几种蛀果害虫性信息素的合成与应用研究
详细信息    本馆镜像全文|  推荐本文 |  |   获取CNKI官网全文
摘要
利用信息素防控害虫是一种理想的害物综合治理措施,这一技术对农业有害生物无公害防治具有重大意义。昆虫信息素成分的鉴定和应用技术研究都离不开立体结构确定的纯化合物,因此改进这类物质的合成工艺,发展高效的合成方法,以获得高纯度的信息素化合物,是昆虫信息素研究领域的重要课题。已知的昆虫性信息素组分中,有75%以上是具有10-18个碳的直链不饱和醇及其衍生物。这类化合物虽然结构简单,但已有的合成方法普遍存在产率低、产物立体异构体难于分离等缺点,严重影响了此类新农药的应用。
     本研究以廉价易得的常见试剂为原料,通过Wittig反应和Coupling反应合成了苹果蠹蛾、大豆食心虫等蛀果害虫性信息素在内的23种性信息素类化合物,其中17种为直链烯醇,6种为直链烯醇乙酸酯。建立了立体选择性合成烯醇类昆虫性信息素化合物的通用方法。以合成化合物为引诱剂,对苹果蠹蛾、大豆食心虫等几种蛀果害虫进行了田间引诱活性测试;在田间试验基础上,探讨了苹果蠹蛾、大豆食心虫性信息素化合物的引诱活性及田间应用技术。并对核桃举肢蛾雌性信息素、小檗绢粉蝶引诱剂进行了初步的研究。主要研究结论摘要如下:
     1.以α,ω-二醇为起始原料,氢溴酸选择性单溴代合成了ω-溴代醇,ω-溴代醇与三苯基膦反应所得的季鏻盐继续与适当的脂肪醛发生Wittig反应,获得了6种直链烯醇,4种烯醇酯,共10种性信息素化合物。其中化合物9-十六碳烯-1-醇、8-十三碳烯-1-醇、6-十三碳烯-1-醇及其酯,和10-十六碳烯-1-醇、8-十二碳烯-1-醇都以Z式为主;而E,E-8,10-十二碳二烯-1-醇及其酯则以E式为主。考察了α,ω-二醇单溴代反应的影响因素,获得的ω-溴代醇产率高于87%,单溴代率达95%以上。考察了碱的种类、用量、中间体反应温度及溶剂等因素对活泼ylide参与的Wittig反应产率和立体化学的影响。总结出了通过活泼ylide中间体获得主产物为Z、E式烯醇的不同实验条件。
     2.将ω-溴代醇羟基用2,3-二氢吡喃保护后与Mg反应制成格氏试剂BrMg(CH2)nOTHP;在CuLi2Cl4催化下,格氏试剂与几种烯醇酯偶联、水解,得到了的E-8-十二碳烯-1-醇、E,E-8,10-十二碳二烯-1-醇、E-10-十二碳烯-1-醇、E,E-10,12-十四碳二烯-1-醇、E-10-十四碳烯-1-醇、E-11-十三碳烯-1-醇、E-12-十六碳烯-1-醇、E,E-12,14-十六碳二烯-1-醇等8种立体结构确定的烯醇和一种烯醇酯,立体异构体含量高于95%,反应总收率可达50%以上。对上述条件下不反应的Z-3-己烯-1-醇乙酸酯,通过加入N-甲基吡咯烷酮顺利实现偶联,获得Z-9-十二碳烯-1-醇、Z-11-十四碳烯-1-醇、Z-12-十五碳烯-1-醇、Z-13-十六碳烯-1-醇等4种Z-式烯醇。
     3.在田间测试了E-10-十二碳烯-1-醇乙酸酯、E,E-8,10-十二碳二烯-1-醇乙酸酯、E-8-十二碳烯-1-醇乙酸酯、E,E-8,10-十二碳二烯-1-醇、E-10-十二碳烯-1-醇、E-8-十二碳烯-1-醇、Z-9-十二碳烯-1-醇等7种候选化合物对大豆食心虫的引诱活性。结果表明,E-10-十二碳烯-1-醇乙酸酯具有明显的引诱活性。当用E-10-十二碳烯-1-醇乙酸酯剂量为0.1mg/诱芯时田间引诱活性较好。
     4.通过田间试验测试了E,E-8,10-十二碳二烯-1-醇对苹果蠹蛾的引诱活性,探索了不同剂量、不同诱捕器悬挂高度对诱捕效果的影响。结果表明在0.25-2.00mg/诱芯的剂量范围内,以0.75mg/诱芯对苹果蠹蛾雄蛾的引诱活性最佳。诱捕器的悬挂高度以设置于树高的4/5处引诱效果最好。
     5.通过对核桃举肢蛾性信息素候选化合物Z-9-十六碳烯-1-醇、Z-9-十六碳烯-1-醇乙酸酯、Z-8-十三碳烯-1-醇、Z-8-十三碳烯-1-醇乙酸酯的活性测试,发现所有供试化合物对核桃举肢蛾雄虫均没有明显的引诱活性。进一步对核桃举肢蛾进行了生物学及性信息素化学研究,研究表明核桃举肢蛾在室内有性兴奋现象但无交配行为。对兴奋期的雌蛾腺体溶剂提取物的GC-MS分析表明,提取物中含有两种可能的性信息素组分,其结构为十六碳烯醇、十六碳烯醇乙酸酯,但双键位置及构型尚未确定。
     6.试验中发现了对小檗绢粉蝶雄蝶具有明显引诱活性的化合物组合。化合物Z-9-十六碳烯-1-醇和Z-8-十三碳烯-1-醇乙酸酯组成的诱芯,对小檗绢粉蝶雄虫具有很强的引诱活性,当二者以7:3的比例混合时引诱效果尤其显著。
