橘小实蝇监测、生物防治及蛋白铒剂应用机理
|
摘要
1蛋白饵剂对橘小实蝇的作用机理
通过对蛋白饵剂作用于橘小实蝇的生理生化影响，初步探讨了其对橘小实蝇的作用机理。蛋白饵剂能够显著减少橘小实蝇雌雄成虫的寿命，且使橘小实蝇产卵量明显减少，所产卵均不孵化；饲喂蛋白饵剂使橘小实蝇精子长度（128.846um）显著短于饲喂人工饲料的橘小实蝇精子长度（141.425um）；蛋白饵剂对橘小实蝇卵巢长度与宽度并无影响。通过对橘小实蝇中肠消化酶的研究，发现蛋白饵剂能够有效降低淀粉酶（1.97），脂肪酶（19.32）和蛋白酶（28.87）的活性，这可能造成橘小实蝇营养缺乏，从而导致寿命缩短致死。
2橘小实蝇田间种群动态与预测
通过2007年-2010年4年监测，福建省漳州市长泰五四农场橘小实蝇种群动态分布在5月中旬-6月上旬均有1个高峰，此时果园内并无橘小实蝇寄主植物成熟，但种群数量偏大，此高峰是由前1年越冬虫蛹羽化所造成。三种果树（常规芦柑、晚熟芦柑与蜜柚）园中，常规芦柑在12月初采收，10月下旬开始转色，此时田间气温在28℃左右，园内橘小实蝇种群有2个高峰；蜜柚由于9月下旬采收，转色期在8月，此时田间温度过高，橘小实蝇种群很小；晚熟芦柑成熟期为第二年2月，转色期在第二年1月，田间温度在10℃以下，橘小实蝇种群亦很小，因此蜜柚和晚熟芦柑均只有1个高峰，说明第2个高峰的存在与否和作物转色期时橘小实蝇田间种群数量的多少有关。通过监测果园内，果园边界及果园外橘小实蝇种群数量变化，发现伴随常规芦柑开始转色（10月上旬），果园外橘小实蝇向果园内大量迁移。使用蛋白饵剂在常规芦柑园中可诱到雌雄成虫，且雌雄成虫数量相差不大，说明应用蛋白饵剂可将雌性成虫数量可以作为监测对象。
利用时间序列分析，建立ARIMA（1,0,3）模型方程：x_t=0.57x_(t-1)+(0.278) w_(t-1)+(0.406) w_(t-2)+(-0.296)w_(t-3)，且该模型拟和数据的趋势变化和原始数据基本一致，原始数据均落在拟和值的95％可信区间内。而随着预测时间的延长，预测值的95％可信区间变宽，即预测的精度降低。
3橘小实蝇生物防治技术
2008年五四农场常规芦柑园内性诱灭雄，对照区有橘小实蝇种群有2个高峰，而试验区仅有前1个高峰，对照区第2个高峰9月26日时96.0头/瓶，此时试验区仅有11.6头/瓶。
蛋白饵剂与GF-120诱杀橘小实蝇最佳配比均为1：4，其效果明显优于GF-120（蛋白饵剂：94头；GF-120：67头）。
橘小实蝇不育雄虫田间释放回收率在2.351%-3.763%，3次扩散距离最近为82.80m，最远为207.89m；最长在田间存活为15d，最短为12d。不育率89.61%-93.14%，而对照区不育率从17.52%-22.43%。
阿里山潜蝇茧蜂对橘小实蝇田间平均寄生率为36.2%-46.1%，其中最高为62.2%，最低为23.3%。
2009年底清理试验区内所有落果，检查落果原因，49.13%是由橘小实蝇为害造成。清园后，第2年（2010年）5月种群数量则极少（少于10.0头/瓶）。由于橘小实蝇以蛹在土中过冬，清园可以有效减少橘小实蝇第1年过冬虫蛹，从而达到降低第2年春季种群数量的目的。
2009年9月-2009年11月综合生物防治蜜柚对照区内蜜柚为害率最高为34.15%，平均为26.88%；五四农场试验区为害率最高为5.88%，平均3.20%；芦柑对照区普通芦柑为害率最高为13.89%，平均11.53%；而五四果场试验区为害率最高为1.03%，平均0.47%。
1Mechanism of Protein Bait with oriental fruit fly
Study showed the mechanism of the oriental fruit fly through the role of Protein Bait in itsphysiological and biochemical effects. Protein Bait could significantly reduce the male and femaleadult oriental fruit fly longivity expectancy (mortality14.44%) and fecundity significantly reduced(30) with no hatching. Fed Protein Bait made oriental fruit fly sperm length (128.846um) wassignificantly shorter than artificial food (141.425um). Protein Bait was no impact on oriental fruitfly ovary length and width. Oriental fruit fly fed with Protein Bait could effectively reduce thea-amylase (1.97), the activity of lipase (19.32) and protease (28.87), which may be caused by thelack of a small oriental fruit fly nutrition, and thus resulting in reduced life.
2Field population dynamics of oriental fruit fly
Monitoring field population dynamics of oriental fruit fly Bactrocera dorsalis（Hendel） inWusi Farm, Changtai, Zhangzhou,2007-2010, there was a highest-population point between Mayand June. It was caused by pupae emergency which survived in the soil. There were twohighest-population points in general orange garden and only one in serotinous orange garden andshaddock garden. It explained the second point was related to the maturity of crops. Using Proteinbait could monitor female oriental fruit fly and there was no obvious difference between male andfemale (Oct5,7.8/trap). That showed that female dynamics could act as monitor methods oforiental fruit fly. Founded model ARIMA(1,0,3):
x_t=0.57x_(t-1)+(0.278) w_(t-1)+(0.406) w_(t-2)+(-0.296)w_(t-3).
And the trend variation of fit value of the model were as same as original data. The original datalocated in the95%confidence. It was found that prediction accuracy decreased and95%confidence were broadened as the prediction ex_tended.
3Biological control on oriental fruit fly
Male annihilation was launched in general orange garden in2008, Wusi Farm. There were twohighest-population points in test field but only one in CK field.11.6/trap was found in test fieldand96.0/trap in CK field, Sep26.
Best proportion of Protein bait, GF-120mixed with water were1:4. The effect of Protein baitwas better than GF-120(94:67).
Parasitic rate of oriental fruit fly by Fopius arisanus (Sonan) parastited was between36.2%-46.1%and highest62.2%lowest23.3%.
Infested fruits were clear and checked and was found50%damages was caused by oriental fruitfly. Sanitation in the field at the end of2009reduced the population of oriental fruit fly in2010(28.0/trap2009April-May,10.0/trap2010April-May).
Biological control was made in Wusi Farm from September to November,2009. Damage rateby oriental fruit fly in shaddock garden was average3.20%(average) and5.88%(highest).Damage rate in CK shaddock garden was26.88%(average) and34.15%(highest). Damage rateby oriental fruit fly in general orange garden was average0.47%(average) and1.03%(highest).And damage rate in CK general orange garden was11.53%(average) and13.89%(highest).
