, HIROSHI N. Improved menthod for detdction of Vibrio parahaemolylicus in seafood[J]. Applied Environmental Microbiology,2001, 67:5819-5823.
    [81]吴清平,周艳平,蔡芷荷.卫生微生物特异性显色培养基地的研究与应用[J].中国卫生检验杂志,2005,15(1):124-126.
    [82]张淑红,吴清平,张菊梅,等.显色培养基在几种食源性致病菌快速检测中的应用[J].微生物学通报,2006,33(6):108-111.
    [83]张冕.基于选择性鉴别培养基、酶免疫传感器和智舌对阪崎肠杆菌快速检测的研究[D].浙江工商大学,2011.
    [84]申科敏.致病性弧菌增菌培养基和选择性鉴别培养基的研究[D].浙江工商大学,2010.
    [85]MANAFI M, KNEIFEL W, BASCOMB S. Fluorogenic and chromogenic substrates used in bacterial diagnostics[J]. Microbiologycal Reviewc,1991,55: 335-348.
    [86]MANAF M. Flurogenic and chromogenic enzyme substrates in culture media and identification tests[J]. International Journal of Food Microbiol,1996,31:45-58.
    [87]朱敏华.科玛嘉弧菌显色培养基对弧菌的分离培养[D].中国科学院上海冶金研究所,2000.
    [88]ANGELA D P, VALENTINA T, LUCIA N, et al. Comparison between thiosulphate-citratebile salt sucrose (TCBS) agar and CHROMagar Vibrio for isolating Vibrio parahaemolyticus[J]. Food Control,2011,22:124-127.
    [89]CROCI L, SUFFREDINI E, COZZI L, et al. Comparison of different biochemical and molecular methods for the identification of Vibrio parahaemolyticus[J] Journal of Applied Microbiology,2007,102:229-237.
    [90]SU Y C, LIU C. Vibrio parahaemolyticus:a concern of seafood safety[J]. Food Microbiology,2007,24:549-558.
    [91]YUKIKO H, TOKUHION N, HIROSHI N. Improved menthod for detction of Vibrio parahaemolyticus in seafood[J]. Applied Environmental Microbiology, 2001,67:5819-5823.
    [92]巫结冰,陈德云,胡伟宁,等.弧菌显色培养基进行多种弧菌分离鉴定的研究[J].中国卫生检验杂志,2007,17(8):1451-1452.
    [93]张淑红,吴清平,张菊梅.副溶血性弧菌特异性显色生化快速检测方法的研究[C].中国微生物学会第九次全国会员代表大会暨学术年会,2006.
    [94]陈舒奕,郑晶,黄晓蓉,等.水产品副溶血性弧菌不同增菌液增菌效果的比较[J].安徽农业科学,2009,37(26):12395-12396.
    [95]朱艳静,李宇.测定菌体浓度的简便方法[J].工业微生物,2006,36(4):47-49.
    [96]JI R X, ZOU W Z, HU S L, et al. Vaccination in three different ways against vibr-iosis of Seriola dumerili caused by Vibrio hollisae[J]. Chinese Journal of Oceanology and Limnology,2008, (26):233-237.
    [97]SUZUK K, TABABE T, MOON Y H, et al. Identification and transcriptional organization of aerobactin transport and biosynthesis cluster genes of Vibrio hollisae[J]. Research in Microbiology,2006, (157):730-740.
    [98]王军,鄢庆枇,苏永全,等.溶藻弧菌的间接荧光抗体快速检测[J].海洋科学(Marine Sciences),2002,26 (7):1-4.
    [99]梅明珠,严亚贤,陆承平,等.多重PCR快速鉴定大肠杆菌0157[J].中国人兽共患病学报,2007,23(4):351-354.
    [100]PANICKER G, BEJ A K. Real time PCR detection of Vibrio vulnificus in oysters: comparison of oligonucleotide primers and probes targeting vvhA[J]. Applied Environmental Microbiology,2005,71(10):5702-5709.
    [101]岳朝宽.核酸探针技术[J].中学生物学,2006,22(6):7-8.
    [102]胡瑞.四种病原菌的xMAP液态芯片多重快速检测技术的研究[D].西北农林科技大学,2008:20-21.
    [103]王文华,申科敏,陈晨.海鱼弧菌鉴别显色培养基的研制[J].食品科技,2010,(11):298-304.
    [104]申科敏,赵广英.辛辛那提弧菌选择性鉴别培养基的研制[J].微生物学通报,2010,(11):1634-1641.
    [105]卢勉飞,蔡芷荷,吴清平,等.一种副溶血性弧菌显色培养基的应用[J].微生物学通报,2010,37(5):701-707.
    [106]SU Y C, DUAN J Y, WU W H. Selectivity and specificity of a chromogenic medium for detecting Vibrio parahaemolyticus[J]. Journal of food protection, 2005,68(7):1454-1456.
    [107]CLSI document M100-S19:Clinical and Laboratory Standards Institure. Performace Standards for Antimicrobial Susceptibility Testing; Nineteenth Informational Supplement[J].2009.
    [108]戴自英.临床抗菌药物学[M].北京:人民卫生出版社,1985:6-23.
    [109]赵广英,申科敏,励建荣.副溶血性弧菌增菌培养基及培养条件的的改进[J].水产科学,2010,29(03):137-141.
    [110]赵广英,申科敏,励建荣.水产品中多种致病性弧菌的分离鉴定[J].食品科技,2009,34:279-282.
    [111]李志明.食品卫生微生物学检验学[M].北京:化学工业出版社,2008:103.
    [112]马骢,韩善桥,郝秀红,等.东南沿海海域细菌谱及其优势菌伤口感染能力的研究[J].第二军医大学学报,2005,26(12):1365-1367.
    [113]马骢,郝秀红,付凯飞,等.海洋中分离的河流弧菌致病能力的研究[J].中华医院感染学杂志,2009,19(07):734-737.

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