     本论文对传统的直链烯醇类昆虫性信息素合成方法进行了探索,总结了Wittig反应条件对产物立体构型的影响;对偶联法合成此类物质进行了方法改进,拓展了此反应的适用范围,使Coupling反应成为普遍适用的合成烯醇类昆虫性信息素的通用方法。为烯醇类昆虫性信息素化合物的实验室合成、小批量生产提供了科学依据;为利用性信息素防治苹果蠹蛾及大豆食心虫奠定了基础;也为核桃举肢蛾雌性信息素、小檗绢粉蝶引诱剂研究提供了科学依据,上述研究结果对于利用昆虫性信息素防治蛀果害虫的产品和技术开发具有一定的理论和应用价值。
The use of sex pheromones to control target pests is an ideal measures to Intergrated Pests Management-IPM, Furthermore, this technology is of great significance for the harmlessly controlling pests. The structural identifications and practical applications of sex pheromones usually require stereoisomeric pure compounds. Therefore, it's very vital to ameliorate the synthetic pathways, develop high efficient synthetic methods to obtain the highly pure organic compounds in pheromone research fields. To date, more than75%Lepidopteran sex pheromones components are composed of C10-C18unsaturated straight-chain fatty alcohols and their derivatives. Although the structures of these compounds are simple, the existing synthetic methods have some drawbacks such as low yields, hard to separate the isomers, which confined the application of this new pesticide.
     In this thesis, cheap and commercially available compounds as starting materials, the pheromones of Leguminivora glycin ivorella M., Laspeyresia pomonella L. and some analogues including17long chain ene alcohols and6linear ene alcohol acetates were synthesized by Wittig reaction or Cross-coupling reaction. And the general stereoselective synthetic methods to this kind of ene alcohols were established.
     The attractive activities of synthetic compounds to Laspeyresia pomonella L, Leguminivora glycinivorella M and other fruit boring pests were tested in the field. On the basis of field trap test, the attractive activities and applied technologies of Leguminivora glycin ivorella M., Laspeyresia pomonella L's sex pheromones were explored too. At the same time, the sex pheromones of Atrijuglans hetaohei Yang and Aporia hippia Bremer's attractants were also be investigated. Following are the main results.
