辽宁树莓有害生物鉴定及防治基础研究
详细信息    本馆镜像全文|  推荐本文 |  |   获取CNKI官网全文
摘要
树莓(Rubus idaeus L.)为蔷薇科(Rosaceae)悬钩子属(Rubus L.)植物,是一种生态、经济效益都较高的灌木小浆果果树。近几年随着辽宁地区树莓生产面积的扩大,树莓在生产过程中遭受到多种有害生物的危害,有些有害生物对树莓造成了严重的经济损失。国内对树莓的研究偏重于栽培与管理、贮藏与加工等方面,而对树莓有害生物报道则相对较少,对于树莓生产过程中的有害生物防治缺乏科学依据。为此,本文对辽宁省树莓有害生物进行了系统普查,对有害生物种类进行了系统鉴定和发生规律调查,并对树莓炭疽病进行了较为深入的研究。结果如下:
     1调查发现,辽宁省树莓目前共有7种侵染性病害,即树莓灰霉病、树莓灰斑病、树莓炭疽病、树莓斑枯病、树莓根癌病、树莓锈病、树莓苗期立枯病;黏菌病害1种,树莓黏菌病;5种树莓生理性病害,树莓冻害、树莓梢枯病、树莓日灼果病、树莓苗期日灼病、树莓裂果病。
     2.通过对辽宁树莓侵染性病害的病原进行鉴定,共鉴定出6种真菌,即:灰葡萄孢(Botrytis cinerea Pers.)、蔷薇色尾孢霉(Cercospora rosicola Pass.)、胶孢炭疽菌(Colletotrichum gloeosporioides)、壳针孢属真菌一种(Septoria sp.)、少隔多胞锈菌(Phragmidium pauciloculare)、茄丝核菌(Rhizoctonia solani);1种细菌,即:根癌土壤杆菌(Agrobacterium tumefaciens)。黏菌1种,即白煤绒菌(Fuligo septica)。
     3.通过调查在辽宁省发现了28种树莓害虫,其中主要包括鳞翅目11种、鞘翅目6种、半翅目昆虫5种、其他3种。分别是:中华弧丽金龟(Popillia quadriguttat)a、白星花金龟(Potosia brevitarsis)、美国白蛾(Hyphantria cunea)、双斑长跗萤叶甲(Monolepta hieroglyphica)、苹果全爪螨(Panonychus ulmi)、玉米紫野螟(Ostrinia zealis varialis)、蓟马(Thripidae)、双衲夜蛾(Dinumma deponens)、红棕灰夜蛾(Polia illoba)、墨绿彩丽金龟(Mimela splendens)、桃红颈天牛(Aromia bungii)、透翅疏广蜡蝉(Euricanid clara Kato)、黄褐天幕毛虫(Malacosoma Neustria testacea Motschulsky)、木撩尺蛾(Culcula panterinaria)、折带黄毒蛾(Euproctis flaua)、灰斑台毒蛾(Teia ericae)、黄刺蛾(Cnidocampa flavescens)、中国绿刺蛾(Parasa sinica)、扁刺蛾(Thosea sinensis)、短额负蝗(Atractomorpha sinensis)、绿螽斯(Holochlora nawae)、斑须蝽(Dolycoris baccanum)、横纹莱蝽(Eurydema gebleri)、黄伊缘蝽(Aeschyntelus chinesis)、茶翅蝽(Halyomorpha halys)、东方原缘蝽(Coreus marginatus orientalis)、等节臀萤叶甲(Agelastica coerulea)、大青叶蝉(Tettigoniella viridis)。
     4.两年来多次从辽宁省沈阳、丹东等地区采集树莓炭疽病标本,经常规组织分离法和水琼脂法对病原菌进行分离、纯化,得到病菌的纯培养,并进行致病性测定。确定树莓炭疽病是由胶孢炭疽菌Colletotrichum gloeosporioides引起的。
     5.本文对树莓炭疽病病原胶孢炭疽菌的生物学特性进行了较为系统的研究。树莓炭疽病病原菌落生长最适温度是25℃;pH值为6时菌落生长速度最快;光照对菌落生长速度有一定的影响,但是其差异程度达不到显著水平;在供试的各种C、N源培养基上菌落生长速度有较大的差异,甘露醇是其最适宜的C源,酵母膏是其最适宜的N源;在供试的6种培养基上PDA其最适宜的培养基;菌丝的致死温度是48℃。树莓炭疽病病原产孢的最适条件为20~25℃,pH6-8,最有利于产生孢子的C源是甘露醇和果糖;最有利于产生孢子的N源是蛋白胨;产生孢子最多的培养基是PDA、树莓叶片、苹果块和玉米粉。树莓炭疽病病原孢子的初始萌芽时期在2h左右,在5h左右萌发率可以达到50%,在10h可以达到90%以上。树莓炭疽病病原萌发温度范围较宽,在5℃-40℃条件下均可萌发,30℃时其孢子萌发率最高,可以达到92%,25℃-35℃之间孢子萌发率均在80%以上;其萌发的最适pH5~9;在供试的各种营养物质中,最适宜孢子萌发的是葡萄糖和蔗糖;分生孢子的致死温度是54℃。
     6.初步采用几种常用的化学药剂对树莓炭疽病病菌进行室内药剂筛选。发现两种杀菌剂对树莓炭疽病病原的菌落生长和孢子萌发抑制作用均较好,他们是施保功和嗯酮·氟硅唑;厚铎、多抗霉素和扑海因对树莓炭疽病病原菌落生长抑制效率在75%-96%,效果也比较好,可以考虑和其他病害综合防治时使用。
     7.根据两年多来调查研究的结果,结合部分种植户的防治经验,制定了辽宁树莓有害生物综合防治历。