通过对蛋白饵剂作用于橘小实蝇的生理生化影响，初步探讨了其对橘小实蝇的作用机理。蛋白饵剂能够显著减少橘小实蝇雌雄成虫的寿命，且使橘小实蝇产卵量明显减少，所产卵均不孵化；饲喂蛋白饵剂使橘小实蝇精子长度（128.846um）显著短于饲喂人工饲料的橘小实蝇精子长度（141.425um）；蛋白饵剂对橘小实蝇卵巢长度与宽度并无影响。通过对橘小实蝇中肠消化酶的研究，发现蛋白饵剂能够有效降低淀粉酶（1.97），脂肪酶（19.32）和蛋白酶（28.87）的活性，这可能造成橘小实蝇营养缺乏，从而导致寿命缩短致死。
2橘小实蝇田间种群动态与预测
通过2007年-2010年4年监测，福建省漳州市长泰五四农场橘小实蝇种群动态分布在5月中旬-6月上旬均有1个高峰，此时果园内并无橘小实蝇寄主植物成熟，但种群数量偏大，此高峰是由前1年越冬虫蛹羽化所造成。三种果树（常规芦柑、晚熟芦柑与蜜柚）园中，常规芦柑在12月初采收，10月下旬开始转色，此时田间气温在28℃左右，园内橘小实蝇种群有2个高峰；蜜柚由于9月下旬采收，转色期在8月，此时田间温度过高，橘小实蝇种群很小；晚熟芦柑成熟期为第二年2月，转色期在第二年1月，田间温度在10℃以下，橘小实蝇种群亦很小，因此蜜柚和晚熟芦柑均只有1个高峰，说明第2个高峰的存在与否和作物转色期时橘小实蝇田间种群数量的多少有关。通过监测果园内，果园边界及果园外橘小实蝇种群数量变化，发现伴随常规芦柑开始转色（10月上旬），果园外橘小实蝇向果园内大量迁移。使用蛋白饵剂在常规芦柑园中可诱到雌雄成虫，且雌雄成虫数量相差不大，说明应用蛋白饵剂可将雌性成虫数量可以作为监测对象。
利用时间序列分析，建立ARIMA（1,0,3）模型方程：x_t=0.57x_(t-1)+(0.278) w_(t-1)+(0.406) w_(t-2)+(-0.296)w_(t-3)，且该模型拟和数据的趋势变化和原始数据基本一致，原始数据均落在拟和值的95％可信区间内。而随着预测时间的延长，预测值的95％可信区间变宽，即预测的精度降低。
3橘小实蝇生物防治技术
2008年五四农场常规芦柑园内性诱灭雄，对照区有橘小实蝇种群有2个高峰，而试验区仅有前1个高峰，对照区第2个高峰9月26日时96.0头/瓶，此时试验区仅有11.6头/瓶。
蛋白饵剂与GF-120诱杀橘小实蝇最佳配比均为1：4，其效果明显优于GF-120（蛋白饵剂：94头；GF-120：67头）。
橘小实蝇不育雄虫田间释放回收率在2.351%-3.763%，3次扩散距离最近为82.80m，最远为207.89m；最长在田间存活为15d，最短为12d。不育率89.61%-93.14%，而对照区不育率从17.52%-22.43%。
阿里山潜蝇茧蜂对橘小实蝇田间平均寄生率为36.2%-46.1%，其中最高为62.2%，最低为23.3%。
2009年底清理试验区内所有落果，检查落果原因，49.13%是由橘小实蝇为害造成。清园后，第2年（2010年）5月种群数量则极少（少于10.0头/瓶）。由于橘小实蝇以蛹在土中过冬，清园可以有效减少橘小实蝇第1年过冬虫蛹，从而达到降低第2年春季种群数量的目的。
2009年9月-2009年11月综合生物防治蜜柚对照区内蜜柚为害率最高为34.15%，平均为26.88%；五四农场试验区为害率最高为5.88%，平均3.20%；芦柑对照区普通芦柑为害率最高为13.89%，平均11.53%；而五四果场试验区为害率最高为1.03%，平均0.47%。
1Mechanism of Protein Bait with oriental fruit fly
Study showed the mechanism of the oriental fruit fly through the role of Protein Bait in itsphysiological and biochemical effects. Protein Bait could significantly reduce the male and femaleadult oriental fruit fly longivity expectancy (mortality14.44%) and fecundity significantly reduced(30) with no hatching. Fed Protein Bait made oriental fruit fly sperm length (128.846um) wassignificantly shorter than artificial food (141.425um). Protein Bait was no impact on oriental fruitfly ovary length and width. Oriental fruit fly fed with Protein Bait could effectively reduce thea-amylase (1.97), the activity of lipase (19.32) and protease (28.87), which may be caused by thelack of a small oriental fruit fly nutrition, and thus resulting in reduced life.
2Field population dynamics of oriental fruit fly
Monitoring field population dynamics of oriental fruit fly Bactrocera dorsalis（Hendel） inWusi Farm, Changtai, Zhangzhou,2007-2010, there was a highest-population point between Mayand June. It was caused by pupae emergency which survived in the soil. There were twohighest-population points in general orange garden and only one in serotinous orange garden andshaddock garden. It explained the second point was related to the maturity of crops. Using Proteinbait could monitor female oriental fruit fly and there was no obvious difference between male andfemale (Oct5,7.8/trap). That showed that female dynamics could act as monitor methods oforiental fruit fly. Founded model ARIMA(1,0,3):
x_t=0.57x_(t-1)+(0.278) w_(t-1)+(0.406) w_(t-2)+(-0.296)w_(t-3).
And the trend variation of fit value of the model were as same as original data. The original datalocated in the95%confidence. It was found that prediction accuracy decreased and95%confidence were broadened as the prediction ex_tended.
3Biological control on oriental fruit fly
Male annihilation was launched in general orange garden in2008, Wusi Farm. There were twohighest-population points in test field but only one in CK field.11.6/trap was found in test fieldand96.0/trap in CK field, Sep26.
Best proportion of Protein bait, GF-120mixed with water were1:4. The effect of Protein baitwas better than GF-120(94:67).
Parasitic rate of oriental fruit fly by Fopius arisanus (Sonan) parastited was between36.2%-46.1%and highest62.2%lowest23.3%.
Infested fruits were clear and checked and was found50%damages was caused by oriental fruitfly. Sanitation in the field at the end of2009reduced the population of oriental fruit fly in2010(28.0/trap2009April-May,10.0/trap2010April-May).
Biological control was made in Wusi Farm from September to November,2009. Damage rateby oriental fruit fly in shaddock garden was average3.20%(average) and5.88%(highest).Damage rate in CK shaddock garden was26.88%(average) and34.15%(highest). Damage rateby oriental fruit fly in general orange garden was average0.47%(average) and1.03%(highest).And damage rate in CK general orange garden was11.53%(average) and13.89%(highest).
引文
[1]梁光红，陈家骅，杨建全，等．橘小实蝇国内研概况[J]．华东昆虫学报，2003，12(2)：90-98．
[2]黄素青，韩日畴.桔小实蝇的研究进展[J].昆虫知识，200542(5)：479-484.
[3]梁广勤,梁国真,林明,等.实蝇及其防除[M].广州:广东科技出版社,1993，93-104.
[4] DREW R A I．The taxonomy and distribution of tropical and subtropical Dacinae(Diptera：Tephritidae)．In Robinson A．S．ed．World Crops Pests，Amsterdam Etsevier，l989．13-66.
[5]吴广超，张岳峰，龚洪斌，等.桔小实蝇的发生为害规律及防治[J].林业科技开发，2007，21（4）：92-93.
[6]梁光红，罗金水，徐晓新，等.桔小实蝇及其综合防治[J].福建热作科技，2005，30（1）：29-32.
[7]谢琦，张润杰.桔小实蝇生物学特点及其防治研究概述[J].生态科学，2005，24（1）：52-56.
[8]张格成，李继祥.柑桔小实蝇主要生物生态学和综合治理综述[J].广西柑桔，1997，3：10-11.
[9]林进添，曾玲，陆永跃.桔小实蝇生物学特性及防治进展[J].仲恺农业技术学院学报，2005，17（1）：60-67.
[10]范京安.用模糊综合评判法探讨桔小实蝇在中国的适生分布[J].植物检疫，1998，12（2）：76-80.
[11]詹开瑞,赵士熙,朱水芳,等.橘小实蝇在中国的适生性研究[J].华南农业大学学报，2006,27（4）：20-25.
[12]蒋小龙，和万忠，肖枢，等.桔小实蝇在云南边境生物学研究及适生性分析[J].西南农业大学学报，2001,23（6）：510-517.
[13]熊焰，项勇，包云轩，等.桔小实蝇在江苏省的适生性分布研究[J].南京农业大学学报，2001,23（6）：510-517.
[14]蒋小龙，和万忠，肖枢，等.桔小实蝇在云南边境生物学研究及适生性分析[J].西南农业大学学报，2006,29（4）：48-52.