     1. Starting from the cheap commercially available starting materials a, co-diols, using HBr to region-selectively brominated to give co-bromoalkan-1-ol, followed the addition of triphenylphosphine to obtain tetrabutalphosphine salt. After deprotonation, the ylide reacted with appropriate aliphatic aldehyde and produced compounds9-16:OH,10-16:OH,8-13: OH,6-13:OH,8-12:OH with dominantly Z-stereoselectivity and E,E-8,10-12:OH with mainly E-stereoselectivity. In above mentioned synthetic process, the factors were studied in bromination and Wittig reaction, which may be influence the yields, especially applying different types of bases, solvents. The co-bromoalkan-1-ols were prepared via region-selectively brominated a co-diols in89%, and above95%region-selectively. In addition, the factors influencing on the product yield and stereoselectivity were investigated, such as the species and quantities of alkalis, the temperature of intermediates, the solvents and so on. Effect of various reaction conditions on the Wittig reaction of aldehydes with unstabilized phosphine ylide salts to get main Z/E-isomers of products was considered.
     2. ω-Bromoalkan-1-ols were protected by DHP and then reacted with Mg to prepare Grignard reagent BrMg(CH2)nOTHP, continued to Cross coupling reaction with different ene-ol acetates, ultimately afforded compounds E-8-12:OH、E,E-8,10-12:OH、E-10-12: OH、E,E-10,12-14:OH、E-10-14:OH、E-11-13:OH、E-12-16:OH、E,E-12,14-16: OH with95%E conformation in above50%overall yield. Especially for Z-9-12:OH、 Z-11-14:OH、Z-12-15:OH、Z-13-16:OH, the solvent was changed to NMP to give the target molecules with Z isomer.
     3. The attractive activities of seven candidates of E-10-12:Ac, E, E-8,10-12:Ac, E-8-12:Ac, E,E-8,10-12:OH, E-10-12:OH, E-8-12:OH, Z-9-12:OH to Leguminivora glycinivorella M were performed through field trap test. The result showed that E-10-12:Ac has the greatest attraction to Leguminivora glycinivorella M, and the most effective dosage should be less than0.1mg/trap.
     4. The attractive activity of E,E-8,10-12:OH to Laspeyresia pomonella L, was tested in the field. Trapping efficiency with different dose of sex pheromone and different hanging height of traps were discussed. The result showed that0.75mg/trap has the greatest attraction to Laspeyresia pomonella L within the range of0.25-2.00mg/trap and the most suitable hanging height of traps was on the4/5part of orchard.
     5. Candidate compounds were synthesized as Atrijuglans hetaohei Yang's sex pheromone components, such as Z-8-13:Ac, Z-9-16:OH, through Wittig reaction. To our surprise, all synthetic compounds didn't show attractive activities at all. Through biological and chemical indoor experiments, the result showed that the Atrijuglans hetaohei Yang has sexual excitement but without mating. After analysis of the sexual glands of Atrijuglans hetaohei Yang by GC-MS, it contained C16ene-ol、C16ene-ol acetate, but the position of double bond and its geometry couldn't be confirmed.
     6. When the lure of Z-9-16:OH and Z-8-13:Ac to Atrijuglans hetaohei Yang were performed in the field, pleasingly, the lure showed attractive activities to the male Aporia hippia Bremer. Further testing showed that the attractive activity is strongest when the ratio of Z-9-16:OH and Z-8-13:OAc is7:3. This is the first report of the attractant about Aporia hippia Bremer.
     In conclusion, we present a general synthetic procedure to prepare the linear ene-ol sex pheromones in high yield and high stereoselectivity. Furthermore, the ideal attractants against Laspeyresia pomonella L and Leguminivora glycinivorella M. as well as the attractive technology in the field were provided. Last but not least, we preliminary researched the sex pheromones for Atrijuglans hetaohei Yang and the attractant of Aporia hippia Bxemer. It is the first time to carry out the attractant of Aporia hippia Bremer. These results are meaningful to controlling pests of crops and the development of agriculture.
引文
蔡双虎,程立生.2002.昆虫性信息素研究进展.[J].华南热带农业大学学报,8(1):47~53
    陈海滨,杜永均.2010.亚洲玉米螟性信息素的简易合成法.[J]农药学学报,12(1):90~92
    陈宏,林伟,薛光华,王益愚,张宝锋,鄢建,韩昌春.1995.苹果蠹蛾性信息素及其应用.[J].植物检疫,9(1):15~16
    陈万义.1996.新农药研究与开发[M].北京:化学工业出版社:3~5
    丁德诚,唐贤汉,杜家纬.1988.松突圆蚧交配行为的研究.[J].昆虫学研究集刊,8:88
    董改娟,王浩杰,董双林,邓顺.2008.夜蛾科昆虫性信息素组分的结构及分布特点.[J].林业科学研究,21(3):424~428
    杜家纬.1988.昆虫信息素及其应用[M].北京:中国林业出版社:3~8.