Raspberry (Rubus idaeus L.) for the rose family (Rosaceae) Rubus (Rubus L.) plants, shrubs, small berries are fruit trees. Both ecological and economic benefits are higher than other species. Recent years in Liaoning region, with the expansion of production area of raspberry, raspberrys in the production area suffer a variety of diseases or insert pests. Some of the raspberry pests caused serious economic losses. Domestic research on raspberry emphasis on cultivation,management,storage and processing aspects, while there is only a few report on the raspberry pests, For the raspberry production process there are a lack of scientific basis for pest control. To this end,the author in 2008-2009 years in Liaoning Province were systematically investigation raspberry pest, identified and occurrence investigations on pest have been done, and raspberry anthracnose was more in-depth study. The results are as follows:
     1.Through surveys found 7 raspberry infectious diseases in the Liaoning Province,there are:raspberry gray mold, raspberry gray spot, raspberry anthracnose, raspberry spot blotch, raspberry root knot, raspberry rust, raspberry seedling blight;slime molds namely:raspberry slime molds; 5 raspberry physiological diseases, namely:raspberry frozen injury,raspberry treetop blight, raspberry fruit sun scald, raspberry Seeding sun scald, raspberry fruit split.
     2. Infectious diseases pathogen identified on Liaoning raspberry was identified six kinds of fungi were identified, namely:Botrytis cinerea, Cercospora.rosicola,Colletotrichum gloeosporioides,Septoria sp.,Phragmidium paucilocular, Rhizoctonia solani; one kind of bacteria, namely:Agrobacterium tumefaciens.1 species of slime molds, Fuligo septica,
     3.Through the investigation found 28 species of raspberry pests in Liaoning Province, which include 11 species of Lepidoptera,6 species of Coleoptera,5 species of Hemiptera,3 species of others.There are:Popillia quadriguttata, Potosia brevitarsis, Hyphantria cunea, Monolepta hieroglyphica, Panonychus ulmi, Ostrinia zealis varialis, Thripidae, Dinumma deponens, Polia illoba, Mimela splendens, Aromia bungii, Euricanid clara Kato, Malacosoma Neustria testacea, Culcula panterinaria, Euproctis flaua, Teia ericae, Cnidocampa flavescens, Parasa sinica, Thosea sinensis, Atractomorpha sinensis, Holochlora nawae, Dolycoris baccanum, Eurydema gebleri, Aeschyntelus chinesis, Halyomorpha halys, Coreus marginatus orientalis, Agelastica coerulea, Tettigoniella viridis.
     4. According to the results of the investigation more than two years, combined experience of some growers in the prevention, draughted the Liaoning raspberry IPM calendar.