[15]侯柏华，张润杰.基于CL IM EX的桔小实蝇在中国适生区的预测[J].生态学报，2005，25（7）：1569-1574.
[16]梁广勤.桔小实蝇特征的观察[J].植物检疫，1981，4：7-10.
[17]梁广勤.简述桔小实蝇及其四个近似种[J].中国进出境动植检，1997，3：10.
[18]鲁红学，牟本忠，阮华芳.柑桔产区3种实蝇成虫形态比较[J].植物保护，1998,24（2）：26-28.
[19]陈宏，李冠雄，古锦煌.三种Bactrocera属实蝇幼虫的形态特征[J].植物检验,1996,10（6）：355-358.
[20]李志红,龚鹏，陈洪俊，等.橘小实蝇分子生物学研究进展[J].植物检验,2002,16（3）：165-166.
[21]余洁，陈劲松，翁瑞泉，等.实蝇DNA提取方法的比较[J].农业生物技术学报,2004,12（6）：741-742.
[22]梁广勤，梁帆.桔小实蝇三龄幼虫染色体的组型[J].昆虫知识，1993，30（6）：356-357.
[23]梁广勤，杨国海，梁帆，等.利用染色体和同工酶技术鉴定寡鬃实蝇幼虫[J].植物检疫，1994，8（1）：4-9.
[24]吴佳教，胡学难，赵菊鹏，等.9种检疫性实蝇PCR-RFLP快速鉴定研究[J].植物检验，2005，19（1）：2-6.
[25]施伟，叶辉.云南桔小实蝇五个地理种群的遗传分化研究[J].昆虫学报，2004，47（3）：384-388.
[26]康芬芬，李志红.利用微卫星标记初步分析桔小实蝇4个地理种群的遗传多态性[J].昆虫知识，2006，43（3）：371-373.
[27]李伟丰,杨朗,唐侃,等.中国桔小实蝇种群的微卫星多态性分析[J].昆虫学报，2007，50（12）：1255-1262.
[28]姚廷山，胡军华，李鸿筠，等.桔小实蝇5个地理种群的SSR遗传多态性分析[J].中国农学通报，2010，26（8）：234-236.
[29]沈发荣，周又生，赵焕萍，等.柑桔小实蝇生物学特性及其防治研究[J].西北林学院学报，1997,12（1）：85-89.
[30]张清源，林振基，刘金耀，等.桔小实蝇生物学特性[J].华东昆虫学报，1998，7（2）：65-68.
[31]林进添，梁广文，曾玲，等.土壤含水量对桔小实蝇蛹期存活的影响[J].昆虫知识，2005，42（4）：416-418.
[32]肖枢，蒋小龙，张朝良，等.瑞丽桔小实蝇、瓜实蝇生物学特性的观察[J].植物检疫，2001，15（6）：332-336.
[33]陆晓莉，包月华，颜春妹.桔小实蝇发生与防控技术初探[J].上海农业科技，2009，1：117.
[34]杨玉梅，赵艳龙.青枣园桔小实蝇的发生与防治[J].中国热带农业，2005，5：48-49.
[35]王金姣，黄展新.三华李桔小实蝇发生规律及防治试验[J].广西园艺，2008，19（4）：36-37.
[36]和万忠，孙兵召，李翠菊，等.云南河口县桔小实蝇生物学特性及防治[J].昆虫知识，2002，39（1）：50-52.
[37]张振新，王玉芬，叶玲，等.桔小实蝇发生规律与分析[J].长江农业，2008，8：69-70.
[38]袁盛勇，孔琼，肖春，等.橘小实蝇化蛹深度和浸水对蛹期及羽化率的影响[J].山地农业生物学报，2004，23（6）：486-488.
[39]侯柏华，张润杰.桔小实蝇不同发育阶段过冷却点的测定[J].昆虫学报，2007，50（6）：638-643.
[40]任璐，陆永跃，曾玲.桔小实蝇自然种群蛹和越冬成虫的耐寒性[J].昆虫学报，2007，50（6）：588-596.
[41]袁盛勇，孔琼，肖春，等.桔小实蝇各虫态发育历期及有效积温研究[J].西南农业大学学报，2005，27（3）：316-318.
[42]林进添，曾玲，宾淑英，等.桔小实蝇自然种群生命表的组建与分析[J].华中农业大学学报，2005，24（2）：138-142.
[43]黄毓斌，高静华，郑允.台湾地区东方果实蝇之发生及其疫情监测[J].植物保护学会会刊，1997,39：125-136.
[44]林惠敏，陈艳，范青海.福州实蝇监测初报[J].华东昆虫学报，2005，15（4）：272-275.
[45]林振基，孙国坤，高泉准，等.厦门地区桔小实蝇疫情监测[J].华东昆虫学报，1998，7（2）：69-72.
[46]林进添，曾玲，陆永跃，等.高度和地点对性引诱剂诱集桔小实蝇雄虫效果的影响[J].植物保护，2005，31（2）：67-69.
[47]林进添,曾玲,梁广文,等.橘小实蝇卵和幼虫在番石榴上的空间格局[J].华中农业大学学报,2005,24（5）：451-454.
[48]于鑫，陆永跃，梁广文，等.桔小实蝇雄成虫空间分布的地理统计学分析[J].华南农业大学学报,2006,27（2）：28-31.
[49]梁帆,吴佳教,梁广勤.橘小实蝇飞行能力测定试验初报[J].江西农业大学学报，2001，23（2）：259-260.
[50]陈鹏，叶辉，母其爱.基于荧光标记的怒江流域桔小实蝇(Bactrocera dorsalis)的迁移扩散[J].生态学报，2007，27（6）：2468-2476.
[51]梁广勤，梁帆，吴佳教，等.拟输日本芒果蒸热杀虫处理试验研究[J].江西农业大学学报，1999，24（4）：533-535.
[52]蒋小龙，任丽卿,肖枢,等.橘小实蝇检疫处理技术研究[J].西南农业大学学报，2002，24（4）：303-306.
[53]赵菊鹏，胡学难，梁帆，等.桔小实蝇、木瓜实蝇辐照检疫除害处理试验研究[J].植物检疫，2010,24（6）：6-9.
[54]孙国坤，陈家福，张清源，等.桔小实蝇综合防治试验初报[J].华东昆虫学报，2000，9（1）：116-119.
[55]雷沈英，杜一新，李永青.柑橘小实蝇在浙江景宁县的发生规律及综合防控技术初探[J].植物检疫，2010，24(1).
[56] Linares F. Medfly program in Guatemala and Mexico: Current situation[C]. The internationalsymposium on the biology and control of fruit flies，Japan，1991，44-51
[57] Kakinohana H. The melon fly eradication program in Japan. Fruit flies and the sterile insecttechnique，CRC press，USA，1994，223-226.
[58] Staten RT et al. Genetic control of cotton insect：The pink bollworm as a working programme,IAEA2SM2327/28, Vienna，1993，269-284.
[59] Dyck, V A, S H Graham, K A Bloem.. Implementation of the sterile insect release programmeto eradicate the codling moth in British Columbia,Canada. IAEA2SM2327/29, Vienna,1993,285-298.
[60] Jose Luis，Zavala L. Fruit flies eradication program in Mexico[C]. The internationalsymposium on the biology and control of fruit flies, Japan,1991,32-43.
[61] Sutantawong M， Orankanok W, Enkerlin W R, et al. The sterile insect technique for controlof the oriental fruit fly, Bactrocera dorsalis (Hendel), in mango orchards in RatchaburiProvince, Thailand[C]. Proceedings of6thInternational Fruit Fly Symposium,6-10May2002,Stellenbosch, South Africa. Pp223-232.
[62] Klassen W. Overview of the Joint FAO/IAEA Division’s involvement in fruit fly sterileinsect technique program. Fruit flies and the sterile insect technique，CRC press, USA,1994,3-26.
[63]王华嵩，胡建国，路大光，等.利用辐射不育技术防治柑桔大实蝇的示范试验[J].中国生物防治，1995，11（4）：156-159.