    杜峻岭,赵晓丽.1991.大豆食心虫性诱剂应用初报.[J].植物保护,06:15~16
    范晓军,李瑜,李瑶,李兰松,张朝峰.2010.昆虫性信息素研究进展.[J].安徽农业科学,38(9):4636~38
    韩桂彪,马瑞燕,杜家纬,胡萃,李连昌.1999.枣镰翅小卷蛾性信息素通讯系统.[J].昆虫学报,42(1):25~30
    郝兴宇.2005.核桃举肢蛾性信息素研究.[硕士学位论文].山西太谷:山西农业大学
    胡文利.2007.印度谷螟性信息素多元组份的研究.[硕士学位论文]上海:中国科学院研究生院(上海生
    命科学研究院)
    华湘翰,孔繁蕾.1988.昆虫信息素结构鉴定方法进展.[J].化学通报,51(5):1~6
    黄昌本,吴松筠,符文俊.2000.棉褐带卷叶蛾安徽种群不同日龄雌蛾性信息素的个体变异.[J].华东昆虫学报,9(1):29~32
    黄勇平,周志华,唐大勇,王淑芬,杜家纬.1995.棉铃虫雄性信息素的研究.[J].湖南农业大学学报:自然科
    学版,21(05):458~63
    焦晓国,宣维健,盛承发.2006.水稻二化螟的交配行为.[J].生态学报,26(04):1110~15
    孔祥波.2001.气相色谱与触角电位检测器联用技术及其应用.[J].昆虫知识,38(4):304~309.
    李冬梅,任自立.1993.亚洲玉米螟性信息素产生和释放的时辰节律研究.[J].山西农业大学学报(自然
    科学版),13(4):315~317
    李西安,王启标,何美玉,袁谷.2002.高立体选择性合成及鉴定(9E,11E)-十四碳二烯-1-乙酸酯(淡褐
    苹果蛾性信息素).[J].化学通报,65(3):179~181
    李新岗,杨立军,刘拉平,刘惠霞.2009.松果梢斑螟成虫的寄主选择.[J].林业科学,45(2):75~81
    林国强.1979.昆虫性信息素的合成.[J].化学通报,42(02):10~19
    刘复初,李雁武,林军,朱洪友,李全,宗乾收.2003.梨小食心虫性信息素的新法合成.[J].高等学校化学
    学报,24(6):1040~1042
    刘孟英.1984.昆虫化学通讯与信息素.[J].昆虫激素,(1):61~80
    刘雨芳.1996.昆虫性信息素及其对昆虫生殖行为的调节.[J].中山大学研究生学刊自然科学版(17):72~7
    刘云国.2001.光因子对棉铃虫(Helicoverpaarmigera)雌蛾性信息素产生及其求偶行为的影响.[J].生态学报,21(1):112~116.
    鲁玉杰.2002.温度和光周期对棉铃虫雌性信息素成分的含量与比例的影响[J].生态学报,22(4):566~570.
    陆鹏飞,乔海莉,王小平,周兴苗,汪细桥,雷朝亮.2007.豆野螟成虫行为学特征及性信息素产生与释放节律.[J].昆虫学报,50(4):335~342
    吕俐宾,腾有为,祝黔江.2000.茶长卷叶蛾性信息素的合成.[J].山地农业生物学报19(1):46~49
    孟宪左.1997.昆虫信息素的应用.[J].生物学通报,32(3):46~472011年昆虫信息素及诱捕器产品目录http://www.bio-lure.com/Upfiles/product/100000.doc北京中捷四方生物科技有限公司
    邵颖,鲁玉杰.2005.嗜虫书虱雌虫性信息素的确定和主要成分的鉴定.[J].河南工业大学学报(自然科学版),26(05):40~44
    沈幼莲,高扬,杜永均.2009.植物气味化合物与斜纹夜蛾性信息素的协同作用.[J].昆虫学报,52(12):1290~1297
    宋春满,李天飞.2001.烟夜蛾性信息素的研究利用进展.[J].西南农业大学学报,23(2)153~155
    孙志农,王术文,付晓云.2010.大豆食心虫的发生与防治.[J].吉林农业,(10):71
    陶云海,程伟贤,黄相中,张玉顺,古昆.2005.松毛虫性信息素前体(4Z,6E)-十一碳二烯醛的合成.[J].有机化学,25(5):82~84
    唐大武,孙汉洲,赵芳.2001.金钱松小卷蛾性信息素的合成及诱芯的制备[J].中南林学院学报,,21(2):34~36.