     5. The samples which are collected from planting area of raspberry in Shenyang,Dandong of Liaoning province from 2008 to 2009, and pathogenicity of fungal isolates obtaind from the samples was tested by verifiable standard means of the Koch' Postulation and the pathogen was indentified.Colletotrichum gloeospori-oides is the caused of raspberry anthracnose, and ITS sequence analysis test to prove this.
     6. In this study the biological characteristics of raspberry anthracnose pathogen be elaborates:
     Colletotrichum gloeosporioides optimal growth temperature is 25℃; when pH value is 6, it have the fastest growth of colonies; light on the colony growth rate has some impact, but it did not show significant differences in the degree level; in all tested species of C, N source medium and colony growth rate are quite different, mannitol is the most appropriate C source, yeast extract is the most suitable N source; in the tested six kinds of medium the most suitable for PDA medium; mycelium lethal temperature is 48℃.
     Colletotrichum gloeosporioides spore of the optimal conditions for 20~25℃, pH6~8, the best interests of C source produce spores mannitol and fructose; most favorable to spore N source is peptone; produce the most cultured spores base is a PDA, raspberry leaf, apple pieces and corn flour.
     Colletotrichum gloeosporioides spores in the initial germination period of 2h, at about 5h germination rate can reach about 50%,90% can be achieved in more than 10h.
     Colletotrichum gloeosporioides germinati on wide temperature range, in 5℃-40℃could germinate. under the conditions of 30℃when the spore germination rate can reach 92%,25℃-35℃the spore germination rate can reach 80% or more; their optimum germination pH5~9; in the tested range of nutrients, the most suitable for germination is the glucose and sucrose; conidia lethal temperature is 54℃.
     7. Study on primary management of raspberry anthracnose. Found that the two fungicides on the colony of raspberry anthracnose pathogen growth and spore germination inhibition were good, there are Sporgon and famoxadone-flusilazole. To ues difenoconazole, polyoxin,iprodione have a inhibition efficiency to raspberry anthracnose pathogen growth of 75%-96%, those three fungicides can be consider and use the integrated control of other diseases.
引文
1.岑贞陆等.2002.大青枣炭疽病的病原鉴定及其生物学特性研究[J]——中国农业科学通报,18(3):48-50
    2.戴芳澜.1979.中国真菌总汇[M]——北京:科学出版社.
    3.邓叔群.1963.中国的真菌[M].——北京:科学出版社.
    4.冯淑芬等.1990.笔花豆炭疽病的发生及流行因素调查研究[J]——中国草地,,(1):49~51.
    5.冯淑芬等.1990.笔花豆炭疽病的病原菌鉴定及流行规律研究[J]——中国草地,,(2):27~33.
    6.冯淑芬等.1990.笔花豆炭疽病化学防治试验总结[J]——热带作物研究,(4):43~49.
    7.冯淑芬等.1994.笔花豆炭疽病大田防治试验研究[J]——热带作物学报,15(2):103~108.
    8.冯淑芬等.1994.笔花豆炭疽病生物学特性和流行条件研究[J]——热带作物学报,15(1):90~93.
    9.何振昌,张治良等.1997.中国北方农业害虫原色图鉴[M]——沈阳:辽宁科学技术出版社.
    10.阚琳娜等.2007.黄瓜褐斑病防治药剂的活体筛选[J]——中国蔬菜,(4):22-24.
    11.雷百战,李国英.2003.新疆葡萄炭疽病病原的鉴定及其生物学特性的研究[J]——石河子大学学报,22(4):298-300.
    12.李春奇,叶永忠,王志强等.1995.河南野生悬钩子属植物资源[J]——果树科学,12(4):258-261.
    13.李洪连等.1993.黄瓜对炭疽病诱导抗性的初步研究Ⅱ[J]——植物病理学报,23(4):327-332.
    14.李健强.1996.玫瑰根癌病的初步研究[J]——中国农业大学学报,(1):28.
    15.林盛华,张冰冰.1994.中国树莓属8个种染色体数目与核型[J]——园艺学报,21(4):313-319.
    16.刘爱媛.2003.荔枝炭疽病菌生物学特性的研究[J]——植物病理学报,(4):313-316.