[64]梁广勤,梁帆,吴佳教，等.橘小实蝇不育处理实验初报[J].江西农业大学学报,2003,25(6):904-905.
[65]梁广勤，梁帆，赵菊鹏，等.桔小实蝇不育技术及应用研究[J].广东农业科学，2008，5：60-63.
[66]林骁，沈鸣，季清娥.橘小实蝇白蛹品系的建立[J].福建农业科技，2007，3：47-48.
[67]季清娥,侯伟荣,陈家骅.橘小实蝇遗传性别品系的建立及雄性不育技术[J].昆虫学报,2007,50(10):1002-1008.
[68]季清娥,侯伟荣,陈家骅橘小实蝇雄性不育技术——雄蛹辐照最佳时期和剂量[J].核农学报,2007,21(5):53-52.
[69]季清娥,杜迎刚,侯伟荣,等.橘小实蝇雄性不育技术应用过程中混入雌虫活力的研究[J].核农学报,2008,22(1):97-10.
[70]赵菊鹏，田世尧，曾杨，等.几种杀虫剂对桔小实蝇成虫的毒力测定[J].植物检疫，2001，15（6）：342-342.
[71]曾杨，赵菊鹏，林志雄，等.几种杀虫剂对桔小实蝇老熟幼虫的毒力测定[J].植物检疫，2002，16（3）：148-149.
[72] Harris E J, Bautista R C. Fruit trap; a detection and collection tool for opine parasitoids (Hym.Braconidae) of the oriental fruit fly, Bactrocera dorsalis (Diptera: Tephritidae)[J].Entomophaga,1994,39(324):341-349.
[73] Palacio I. P., Ibrahim R., IBRAHIM A. G.. Identification of immatures and male adults of theopine parasitoids (Biosteres spp.) of the oriental fruit fly, Bactrocera dorsalis (Hendel)[J].Philipine Entomologist,1992,8(5):124-146.
[74] Ramadan M. M., Wong T. T. Y.. Biological observations on Tetrastichus giffardianus(Hymenoptera: Eulophidae), a gregarious endoparasitoid of the Mediterranean fruit fly andthe oriental fruit fly (Diptera: Tephritidae)[J]. Proceedings of the Hawaiian EntomologicalSociety,1990,30:59-62.
[75] Ramadan M. M., Wong T. T. Y., Mcinnis D. O.. Reproductive biology of Biosteres arisanus(Sonan) an egg-larval parasitoid of the Oriental fruit fly[J]. Biological Control,1994,4(2):93-100.
[76] Liquido N. J.. Effect of ripeness and location of papaya fruits on the parasitization rates oforiental fruit fly and melon fly (Diptera: Tephritidae) by braconid (Hymenoptera)parasitoids[J]. Environmental Entomology,1991,20(6):1732-1736.
[77] Bautista R. C., Harris E. J.. Effect of fruit substrates on parasitization of tephritid fruit fly(Diptera) by the parasitoid Biosteres arisanus (Hymenoptera: Braconidae)[J]. EnvironmentalEntomology,1991,20(6):1732-736.
[78]姚婕敏,谢翠红.广东橘小实蝇寄生蜂调查[J].环境昆虫学报，2008，30（4）：350-356.
[79]梁光红,武英,陈家骅.橘小实蝇及其寄生蜂消长规律[J].西南林学院学报,2006,26(6):73-78.
[80]吕增印,杨建全,黄居昌,等.影响布氏潜蝇茧蜂子代性比的因素[J].福建林学院学报,2008,28(3):225-228.
[81]吕增印,杨建全,陈家骅,等.温度对布氏潜蝇茧蜂寄生橘小实蝇幼虫的影响[J].福建农林大学学报(自然科学版),2008,34(4):337-340.
[82]黄居昌,吕增印,陈家骅,等.寄主龄期和温度对布氏潜蝇茧蜂和长尾潜蝇茧蜂种间竞争的影响[J].湖南农业大学学报(自然科学版),2008,34(4):467-468.
[83]梁光红,陈家骅,黄居昌,等.切割潜蝇茧蜂对橘小实蝇幼虫的功能反应研究[J].江西农业大学学报,2006,20(2):200-203．
[84]林玲,黄居昌,陈家骅,等.长尾潜蝇茧蜂对橘小实蝇幼虫的寄生效能[J].华东昆虫学报,2006,15(4):288-290.
[85]郭庆亮,黄居昌,季清娥,等.阿里山潜蝇茧蜂Fopius arisanus的发育起点温度和有效积温[J].华东昆虫学报，2007,16(1):41-43.
[86]郭庆亮,黄居昌,季清娥,等.阿里山潜蝇茧蜂对橘小实蝇卵的寄生效能[J].华东昆虫学报,2006,15(4):291-293.
[87]耿军灵，郑敏琳，杨建全，等.成蜂饲养密度和繁蜂益害比对阿里山潜蝇茧蜂子代的影响[J].福建农林大学学报，2009，38（4）：348-350.
[88]耿军灵，郑敏琳，杨建全，等.不同琼脂配比对阿里山潜蝇茧蜂寄生效果的影响[J].福建林学院学报，2009，29（2）：97-102.
[89]潘志萍，李敦松，黄少华.球孢白僵菌对桔小实蝇致病力的测定[J].华中农业大学学报，2006，25（5）：518-519.
[90]袁盛勇，孔琼，马艳粉，等.球孢白僵菌MZ041016菌株对桔小实蝇的毒力测定[J].华中农业大学学报，2010,29（2）:152-155.
[91]杜迎刚，陈家骅，季清娥.一种新型蛋白诱剂对橘小实蝇引诱作用[J].福建农林大学学报，2007，27（3）：259-262.
[92] Shelly T. E.. Consumption of Methyl Eugenol by male Bactrocera dorsalis (Diptera:Tephritidae): low incidence of repeat feeding [J]. Florida Entomologist,1994,77(2):201-208.
[93] Tobing M. C., Marheni, Mariati, et al. Pengaruh Metil Eugenol dalam Pengendalian LalatBuah(Bactrocera dorsalis) pada Pertanaman Jeruk [J]. Jurnal Natur Indonesia,2005,9(2):127-130.
[94] Shelly T. E., Resilva S., Reyes M., et al. Methyl Eugenol and mating competitiveness ofirradiated male Bactrocera Philippinensis (Diptera: Tephritidae)[J].1996,79(4):481-488.
[95] Nishida R., Shelly T. E., Kaneshiro K. Y.. Acquisition of female-attracting fragrance bymales of oriental fruit fly from a Hawaiian lei flower, Fagraea Berteriana[J]. Journal ofChemical Ecology,1997,23(10):2275-2285.
[96] Shelly T. E., James E.. Do Methyl Eugenol-fed males of The oriental fruit fly (Diptera:Tephritidae) induce female re-mating [J]. Florida Entomologist,2008,91(3):388-393.
[97] Shelly T. E., James E.. Exposure to the ripe fruit of Tropical almond enhances the matingsuccess of male Bactrocera Dorsalis (Diptera: Tephritidae)[J]. Florida Entomologist,2007,90(4):757-758.
[98] Loren F. Steiner. Fruit fly control in Hawaii with poison-bait sprays containing proteinhydrolysates [J]. Journal of Economic Entomology,1952,45(5):838-843.
[99] Chinajariyawong A., Kritsaneepaiboon S., Drew R. A.. Efficacy of protein bait sprays incontrolling fruit flies(Diptera: Tephritidae) infesting angled luffa and bitter gourd in Thailand[J]. The Raffles Bulletin of Zoology,2003,51(1):7-15.
[100] Stark J. D., Vargas R. I., Miller N. W.. Toxicity of Spinosad in protein bait to threeeconomically important Tephritid fruit fly species (Diptera: Tephritidae) and their parasitoids(Hymenoptera: Braconidae)[J]. Journal of Economic Entomology,2004,97(3):911-915.
[101] Miller N. W., Vargas R. I., Prokopy R. J., et al. State-dependent attractiveness of proteinbait and host fruit odor to Bactrocera cucurbitae(Diptera: Tephritidae) females[J].2004,97(5):1063-1068.