    万先萌,刘伟,魏洪义,田生荣,姚振威.2010.蛾类昆虫的生殖行为.[J].江西植保23(1):3~7
    汪新文,刘孟英.1997.粘虫雌蛾求偶周期和性信息素含量变化规律.[J].昆虫学报,40(04):428~31
    王炳华.1980.苹果蠹蛾性诱剂使用方法及和效果.[J].新疆农业科技,2(6):118~121.
    王翠英,刘建,宋凤瑞,辛保民,郭守桂,周正平,徐建伟,王泽华.1992.大豆食心虫性信息素的化学结构触
    角电位及田间诱蛾效果.[J].植物保护学报,19(04):331~335
    王克勤,李新民,刘春来,刘兴龙,王爽,孙毅民,王春.2009.利用昆虫性诱剂防治大豆食心虫.[J].中国农学通报25(15):190~193
    王占娣,葛长荣,徐志强,张钟宁,方宇凌,肖春.2009.酪蝇蛹对其成虫的引诱效果.[J].生态学报,29(11):6281~6284
    王亚璐,张涛,宋卫,周一万,冯俊涛,张兴.2007.梨小食心虫性信息素的合成.[J].农药学学报,9(2):178~180
    王子坤,田伟生,潘鑫复.2007.一个简捷、高效合成松叶蜂性信息素的方法.[J].有机化学,27(7):866~-869
    吴文君.2006.从天然产物到新农药的创制——原理方法.北京:化学工业出版社.向玉勇.2007.小地老虎性信息素的提取、鉴定及相关生物学研究[博士学位论文],贵州贵阳:贵州大学
    徐建伟,钱玉民.1991.大豆食心虫性诱剂触角电位筛选及田间诱蛾试验初报.[J].化学生态物质,(2):102~104
    徐章煌.1988.昆虫性信息素的结构和性能的关系.[J].湖北大学学报,10(4):1~5薛光华,严钧.王文广,张伟,范伟功.1995.性信息素监测和防治苹果蠹蛾的应用技术研究.[J].植物检疫,9(4):198~203.
    阎云花,崔君荣,伍德明,王瑞,李青森,郭贵明,赵律纪.1994.核桃举肢蛾的性信息素.[J].动物学集刊11(5):27~32
    杨美红,张金桐,刘金龙,荆小院,骆有庆,宗世祥,曹川健,李月华.2010.榆木蠹蛾生殖行为及性信息素产生与释放节律.[J].昆虫学报,53(11):1273~1280
    尤民生,刘雨芳,侯有明.2004.农田生物多样性与害虫综合治理.[J].生态学报,24(01):117~122
    翟小伟.2009.苹果蠹蛾发生规律和化学生态调控技术.[硕士学位论文].山东泰安:山东农业大学
    张恒民,桑茂德,尹长山.1998.苹果蠹蛾的发生与防治.[J].新疆农垦科技,(3):9~11张力,陈元光,戴小杰.1990.昆虫性信息素释放率的测定方法.[J].应用昆虫学报,27(3):169~171
    张涛.2005.苹果蠹蛾信息素的合成与应用研究.[硕士学位论文].陕西杨陵:西北农林科技大学张涛,蔡崇林,冯俊涛,张兴.2011.苹果蠹蛾性信息素的合成及活性测试.[J].农药,50(08):561~563
    张同心,崔为正,孙绪艮.2005.松阿扁叶蜂对不同树种挥发物的触角电位反应.[J].昆虫学报,48(4):514~517.