    17.刘孟军.1998.中国野生果树[M]——北京:中国农业出版社,227-231.
    18.刘晓云等.1995.植物炭疽菌研究文献综述[J]——西北林学院学报,10(4):105~111.
    19.孙作凤等.1993.值得开发利用的野生植物——悬钩子[J].——中国林副,27(4):47.
    20.王国平,窦连登.2007.果树病虫害诊断与防治原色图谱[M]——北京:金盾出版社.
    21.王洪波等.2004.山药炭疽病研究:Ⅱ病原菌的生物学特性[J]——西南农业大学学报:自然版,26(3):352-355.
    22.王慧敏.1995.抗根癌菌剂防治核果类根癌病[J]——北京农业大学学报,17:9194.
    23.魏景超.1979.真菌鉴定手册[M]——上海:上海科学技术出版社.
    24.许远等.2000.黄瓜褐斑病的药剂防治研究[J]——辽宁农业科学,(6):47-48.
    25.杨秀梅等.2005.昆明地区发现月季根癌病[J——植物保护,31(2):40.
    26.张超冲等.1998.柱花草炭疽病的鉴定及生物学特性研究[J]——广西农业大学学报,17(1):87~91.
    27.张璐萍等.2005月季根癌病及其防治措施[J]——云南农业科技,(3):35.
    28.张治良,赵颖等.2009.沈阳昆虫原色图鉴[M]——沈阳:辽宁民族出版社.
    29. Smrcka L.Arabis mosaic virus and tomato black ring virus in spontaneously infected plants of raspberry (Rubus idaeus)[J].Ochrana-Rostlin UVTIZ.1990.26:263-269.
    30. Arsenijevic M.Characteristics of the Phomopsis s:strains isolated from raspberry canes dieseased.
    31. Arsenijevic M.Karakteristike sojeva Phomopsis s:izolovanih iz izdanaka obolele maline[J]. Acta agriculturae Slovenica.2005.85(1):107-115.
    32. Baillod M.; Antonin Ph.; Mittaz Ch.; Terrettaz R. Biological control of the yellow spider mite Tetranychus urticae Koch in raspberry culture Revue suisse de viticulture, arboriculture[J], horticulture(Switzerland).1996.28(2):153-155.
    33. Barritt B.H., Torre L.C.Red raspberry breeding in Washington with emphasis on fruit rot resistance.
    34. Baumgartner, K. and D.M. Rizzo.2001. Distribution of Armillaria species in California[J]. Mycologia 93:821-830.
    35. Biology of the raspberry fungus Sphaerotheca humuli Burr and the behaviour of the main varieties to its attack under Pitesti Maracineni conditions[J].1987. v.12:315-320
    36. Borecka H.; Kleparski J.; Millikan D.F. The effect of pruning on the mortality and productivity of red raspberry plants infected with Botryti cinerea, cane blight and Didymella[J].HortScience.1975. v. 10(4):403
    37. Bristow, P.R.1994. Phytophthora root rots of strawberry and red raspberry in the Northwest:now and in the future[J].Proceedings of the Oregon Horticulture Society 85:117-121.
    38. Cimanowski J.;Dadej Effectiveness of new fungicides in control of raspberry diseases[M].J.Prace Instytutu Sadownictwa Kwiaciarstwa Ser. A (Poland).(1990). v.29:135-138. Printed 1991.
    39. Compendium of Raspberry and Blackberry Diseases and Insects.1991.St. Paul, MN:APS Press.
    40. Daubeny H.A., Pepin H.S.Assessment of some red raspberry cultivars and selections as parents for resistance to spur blight[J].HortScience (USA). (Aug 1975). v.10(4):404-405.
    41.DaubenyH.A.;PepinH.S. Susceptibility variations to spur blight (Didymella applanata) among red raspberry cultivars and selections[J]. Plant Disease.1974. v.58(11):1024-1027.
    42. Daubeny, H.A.Pepin, H.S. b Variations in susceptibility to fruit rot among red raspberry cultivars[J].Plant disease reporter 1969,53 (12).:975-977.
    43.Deyoung R.; Hall J.; Vrain T.; Freyman S.Cover crops resistant to root-lesion nematodes in raspberry[J]. HortScience a publication of the American Society for Horticultural Science (USA). (Dec 1996). v.31(7):1195-1198.