[102] Heath R. R., Vazquez A., Schnell E. Q., et al. Dynamics of pH modification of an acidicprotein bait used for Tropical fruit flies (Diptera: Tephritidae)[J]. Journal of EconomicEntomology,2009,102(6):2371-2376.
[103]王波，黄居昌，季清娥，等.酶解啤酒废酵母生产橘小实蝇蛋白饵剂的研究[J].江西农业大学学报,2010,32(2):299-302.
[104]王波，季清娥，杨建全，等.橘小实蝇蛋白饵剂的生物测定[J].云南农业大学学报：自然科学版，2010,25(4):483-486.
[105]王荫长.2004.昆虫生理学——农业昆虫与害虫防治专业用.北京：中国农业出版社.
[106] Belanger J.M., Son J.H., Laugero K. D., et al. Effects of short-term management stress andACTH injections on plasma cortisol levels in cultured white sturgeon, Acipensertransmontanus[J]. Aquaculture,2001,203:165-176.
[107] Napole o T.H., Pontual E.V., Lima A. T, et al. Effect of Myracrodruon urundeuva leaf lectinon survival and digestive enzymes of Aedes aegypti larvae [J].Parasitology research,2012,110(2):609-616.
[108] Budatha M., Meur G., Dutta-Gupta A.. Identification and characterization of midgutproteases in Achaea janata and their implications [J]. Biotechnology letters,2008,30(2):305-310.
[109] Gatehouse H.S., Christeller J.T., Burgess E.P., et al. In vivo Responses of honey bee midgutproteases to two protease inhibitors from potato [J]. Journal of Insect Physiology,1998,44(2):141-147.
[110] Eguchi M., Iwamoto A. Alkaline proteases in the midgut tissue and digestive fluid of thesilkworm, Bombyx mori [J]. Insect Biochemistry,1976,6(5):491-496.
[111] Fortier M., Vachon V., Schwartz J., et al.Effect of insect larval midgut proteases on theactivity of Bacillus thuringiensis Cry Toxins [J]. Applied and Environmental Microbiology,2007,73(19):6208-6213.
[112] Mohan M, Gujar GT. Characterization and comparison of midgut protease of Bacillusthuringiensis susceptible and resistant diamondback moth (Plutellidea: Lepidoptera)[J].Journal of Invertebrate Pathology,2003,82(1):1-11.
[113] Oppert B., Kramer K. J., Johnson D.E., et al. Altered protoxin activation by midgut enzymesfrom a Bacillus thuringiensis resistant strain of Plodia interpunctella [J]. BiochemicalBiophysical Research Communicaitons.1994,198(3):940-947.
[114] Miranda R., Zamudio F.Z., Bravo A.. Processing of Cry1Ab delta-endotoxin from Bacillusthuringiensis by Manduca sexta and Spodoptera frugiperda midgut proteases: role inprotoxin activation and toxin inactivation [J]. Insect Biochemical and Molecular Biology,2001,31(12):1155-1163.
[115] Ballester V., Granero F., Tabashnik B. E., et al. Integrative model for binding of Bacillusthuringiensis toxins in susceptible and resistant larvae of the diamondback moth (Plutellaxylostella)[J]. Applied Environmental Microbiology,1999,65(4):1413-1419.
[116] Mohan M., Gujar G.T.. Characterization and comparison of midgut proteases of Bacillusthuringiensis susceptible and resistant diamondback moth (Plutellidae: Lepidoptera)[J].Journal of Invertebrate Pathology,2003,82(1):1-11.
[117] Kodrík D., Vinokurov K., Tom ala A., et al. The effect of adipokinetic hormone on midgutcharacteristics in Pyrrhocoris apterus L.(Heteroptera)[J]. Journal of Insect Physiology,2012,58(1):194-204.
[118] Markwick N.P., Poulton J., McGhie T.K., et al. The effects of the broad-specificity lipaseinhibitor, tetrahydrolipstatin, on the growth, development and survival of the larvae ofEpiphyas postvittana (Walker)(Tortricidae, Lepidoptera)[J]. Journal of Insect Physiology,2011,57(12):1643-1650.
[119] Pasquevich M.Y., Dreon M.S., Lavarías S., et al. Triacylglycerol catabolism in the prawnMacrobrachium borellii (Crustacea: Palaemoniade)[J].Comparative Biochemistry andPhysiology B Biochemistry and Molecular Biology,2011,160(4):201-207.
[120] Christeller J.T., Amara S., Carrière F.. Galactolipase, phospholipase and triacylglycerollipase activities in the midgut of six species of lepidopteran larvae feeding on different lipiddiets [J]. Journal of Insect Physiology,2011,57(9):1232-1239.
[121] Markwick N.P., Poulton J., McGhie T.K., Wohlers M.W., Christeller J.T.. The effects of thebroad-specificity lipase inhibitor, tetrahydrolipstatin, on the growth, development andsurvival of the larvae of Epiphyas postvittana (Walker)(Tortricidae, Lepidoptera)[J].Journal of Insect Physiology.2011,57(12):1643-1650.
[122] Christeller J.T., Poulton J., Markwick N.M.,et al. The effect of diet on the expression oflipase genes in the midgut of the lightbrown apple moth (Epiphyas postvittana Walker;Tortricidae). Insect Molecular Biology,2010,19(1):9-25.
[123] Bulushova N.V., Zhuzhikov D.P., Lyutikova L.I., et al. Toxin-binding proteins isolated fromyellow mealworm Tenebrio molitor and wax moth Galleria mellonella [J]. Biochemistry(Mosc).2011,76(2):202-208.
[124] Soares-Costa A., Dias A.B., Dellamano M., et al. Digestive physiology and characterizationof digestive cathepsin L-like proteinase from the sugarcane weevil Sphenophorus levis [J].Journal of Insect Physiology,2011,57(4):462-468.
[125] Mehrabadi M., Bandani A.R., Saadati F.. Inhibition of Sunn pest, Eurygaster integriceps,α-amylases by α-amylase inhibitors (T-αAI) from Triticale. Journal of Insect Science,2010,10(179):1-13.
[126] Bifano T.D., Samuels R.I., Alexandre D., et al. Host-mediated induction of alpha-amylasesby larvae of the Mexican bean weevil Zabrotes subfasciatus (Coleoptera: Chrysomelidae:Bruchinae) is irreversible and observed from the initiation of the feeding period [J].Archives of Insect Biochemistry and Physiology,2010,74(4):247-260.
[127] Yezdani E., Sendi J.J., Zibaee A.,et al. Enzymatic properties of alpha-amylase in the midgutand the salivary glands of mulberry moth, Glyphodes pyloalis Walker (Lepidoptera:Pyralidae)[J]. Comptes Rendus Biologies,2010,333(1):17-22.
[128]贾源，季伟华，谢醒民.家蝇显微解剖方法的研究[J].中国人兽共患病杂志，2004，20（12）：1101-1103.
[129]汪慧芳，王雅琴，刘春国．3种脂肪酶活力测定方法的比较及改进[J]．化学与生物工程，2007，24(8)：72-75．
[130]王健敏，陈晓鸣，冯颖，等．两种蛀干昆虫消化酶组成和活性比较[J]．林业科学研究，2007，20(2)：170-175.
[131]余冰宾．生物化学实验指导[M]．北京：清华大学出版社。2004：133-135.
[132]刘震，鲍先巡，尤征英，等.家蚕对BmNPV抗病性与中肠消化酶活性的关系[J].安徽农业大学学报，2009,36（3）：489-492.
[133] Bandani A. R., Maleki F., Rahmani S., et al. Characterization of a-Amylase in the alimentarycanal of Naranga aenescens Moore (Lepidoptera: Noctuidae), the rice green caterpillar [J].Munis. Entomology&Zoology,2010,5(2):716-725.
[134] Chun-Nu Hung, Tai-Lung Lin, et al. Morphology and Ultrastructure of the Alimentary Canalof Oriental Fruit Fly Bactrocera dorsalis (Hendel)(Diptera: Tephritidae)(2): The Structureof the Midgut [J].Zoological Studies,2000,39(4):387-394.