    张占辉,刘庆彬.2006.分子碘催化的有机化学反应.[J].化学进展.18(23):270~280.
    张钟宪,周荫庄,牛焕双,丁辰元.2004.昆虫信息素-令人关注的新型农药.[C].第三次绿色化学化工学术
    会暨第六次色谱学术会论文集.海南:中国化工学会出版:36~38.
    赵博光.1990.昆虫的表皮腺体.[J].昆虫知识,27(3):166~168
    赵博光.1981.大袋蛾(ClaniavariegataSnell)雌虫性信息素的分泌腺体和释放机制的研究—Ⅰ.大袋蛾
    性信息素释放部位.[J].南京林业大学学报(自然科学版),(04):137~40
    朱卫华,刘万军,张金桐.2007.昆虫性信息素的研究进展.[J].山西林业科技,(2):24~7
    AngeliG,AnforaG,BaldessariM,etal.2007.MatingdisruptionofcodlingmothCydiapomonellawithhighdensitiesofEcodiansexpheromonedispensers.[J].Journalofappliedentomology.131(5):311-318.
    AnderssonJ,Borg-KarlsonAK,VongvanichN,etal.2007.Malesexpheromonereleaseandfemalematechoiceinabutterfly.[J].JournalofExperimentalBiology.210(6):964~970.
    ArnH,StadlerE,RauscherS.1975.Theelectro-antenno-graphicdetector.Aselectiveandsensitivetoolinthegaschromatographicanalysisofinsectpheromones.ZeitschriftfürNaturforschungA,30:722~725.
    ArnH,TóthM,PriesnerE.2000.ListofsexpheromonesofLepidopteraandrelatedattractants.Onlineversionhttp://www.pherolist.slu.se/.
    BaileyJB,McDoughLM,HoffmannMP.1986.Westernavocadoleafroller,Amorbiacuneana(Walsingham)(Lepidoptera:Tortricidae):Discoveryofpopulationsutilizingdifferentratiosofsexpheromonecomponents.J.Chem.Ecol,12:1239~1245
    BerozaM,BierlBA,MoffittHR.1974.Sexpheromones:(E,E)8,10-dodecadien-1-olinthecodlingmoth.Science,183:89~90
    BjostadLB,WolfWA,RoelofsWL.1987.Biologyandultrastructureofsexpheromone-producingglands,New-York.PheromoneBiochemistry.Acad.Press:77~120
    BierlBA,BerozaM,CollierCW.1970.Potentsexattractantofthegypsymoth:itsisolation,identifica-tion,andsynthesis.Science,170:87~9
    BruceTJ,MartinJL,SmartLE,etal.2011,Developmentofsemiochemicalattractantsformonitoringbeanseedbeetle,Bruchusrufimanus[J].PestManagementScience.67(10):1303~1308.
    BuserHR,AmH,GuerinP,RauscherS.1983.Determinationofdoublebondpositioninmono-unsaturatedacetatesbymassspectrometryofdimthyldisulfideadducts.AnalChem,55(6):818~822
    ButenandtA,BeckmannR,StammD,HeckerE.1959.berdensexuallockstoffdesscidenspinnersBombyxmori.Reindarstellungundconstitution.ZeitschriftfürNaturforschungSectionB-AJournalof Chemical'Science,14b:283-284
    Camps F, Casamor J M, Coll J, Guerrero A, Riba M.1983. Preparation of co-Bromoalkan-1-ols from a, ω-alkanediols from the continuous extraction method. Organic preparations; and procedures,15:63-67
    Carlson D A, Roan C S, Yost R A, Hector J.1989. Dimethyl disulfide derivatives of long chain alkenes, alkadienes, and alkatrienes for gas chromatography/mass spectrometry Anal, Chem,61:1564-1571
    Collins C W, Potts S F.1932. Attractants for the flying gypsy moths as an aid in locating new infestations [R].USDA Tech Bull.336.