    44. Dodge, B.O.1924. Uninucleated aecidiospores in Caeoma nitens, and associated phenomena. Journal of Agricultural Research[J].10:1045-1057.
    45. Dominguez E Jose E. Transmission of raspberry bushy dwarf virus (RBDV) in raspberry (Rubus idaeus L.) by propagation of etiolated shoots. Hepp G Ruperto; Agro Ciencia (Chile). (Oct-Dic 1997). v.13(3):287-288
    46. Ellis, M.A., Madden, L. V., Wright, S. R., Madden, L. V., and Wilson, L. L.2008. Efficacy of pre-harvest fungicide applications and cold storage for post-harvest control of botrytis fruit rot (gray mold) on red raspberry. Online. Plant Health Progress doi:10.1094/PHP-2008-1015-01-RS.
    47. Ellis, M.A. Miller, S.A. Using a Phytophthora-specific immunoassay kit to diagnose raspberry phytophthora root rot. [J] HortScience:a publication of the American Society for Horticultural Science. June 1993.28(6):642-644.
    48. Failure of Agrobacterium radiobacter strain K-84 to control crown gall on raspberry. HortScience:a publication of the American Society or Horticultura Science (USA). (Oct 1993). v.28(10):1017-1019.
    49. International Standards for Phytosanitary Measures. Part 1:Import Regulations:Guidelines for Pest Risk Analysis(DraftStandard) [M]. Secretariate of the International Plant ProtectionConvention, Food and Agriculture Organization of the United Nations.Rome, Italy.1996.
    50. Ferber K.P.Einfluss verschiedener Himbeersorten auf Amphorophora idaei und Aphis idaei.Influence of different varieties of raspberry on Amphorophora idaei and Aphis idaei.Mitteilu ngen der Deutschen Gesellschaft fuer Allgemeine and Angewandte Entomologie (Germany, F.R.). (1988). v. 6(4-6):287-295.
    51.Finn C.E., Martin R.R.Distribution of tobacco streak, tomato ringspot, and raspberry bushy dwarf viruses in Rubus ursinus and R. leucodermis collected from the Pacific Northwest.Plant disease (USA). (Jul 1996). v.80(7):769-772.
    52. Fiola J.A.; Swartz H.J.Inheritance of tolerance to Verticillium albo-atrum in raspberry[J]. HortScience-:apublication of the American Society for Horticultural Science (USA). (Sep 1994). v. 29(9):1071-1073.
    53. Gajek D. Species composition of tetranychid mites (Tetranychidae) and predatory mites (Phytoseiidae) occurring on raspberry plantations in Poland. Journal of Plant Protection Research (Poland). (2003). v. 43(4):353-360.
    54. Halgren, A., Tzanetakis, I. E., and Martin, R. R.2007. Identification, characterization, and detection of Black raspberry necrosis virus. Phytopathology 97:44-50.
    55. Hall H.; Thomas W. Resistance to raspberry bud moth (Lepidoptera:Carposinidae) in raspberry cultivars.; Journal of economic entomology (USA). (Feb 1991). v.84(1):247-250.
    56. Hall, G.1989. Peronospora rubi. CMI Descriptions of Pathogenic Fungi and Bacteria, No.976. Surrey, England:Commonwealth Mycological Institute.
    57. Hanni L., Luik A.Fruit damages caused by Byturus tomentosus and Botryotinia fuckeliana depending on different raspberry varieties.
    58. Hoashi-Erhardt, W.K. Moore, P.:Windom, G.E. Bristow, P.R. Field and Greenhouse Response of Red Raspberry Genotypes to Root Rot. [J] HortScience:a publication of the American Society for Horticultural Science.2008 Aug.43(5):1367-1370.
    59. Hood, I.A., D.B. Redfern, and G.A. Kile.1991. Armillaria in Planted Hosts. In:Shaw, C.G. Ⅲ and G.A. Kile, eds. Armillaria Root Disease. Washington, D.C.:United States Department of Agriculture Forest Service Agriculture Handbook No.961. p 122-149.