[135] Modarres R., Ouarda T.B., Vanasse A.,et al. Modeling seasonal variation of hip fracture inMontreal, Canada [J]. BONE,2012,50(4):909-916.
[136] Aldeyab M.A., Harbarth S., Vernaz N., et al. The impact of antibiotic use on the incidenceand resistance pattern of ESBL-producing bacteria in primary and secondary healthcaresettings [J]. British Journal of Clinical Pharmacology,2011,72(6):1365-2125.
[137]周建中，罗志义。柑桔全爪螨自然种群动态的模拟模型[J].生态学报，1992，12（4）：348-355.
[138]张德昌，齐孟文。小麦蚜虫种群动态随时间序列变化的趋势分析[J].昆虫知识，1995，32（4）：204-207.
[139]任广伟，秦焕菊。山东烟区烟蚜种群在时间序列上的变化趋势[J].植物保护，2000,26（2）：8-11.
[140]马飞，丁宗泽。褐飞虱发生的一维时间序列相空间重构及混沌吸引子维数的确定[J].生态学报，2001,21（9）：1542-1548.
[141]宫锡鸿，王荣花。时间序列优选法在棉铃虫发生趋势超长期预测中的应用[J].数理统计与管理，1997,16（5）：10-13.
[142] Vargas R. I., Prokopy R..attraction and feeding responses of melon flies and oriental fruitflies (Diptera: Tephritidae) to various protein baits with and without toxicants [J].
[143] Chinajariyawong, A., Kritsaneepaiboon, S., Drew, R. A. I.. Efficacy of protein bait sprays incontrolling fruit flies (Diptera: Tephritidae) infesting angled luffa and bitter gourd inThailand[J]. Raffles Bulletin of Zoology,2003,51(1):7-15.
[144] Fabre, F., Ryckewaert, P., Duyck, P. F., et al. Comparison of the efficacy of different foodattractants and their concentration for melon fly (Diptera: Tephritidae)[J]. Journal ofEconomic Entomology,2003,96(1):231-238.
[145] Barry, J. D., Miller, N. W., Pinero, J. C., et al. Effectiveness of protein baits on melon flyand oriental fruit fly (Diptera: Tephritidae): Attraction and feeding [J]. Journal of EconomicEntomology,2006,99(4):1161-1167.
[146] Vargas, Roger I., Prokopy, Ronald. Attraction and Feeding Responses of Melon Flies andOriental Fruit Flies (Diptera: Tephritidae) to Various Protein Baits with and withoutToxicants [J]. Proceedings of the Hawaiian Entomological Society,2006,38:49-60.
[147] Steiner, L. F., Hart, W. G., Harris, E. J., et al. Eradication of the oriental fruit fly from themariana Islands by the methods of Male Annihilation and Sterile Insect Release [J]. Journalof Economic Entomology,1970,63(1):131-135.
[148] Vargas, R. I., Walsh, W. A., Hsu, C. L., et al. Effects of sterile Mediterranean fruit fly(Diptera: Tephritidae) releases on the target species, a nontarget tephritid, and a braconidparasitoid (Hymenoptera: Braconidae) in commercial coffee fields [J]. Journal of EconomicEntomology,1994,87(3):653-660.
[149] Vargas, R. I., Whitehand, L., Walsh, W. A., et al. Aerial releases of sterile Mediterraneanfruit fly (Diptera: Tephritidae) by helicopter: dispersal, recovery, and populationsuppression[J]. Journal of Economic Entomology,1995,88(5):1279-1287.
[150] McInnis, D. O., Rendon, P., Komatsu, J. Mating and remating of medflies (Diptera:Tephritidae) in Guatemala: Individual fly marking in field cages[J]. Florida Entomologist,2002,85(1):126-137.
[151] McInnis, D. O., Tam, S., Lim, R., et al. Development of a pupal color-based genetic sexingstrain of the melon fly, Bactrocera cucurbitae (Coquillett)(Diptera: Tephritidae)[J]. Annalsof the Entomological Society of America,2004,97(5):1026-1033.
[152] Rendon, P., McInnis, D., Lance, D., et al. Medfly (Diptera: Tephritidae) genetic sexing:Large-scale field comparison of males-only and bisexual sterile fly releases in Guatemala[J].Journal of Economic Entomology,2004,97(5):1547-1553.
[153] Vargas, Roger I., Leblanc, Luc, Putoa, Rudolf, et al. Impact of introduction of Bactroceradorsalis (Diptera: Tephritidae) and classical biological control releases of Fopius arisanus(Hymenoptera: Braconidae) on economically important fruit flies in French Polynesia [J].Journal of Economic Entomology,2007,100(3):670-679.
[154] Stark, J. D., Wong, T. T. Y., Vargas, R. I., et al. Survival, longevity, and reproduction oftephritid fruit fly parasitoids (Hymenoptera: Braconidae) reared from fruit flies exposed toazadirachtin[J]. Journal of Economic Entomology,1992,85(4):1125-1129.
[155] Vargas, R. I., Stark, J. D., Uchida, G. K., et al. Opiine parasitoids (Hymenoptera: Braconidae)of oriental fruit fly (Diptera: Tephritidae) on Kauai Island, Hawaii: islandwide relativeabundance and parasitism rates in wild and orchard guava habitats [J]. Biological Control,1993,22(1):246-253.
[156] Bautista, R. C., Harris, E. J., Vargas, R. I., et al. Parasitization of melon fly (Diptera:Tephritidae) by Fopius arisanus and Psyttalia fletcheri (Hymenoptera: Braconidae) and theeffect of fruit substrates on host preference by parasitoids[J]. Biological Control,2004,30:156-164.
[157] Vargas, R. I., Long, J., Miller, N. W., et al. Releases of Psyttalia fletcheri (Hymenoptera:Braconidae) and sterile flies to suppress melon fly (Diptera: Tephritidae) in Hawaii [J].Journal of Economic Entomology,2004,97(5):1531-1539.
[158] Liquido, N. J.. Effect of Ripeness and Location of Papaya Fruits on the Parasitization Ratesof Oriental Fruit-Fly and Melon Fly (Diptera, Tephritidae) by Braconid (Hymenoptera)Parasitoids [J]. Environmental Entomology,1991,20(6):1732-1736.
[159] Liquido, N. J.. Reduction of Oriental Fruit-Fly (Diptera, Tephritidae) Populations in PapayaOrchards by Field Sanitation [J]. Journal of Agricultural Entomology,1993,10(3):163-170.
[2]黄素青，韩日畴.桔小实蝇的研究进展[J].昆虫知识，200542(5)：479-484.
[3]梁广勤,梁国真,林明,等.实蝇及其防除[M].广州:广东科技出版社,1993，93-104.
[4] DREW R A I．The taxonomy and distribution of tropical and subtropical Dacinae(Diptera：Tephritidae)．In Robinson A．S．ed．World Crops Pests，Amsterdam Etsevier，l989．13-66.
[5]吴广超，张岳峰，龚洪斌，等.桔小实蝇的发生为害规律及防治[J].林业科技开发，2007，21（4）：92-93.
[6]梁光红，罗金水，徐晓新，等.桔小实蝇及其综合防治[J].福建热作科技，2005，30（1）：29-32.
[7]谢琦，张润杰.桔小实蝇生物学特点及其防治研究概述[J].生态科学，2005，24（1）：52-56.
[8]张格成，李继祥.柑桔小实蝇主要生物生态学和综合治理综述[J].广西柑桔，1997，3：10-11.
[9]林进添，曾玲，陆永跃.桔小实蝇生物学特性及防治进展[J].仲恺农业技术学院学报，2005，17（1）：60-67.
[10]范京安.用模糊综合评判法探讨桔小实蝇在中国的适生分布[J].植物检疫，1998，12（2）：76-80.
[11]詹开瑞,赵士熙,朱水芳,等.橘小实蝇在中国的适生性研究[J].华南农业大学学报，2006,27（4）：20-25.