    Cone W W, McDonough L M, Maitlen, J C.1971. Pheromone studies of the two-spotted spider mite. Ⅰ. Evidence of a sex pheromone. J. Econ. Entomol.63:355
    David M S, Andrew R G Tracy J, David R H.2006. Examination of sex attractants for monitoring weed biologicalcontrolagentsin Hawaii. Biocontrol Science and Technology.16(9):919-927
    Descoins C, Henrick, C A.1972.Stereoselective Synthesis of a Sex Attractant of the Codling moth. Tetrahedron Letters,13(30):2999-3002
    DONG S L, DU J W.2008. Diel rhythms of calling behavior and sex pheromone production of beet army worm, Spodoptera exigua (Lepidoptera:Noctuidae) Entomologia sinica,8(1):89-96
    Eiko Kan and Toshitaka Hidaka. Role of male scent in the mating behavior of Pieris melete Menetries (Lepidoptera:Pieridae). Journal of Ethology,1997,15(2):87-93,
    El-Sayed A M.2009.The Pherobase Database of Insect Pheromones and Semiochemicals.
    Fernando P. Carvalho.2006. Agriculture, pesticides, food security and food safety. Environmental Science&Policy,9:685-692
    Frerot B, Malosse C, Cain A H.1997. Solid-Phase microextraction (SPME):A new tool in pheromone identification in Lepidoptera. Journal of High Resolution Chromatography,20:340-342
    Giblin Davis Robin M, Pena Jorge E, Duncan Rita E.1994. Lathal pitfall trap for evalution of semiochemical-mediated attraction of metamsius hemipterus sericeus(Coleoptera:Curculionidae).Florida Entomologist77(2):247-255
    Guerrero A, Camps F, Coll J. Identifieation of a potential sex pheromone of the processionary moth Tkaumetopoea pityoeampa(Lepitoptera, notodontidae).Tetrahedron Lett.1981,22:2013-2016
    Hanus R, Luxov A A, V S Obotn I K J, et al.2009. Sexual communication in the termite Prorhinotermes simplex (Isoptera, Rhinotermitidae) mediated by a pheromone from female tergal glands [J]. Insectes sociaux.56(2):111-118.
    Henrick, C A.1977. The synthesis of insect sex pheromones. Tetrahedron.33.1845-1889Howse P E, Stevens I D R, Jones O T.1998. Insect pheromones and their use in pest management. London:Chapman&Hall(edu):1-9
    Huang Y, Tatsuki S, Kim CG, Hoshizaki S, Ishikawa Y.1998. Identification of the sex pheromone of Ostrinia palustralis. Entomologia Experimentalis et Applicata.86(1):313-318
    Tang J D, Charlton R E, Carde R T, Yin C M.1992. Diel periodicity and influence of age and mating on sex pheromone titer in gypsy moth, Lymantria dispar (L.) Journal of Chemical Ecology,18,(5):749-760
    Karlson P, Luscher M.1959.'Pheromones':a new term for a class of biologically active substances. Natur,183:55-56
    Kehat M, Anshelevich L, Dunkelblum E, Fraishtat P, Greenberg S.1994. Sex pheromone traps for monitoring the codling moth:Effect of dispenser type, field aging of dispenser, pheromone dose and type of trap on male captures. Entomol. Exp. Appl.,70:55-62
    Kuwahara Y, Kitamura C, Takahashi F, Here H, Ishii S, Fukami H.1971. Sex pheromone of the almond moth and the Indianmeal moth:cis-9, trans-12-tetradecadienyl acetate. Science,171(3973):801-802
    Manabu K, Sadahiro T.1993.Diel rhythms of calling behavior and pheromone production of oriental tobacco budworm moth, Helicoverpa assulta (Lepidoptera:Noctuidae). Journal of Chemical Ecology,19(12):2953-63
    Martin Jacobson, Morton Beroza.1963.Chemical Insect Attractants Insects promote their own destruction in responding to traps baited with specific lures[J].Science.140(6):1367-1373
    McDonough L M, Davis H G, Chapman P S, Smithhisler C L.1994.Codling moth (Cydiapom onella): Disruptants of sex pheromonal communication. J. Chem. Ecoll.20)(1):171-181
    Mcelfresh J S, Millar J G.1999. Sex pheromone of the common sheep moth, Hemileuca eglanterina, from the San Gabriel Mountains of California. J Chem Ecol,25(4):687-709
    Mithran S, Subbaraman A S.1999, Synthesis of (3Z)-Dodecenyl-(E)-2-butenoate, the Pheromone of Sweet Potato Weevil. Molecules4:159-164
    Petrushkina E A, Kalinin V N.2008. Copper-catalyzed cross-coupling of (Z)-allyl phenyl ethers with Grignard compounds in the synthesis of insect pheromones. Russian Journal of General Chemistry.78(10):1897-1899
    Norman K, Siti N A, Othman A, Mohd B W.2010. Pheromone mass trapping of bagworm moths, Metisa plana Walker (Lepidoptera:Psychidae), for its control in mature oil palms in Perak, Malaysia. Journal of Asia-Pacifc Entomology,13(2):101-106
    Petersen R L, Grubbs R H.2009信息素及其成分的复分解合成ZL00818110.1.