    60. IPPC. Guidelines on Pest RiskAnalysis, Pest RiskAssessment scheme[J]. Bulletin OEPP/EPPO Bulletin,1997,27:281-305.
    61. Jennings D.L., Carmichael E.Resistance to grey mould (Botrytis cinerea Fr.) in red raspberry fruits.Horticultural-Research(UK). (1975). v.14(2/3):109-115.
    62. Johnson, K.B., T.L. Sawyer, and M.L. Powelson.1994. Frequency of benzimidazole and dicarboximide resistant strains of Botrytis cinerea in western Oregon small fruit and snap bean plantings. Plant Disease 78:572-577.
    63. Justine E.Vanden Heuvel, J.Alan Sullivan, John T.A.Proctor. Cane stabilization improves yield of red raspberry(Rubus idaeusL.)[J].
    64. Kennedy G.G.Evidence for nonpreference and antibiosis in aphid-resistant red raspberry cultivars [Amphorophora agathonica].Schaefers G. A.Environmental Entomology (USA). (Oct 1974). v. 3(5):773-777.
    65. Kepczynska E. Rate of dissipation of procymidone residues in raspberry and strawberry fruits. Fruit-Science-Reports (Poland). (1986). v.13(2):63-69.
    66. Knight V.H.; Barbara D.J. Euphytica (Netherlands). (Dec 1981). v.30(3):803-811.Susceptibility of red raspberry varieties to raspberry bushy dwarf virus and its genetic control.
    67. Kollanyi L.; Bakcsa F. nvestigation on susceptibility of raspberry canes to Botrytis cinerea in some raspberry varieties and hybrids. Kertgazdasag (Hungary). (1987). v.19(1):43-48.
    68. Kozlowska M., Krzywanski Z.Chitinase activity in raspberry canes infected with Didymella applanata (Niessl) Sacc. Journal-of-Phytopathology (Germany, F.R.).(1989). v.125(2):165-170.
    69. Krzywanski Z.; Kozlowska M.Forms of peroxidase in healthy and infected with Didymella applanata red raspberry canes.
    70. Kudell A.R., Buchenauer H.Elimination of raspberry bushy dwarf virus from axillary bud cultures of red raspberry cv.'Lloyd George'by antiviral compounds.Journal of Phytopathology (Germany, F.R.). (1989). v.124(1-4):332-336.
    71. Kudell A.R., Weil B.Studies on host range and symptomatology of raspberry bushy dwarf virusJournal of Phytopathology (Germany, F.R.). (1986). v.115(4):289-293.
    72. Labanowska B.H.; Rechnio H.; Suski Z.W. Fruit-Science-Reports (Poland). (1986). v. 13(2):93-104.
    73. Laundon, G.F. and A.F. Rainbow.1969. Gymnoconia nitens. CMI Descriptions of Pathogenic Fungi and Bacteria, No.201. Surrey, England:Commonwealth Mycological Institute.
    74. Lolas, M.A., K.J. Merrifield, J.K. Pinkerton, and R.E. Ingham.1992. Effect of fenamiphos on population dynamics of Pratylenchus penetrans and Xiphinema americanum in Oregon red raspberry. Journal of Nematology 24:604-605.
    75. Maloney K.E., Wilcox W.F.,Sanford J.C.Raised beds and metalaxyl for controlling phytophthora root rot of raspberry.HortScience publication of the American Society for Horticultural Science (USA). (Nov 1993). v.28(11):1106-1108.
    76. McElroy, F.D.1992. A plant health care program for brambles in the Pacific Northwest. Journal of Nematology 24:457-462.
    77. Munnecke, D.E., M.J.Kolbezen, W.D. Wilbur, and H.D. Ohr.1981.Interactions involved in controlling Armillaria mellea. Plant Disease 65:384-389.
    78. Munro, J.M., A. Dolan, and B.Williamson.1988.Cane spot (Elsinoe veneta) in red raspberry: Infection periods and fungicidal control. Plant Pathology 37:390-396.
    79. Ojiambo, P.S. Scherm, H. Optimum Sample Size for Determining Disease Severity and Defoliation Associated with Septoria Leaf Spot of Blueberry [J] Plant disease:an international journal of applied plant pathology.2006 Sept.90(9):1209-1213.