[12]蒋小龙，和万忠，肖枢，等.桔小实蝇在云南边境生物学研究及适生性分析[J].西南农业大学学报，2001,23（6）：510-517.
[13]熊焰，项勇，包云轩，等.桔小实蝇在江苏省的适生性分布研究[J].南京农业大学学报，2001,23（6）：510-517.
[14]蒋小龙，和万忠，肖枢，等.桔小实蝇在云南边境生物学研究及适生性分析[J].西南农业大学学报，2006,29（4）：48-52.
[15]侯柏华，张润杰.基于CL IM EX的桔小实蝇在中国适生区的预测[J].生态学报，2005，25（7）：1569-1574.
[16]梁广勤.桔小实蝇特征的观察[J].植物检疫，1981，4：7-10.
[17]梁广勤.简述桔小实蝇及其四个近似种[J].中国进出境动植检，1997，3：10.
[18]鲁红学，牟本忠，阮华芳.柑桔产区3种实蝇成虫形态比较[J].植物保护，1998,24（2）：26-28.
[19]陈宏，李冠雄，古锦煌.三种Bactrocera属实蝇幼虫的形态特征[J].植物检验,1996,10（6）：355-358.
[20]李志红,龚鹏，陈洪俊，等.橘小实蝇分子生物学研究进展[J].植物检验,2002,16（3）：165-166.
[21]余洁，陈劲松，翁瑞泉，等.实蝇DNA提取方法的比较[J].农业生物技术学报,2004,12（6）：741-742.
[22]梁广勤，梁帆.桔小实蝇三龄幼虫染色体的组型[J].昆虫知识，1993，30（6）：356-357.
[23]梁广勤，杨国海，梁帆，等.利用染色体和同工酶技术鉴定寡鬃实蝇幼虫[J].植物检疫，1994，8（1）：4-9.
[24]吴佳教，胡学难，赵菊鹏，等.9种检疫性实蝇PCR-RFLP快速鉴定研究[J].植物检验，2005，19（1）：2-6.
[25]施伟，叶辉.云南桔小实蝇五个地理种群的遗传分化研究[J].昆虫学报，2004，47（3）：384-388.
[26]康芬芬，李志红.利用微卫星标记初步分析桔小实蝇4个地理种群的遗传多态性[J].昆虫知识，2006，43（3）：371-373.
[27]李伟丰,杨朗,唐侃,等.中国桔小实蝇种群的微卫星多态性分析[J].昆虫学报，2007，50（12）：1255-1262.
[28]姚廷山，胡军华，李鸿筠，等.桔小实蝇5个地理种群的SSR遗传多态性分析[J].中国农学通报，2010，26（8）：234-236.
[29]沈发荣，周又生，赵焕萍，等.柑桔小实蝇生物学特性及其防治研究[J].西北林学院学报，1997,12（1）：85-89.
[30]张清源，林振基，刘金耀，等.桔小实蝇生物学特性[J].华东昆虫学报，1998，7（2）：65-68.
[31]林进添，梁广文，曾玲，等.土壤含水量对桔小实蝇蛹期存活的影响[J].昆虫知识，2005，42（4）：416-418.
[32]肖枢，蒋小龙，张朝良，等.瑞丽桔小实蝇、瓜实蝇生物学特性的观察[J].植物检疫，2001，15（6）：332-336.
[33]陆晓莉，包月华，颜春妹.桔小实蝇发生与防控技术初探[J].上海农业科技，2009，1：117.
[34]杨玉梅，赵艳龙.青枣园桔小实蝇的发生与防治[J].中国热带农业，2005，5：48-49.
[35]王金姣，黄展新.三华李桔小实蝇发生规律及防治试验[J].广西园艺，2008，19（4）：36-37.
[36]和万忠，孙兵召，李翠菊，等.云南河口县桔小实蝇生物学特性及防治[J].昆虫知识，2002，39（1）：50-52.
[37]张振新，王玉芬，叶玲，等.桔小实蝇发生规律与分析[J].长江农业，2008，8：69-70.
[38]袁盛勇，孔琼，肖春，等.橘小实蝇化蛹深度和浸水对蛹期及羽化率的影响[J].山地农业生物学报，2004，23（6）：486-488.
[39]侯柏华，张润杰.桔小实蝇不同发育阶段过冷却点的测定[J].昆虫学报，2007，50（6）：638-643.
[40]任璐，陆永跃，曾玲.桔小实蝇自然种群蛹和越冬成虫的耐寒性[J].昆虫学报，2007，50（6）：588-596.
[41]袁盛勇，孔琼，肖春，等.桔小实蝇各虫态发育历期及有效积温研究[J].西南农业大学学报，2005，27（3）：316-318.
[42]林进添，曾玲，宾淑英，等.桔小实蝇自然种群生命表的组建与分析[J].华中农业大学学报，2005，24（2）：138-142.
[43]黄毓斌，高静华，郑允.台湾地区东方果实蝇之发生及其疫情监测[J].植物保护学会会刊，1997,39：125-136.
[44]林惠敏，陈艳，范青海.福州实蝇监测初报[J].华东昆虫学报，2005，15（4）：272-275.
[45]林振基，孙国坤，高泉准，等.厦门地区桔小实蝇疫情监测[J].华东昆虫学报，1998，7（2）：69-72.
[46]林进添，曾玲，陆永跃，等.高度和地点对性引诱剂诱集桔小实蝇雄虫效果的影响[J].植物保护，2005，31（2）：67-69.
[47]林进添,曾玲,梁广文,等.橘小实蝇卵和幼虫在番石榴上的空间格局[J].华中农业大学学报,2005,24（5）：451-454.
[48]于鑫，陆永跃，梁广文，等.桔小实蝇雄成虫空间分布的地理统计学分析[J].华南农业大学学报,2006,27（2）：28-31.
[49]梁帆,吴佳教,梁广勤.橘小实蝇飞行能力测定试验初报[J].江西农业大学学报，2001，23（2）：259-260.
[50]陈鹏，叶辉，母其爱.基于荧光标记的怒江流域桔小实蝇(Bactrocera dorsalis)的迁移扩散[J].生态学报，2007，27（6）：2468-2476.
[51]梁广勤，梁帆，吴佳教，等.拟输日本芒果蒸热杀虫处理试验研究[J].江西农业大学学报，1999，24（4）：533-535.
[52]蒋小龙，任丽卿,肖枢,等.橘小实蝇检疫处理技术研究[J].西南农业大学学报，2002，24（4）：303-306.
[53]赵菊鹏，胡学难，梁帆，等.桔小实蝇、木瓜实蝇辐照检疫除害处理试验研究[J].植物检疫，2010,24（6）：6-9.
[54]孙国坤，陈家福，张清源，等.桔小实蝇综合防治试验初报[J].华东昆虫学报，2000，9（1）：116-119.
[55]雷沈英，杜一新，李永青.柑橘小实蝇在浙江景宁县的发生规律及综合防控技术初探[J].植物检疫，2010，24(1).
[56] Linares F. Medfly program in Guatemala and Mexico: Current situation[C]. The internationalsymposium on the biology and control of fruit flies，Japan，1991，44-51
[57] Kakinohana H. The melon fly eradication program in Japan. Fruit flies and the sterile insecttechnique，CRC press，USA，1994，223-226.
[58] Staten RT et al. Genetic control of cotton insect：The pink bollworm as a working programme,IAEA2SM2327/28, Vienna，1993，269-284.
[59] Dyck, V A, S H Graham, K A Bloem.. Implementation of the sterile insect release programmeto eradicate the codling moth in British Columbia,Canada. IAEA2SM2327/29, Vienna,1993,285-298.
[60] Jose Luis，Zavala L. Fruit flies eradication program in Mexico[C]. The internationalsymposium on the biology and control of fruit flies, Japan,1991,32-43.
[61] Sutantawong M， Orankanok W, Enkerlin W R, et al. The sterile insect technique for controlof the oriental fruit fly, Bactrocera dorsalis (Hendel), in mango orchards in RatchaburiProvince, Thailand[C]. Proceedings of6thInternational Fruit Fly Symposium,6-10May2002,Stellenbosch, South Africa. Pp223-232.