    Pherolist.php2011http://www-pherolist.slu.se/pherolist.php2011
    Quero C, Camps F, Guerrero A.1995. Behavior of Processionary males (Thaumelopoea pityocampa) induced by sex Pheromone and analogs in a wind tunnel. J.Chem.Ecol,21(12):1957-1969
    Roelofs W L, Comeau A, Comeau A, Selle R.1969. Sex Pheromone of the Oriental Fruit Moth. Nature,(224):723-726.
    Roelofs W, HillA, Milicevic G,1971. Sex attractant of the codling moth:Characterization with electro-antenno-gram technique. Science,174(4006):297-299
    Ryall K, Silk P, Wu J, et al.2010. Sex pheromone chemistry and field trapping studies of the elm spanworm Ennomos subsignaria (Hubner)(Lepidoptera:Geometridae)[J]. Naturwissenschaften.97(8):717.
    Shu S, Grant G G, Langevin D A.1997. Oviposition and ecectroantennogram responses of Dioryctria abietivorella (Lepidoptera:Pyralidae) elicited by monoterpenes and enantiomers from estern white pine.J Chem Ecol,23(1):35-50.
    Silk P, Sweeney J, Wu J, et al.2007. Evidence for a male-produced pheromone in Tetropium fuscum (F.) and Tetropium cinnamopterum (Kirby)(Coleoptera:Cerambycidae)[J]. Naturwissenschaften.94(8):697.
    Sillam-Dusses D, Kalinova B, Jiros P, et al.2009, Identification by GC-EAD of the two-component trail-following pheromone of Prorhinotermes simplex (Isoptera, Rhinotermitidae, Prorhinotermitinae)[J]. Journal of Insect Physiology.55(8):751-757.
    Takuma T, Masato H,Yoshiaki O.2001. Evidence for male and female sex pheromones in the sulfur butterfly, Eurema hecabe. Entomologia Experimentalis et Applicata.,101(1):89-92
    Trimble R M, El-Sayed A M.2006, Effect of certain monounsaturated dodecene and tetradecene acetates and alcohols on electroantennogram response and pheromone-mediated trap catch of the obliquebanded leafroller.The Canadian Entomologist,138(2):218-227
    Van Vang L, Ishitani M, Komai, F.2006. Sex pheromone of the soybean pod borer, Leguminivora glycinivorella (Lepidoptera:Tortricidae):Identification and field evaluation. AppliedEntomoloy and Zoology,41(3):507-513
    Van Tol R, Helsen H, Griepink F C, et al.2009. Female-induced increase of host-plant volatiles enhance specific attraction of aphid male Dysaphis plantaginea (Homoptera:Aphididae) to the sex pheromone [J]. Bulletin of entomological research.99(06):593-602.
    Vargas RI, Shelly TE, Leblanc L, Pinero JC.2010. Recent advances in methyl eugenol and cue-lure technologies for fruit fly detection, monitoring, and control in Hawaii. Vitam Horm.83:575-595.
    Wakamura S.1985. Identification of the sex pheromone components of the pod borer, Matsumuraeses falcana. Applied Entomoloy and Zoology,20:189-198
    Whittaker R H, Feeny P P.1971. Allelochemicals:chemical sinteractions betweens pecies. Science171(3973):757-758
    Zhu J, Polavarapu S, Park K, et al.2009, Reidentification of pheromone composition of Sparganothis sulfureana (Clemens) and evidence of geographic variation in male responses from two US states [J]. Journal of Asia-Pacific Entomology.12(4):247-252.

© 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