    80. Pepin H.S.; MacPherson E.A.Some possible factors affecting fruit rot resistance in red raspberry.
    81.Pinkerton, J. N., Kraus, J., Martin, R. R., and Schreiner, R.:2008. Epidemiology of Xiphinema americanum and Tomato ringspot virus on red raspberry, Rubus idaeus. Plant Dis.92:364-371.
    82.Pinkerton, J. N., Kraus, J., Martin, R. R.,and Schreiner, R.:2008. Epidemiology of Xiphinema americanum and Tomato ringspot virus on red raspberry, Rubus idaeus. Plant Dis.92:364-371.
    83. Priesner E., Witzgall P., Voerman S.Field attaction response of raspberry clearwing moths, Pennisetia hylaeiformis Las:(Lepidoptera:Sesiidae), to candidate pheromone chemicals. Zeitschrift-fuer-Angewandte-Entomologie (Germany, F.R.). (1986). v.102(2):195-210.
    84. Punithalingam, E.1980. Leptosphaeria coniothyrium. CMI Descriptions of Pathogenic Fungi and Bacteria, No.663. Surrey, England:Commonwealth Mycological Institute.
    85. Royer, M. H. Integrating Computerized Decisions Aids into the PestRisk Analysis Process [M]. NAPPO Annual Meeting, October1989:16-20.
    86. Seemueller E.; Kartte S.; Erdel M. Penetration of the periderm of red raspberry canes by Leptosphaeria coniothyrium. Journal of Phytopathology (Germany, F.R.).(1988). v.123(4):362-369.
    87. Shanks C.H. Jr.; Moore P.P.Resistance of red raspberry and other Rubus species to two spotted spider mite (Acari:Tetranychidae). Journal of economic entomology (USA). (Jun 1996). v.89(3):771-774.
    88. Stahler M.M., Lawrence F.J., Martin R.R.Incidencvirus absorption onto cell in breeding plots of redraspberry. HortScience:a publication of the American Society for Horticultural Science (USA). (Feb 1995). v.30(1):113-114.
    89. Stammler G., Seemueller E. Specific and sensitive detection of Phytophthora fragariae var. rubi in raspberry roots by PCR amplification. Zeitschrift fuer Pflanzenkrankheiten und Pflanzenschutz (Germany).(1993). v.100(4):394-400.
    90. Sutherst, R WandMaywald GF. A computerised systemformachingclimates in ecology [J]. Agri. Ecosystems and Environ.1985,(13):281-299.
    91.Valois, D. Fayad, K. Barasubiye, T. Garon, M. Dery, C. Brzezinski, R. Beaulieu, C. Glycanolytic actinomycetes antagonistic to Phytophthora fragariae var. rubi, the causal agent of raspberry root rot. [J] Applied and environmental microbiology. May 1996.62(5):1630-1635.
    92. Vaughn, S.F. Spencer, G.F. Shasha, B.S. Volatile compounds from raspberry and strawberry fruit inhibit postharvest decay fungi. [J] Journal of food science. July/Aug 1993.58(4):793-796.
    93. Weller S.A.; Stead D.E.; Mazzucchi U.Crown and cane gall of a blackberry-raspberry hybrid caused by Agrobacterium rhizogenes in Northern Italy
    94. Wilcox, W.F. Identity, virulence, and isolation frequency of seven Phytophthora sp:causing root rot of raspberry in New York. [J] Phytopathology. Jan 1989.79(1):93-101.
    95. Wilcox, W.F., Pritts, M.:and Kelly, M.J.1999. Integrated control of Phytophthora root rot of red raspberry. Plant Disease.83:1149-1154.
    96. Wilde G., Thomas W., Hall H.Plant resistance to twospotted spider mite (Acari:Tetranychidae) in raspberry cultivars.Journal of economic entomology (USA). (Feb 1991). v.84(1):251-255.
    97. Yamamura, K&HKatsumata. Estimation of the probability of insectpest introduction through imported commodities [J]. Res. Popul.Ecol.,1999,41:275-282.

© 2004-2018 中国地质图书馆版权所有 京ICP备05064691号 京公网安备11010802017129号

地址:北京市海淀区学院路29号 邮编:100083

电话:办公室:(+86 10)66554848;文献借阅、咨询服务、科技查新:66554700