[62] Klassen W. Overview of the Joint FAO/IAEA Division’s involvement in fruit fly sterileinsect technique program. Fruit flies and the sterile insect technique，CRC press, USA,1994,3-26.
[63]王华嵩，胡建国，路大光，等.利用辐射不育技术防治柑桔大实蝇的示范试验[J].中国生物防治，1995，11（4）：156-159.
[64]梁广勤,梁帆,吴佳教，等.橘小实蝇不育处理实验初报[J].江西农业大学学报,2003,25(6):904-905.
[65]梁广勤，梁帆，赵菊鹏，等.桔小实蝇不育技术及应用研究[J].广东农业科学，2008，5：60-63.
[66]林骁，沈鸣，季清娥.橘小实蝇白蛹品系的建立[J].福建农业科技，2007，3：47-48.
[67]季清娥,侯伟荣,陈家骅.橘小实蝇遗传性别品系的建立及雄性不育技术[J].昆虫学报,2007,50(10):1002-1008.
[68]季清娥,侯伟荣,陈家骅橘小实蝇雄性不育技术——雄蛹辐照最佳时期和剂量[J].核农学报,2007,21(5):53-52.
[69]季清娥,杜迎刚,侯伟荣,等.橘小实蝇雄性不育技术应用过程中混入雌虫活力的研究[J].核农学报,2008,22(1):97-10.
[70]赵菊鹏，田世尧，曾杨，等.几种杀虫剂对桔小实蝇成虫的毒力测定[J].植物检疫，2001，15（6）：342-342.
[71]曾杨，赵菊鹏，林志雄，等.几种杀虫剂对桔小实蝇老熟幼虫的毒力测定[J].植物检疫，2002，16（3）：148-149.
[72] Harris E J, Bautista R C. Fruit trap; a detection and collection tool for opine parasitoids (Hym.Braconidae) of the oriental fruit fly, Bactrocera dorsalis (Diptera: Tephritidae)[J].Entomophaga,1994,39(324):341-349.
[73] Palacio I. P., Ibrahim R., IBRAHIM A. G.. Identification of immatures and male adults of theopine parasitoids (Biosteres spp.) of the oriental fruit fly, Bactrocera dorsalis (Hendel)[J].Philipine Entomologist,1992,8(5):124-146.
[74] Ramadan M. M., Wong T. T. Y.. Biological observations on Tetrastichus giffardianus(Hymenoptera: Eulophidae), a gregarious endoparasitoid of the Mediterranean fruit fly andthe oriental fruit fly (Diptera: Tephritidae)[J]. Proceedings of the Hawaiian EntomologicalSociety,1990,30:59-62.
[75] Ramadan M. M., Wong T. T. Y., Mcinnis D. O.. Reproductive biology of Biosteres arisanus(Sonan) an egg-larval parasitoid of the Oriental fruit fly[J]. Biological Control,1994,4(2):93-100.
[76] Liquido N. J.. Effect of ripeness and location of papaya fruits on the parasitization rates oforiental fruit fly and melon fly (Diptera: Tephritidae) by braconid (Hymenoptera)parasitoids[J]. Environmental Entomology,1991,20(6):1732-1736.
[77] Bautista R. C., Harris E. J.. Effect of fruit substrates on parasitization of tephritid fruit fly(Diptera) by the parasitoid Biosteres arisanus (Hymenoptera: Braconidae)[J]. EnvironmentalEntomology,1991,20(6):1732-736.
[78]姚婕敏,谢翠红.广东橘小实蝇寄生蜂调查[J].环境昆虫学报，2008，30（4）：350-356.
[79]梁光红,武英,陈家骅.橘小实蝇及其寄生蜂消长规律[J].西南林学院学报,2006,26(6):73-78.
[80]吕增印,杨建全,黄居昌,等.影响布氏潜蝇茧蜂子代性比的因素[J].福建林学院学报,2008,28(3):225-228.
[81]吕增印,杨建全,陈家骅,等.温度对布氏潜蝇茧蜂寄生橘小实蝇幼虫的影响[J].福建农林大学学报(自然科学版),2008,34(4):337-340.
[82]黄居昌,吕增印,陈家骅,等.寄主龄期和温度对布氏潜蝇茧蜂和长尾潜蝇茧蜂种间竞争的影响[J].湖南农业大学学报(自然科学版),2008,34(4):467-468.
[83]梁光红,陈家骅,黄居昌,等.切割潜蝇茧蜂对橘小实蝇幼虫的功能反应研究[J].江西农业大学学报,2006,20(2):200-203．
[84]林玲,黄居昌,陈家骅,等.长尾潜蝇茧蜂对橘小实蝇幼虫的寄生效能[J].华东昆虫学报,2006,15(4):288-290.
[85]郭庆亮,黄居昌,季清娥,等.阿里山潜蝇茧蜂Fopius arisanus的发育起点温度和有效积温[J].华东昆虫学报，2007,16(1):41-43.
[86]郭庆亮,黄居昌,季清娥,等.阿里山潜蝇茧蜂对橘小实蝇卵的寄生效能[J].华东昆虫学报,2006,15(4):291-293.
[87]耿军灵，郑敏琳，杨建全，等.成蜂饲养密度和繁蜂益害比对阿里山潜蝇茧蜂子代的影响[J].福建农林大学学报，2009，38（4）：348-350.
[88]耿军灵，郑敏琳，杨建全，等.不同琼脂配比对阿里山潜蝇茧蜂寄生效果的影响[J].福建林学院学报，2009，29（2）：97-102.
[89]潘志萍，李敦松，黄少华.球孢白僵菌对桔小实蝇致病力的测定[J].华中农业大学学报，2006，25（5）：518-519.
[90]袁盛勇，孔琼，马艳粉，等.球孢白僵菌MZ041016菌株对桔小实蝇的毒力测定[J].华中农业大学学报，2010,29（2）:152-155.
[91]杜迎刚，陈家骅，季清娥.一种新型蛋白诱剂对橘小实蝇引诱作用[J].福建农林大学学报，2007，27（3）：259-262.
[92] Shelly T. E.. Consumption of Methyl Eugenol by male Bactrocera dorsalis (Diptera:Tephritidae): low incidence of repeat feeding [J]. Florida Entomologist,1994,77(2):201-208.
[93] Tobing M. C., Marheni, Mariati, et al. Pengaruh Metil Eugenol dalam Pengendalian LalatBuah(Bactrocera dorsalis) pada Pertanaman Jeruk [J]. Jurnal Natur Indonesia,2005,9(2):127-130.
[94] Shelly T. E., Resilva S., Reyes M., et al. Methyl Eugenol and mating competitiveness ofirradiated male Bactrocera Philippinensis (Diptera: Tephritidae)[J].1996,79(4):481-488.
[95] Nishida R., Shelly T. E., Kaneshiro K. Y.. Acquisition of female-attracting fragrance bymales of oriental fruit fly from a Hawaiian lei flower, Fagraea Berteriana[J]. Journal ofChemical Ecology,1997,23(10):2275-2285.
[96] Shelly T. E., James E.. Do Methyl Eugenol-fed males of The oriental fruit fly (Diptera:Tephritidae) induce female re-mating [J]. Florida Entomologist,2008,91(3):388-393.
[97] Shelly T. E., James E.. Exposure to the ripe fruit of Tropical almond enhances the matingsuccess of male Bactrocera Dorsalis (Diptera: Tephritidae)[J]. Florida Entomologist,2007,90(4):757-758.
[98] Loren F. Steiner. Fruit fly control in Hawaii with poison-bait sprays containing proteinhydrolysates [J]. Journal of Economic Entomology,1952,45(5):838-843.
[99] Chinajariyawong A., Kritsaneepaiboon S., Drew R. A.. Efficacy of protein bait sprays incontrolling fruit flies(Diptera: Tephritidae) infesting angled luffa and bitter gourd in Thailand[J]. The Raffles Bulletin of Zoology,2003,51(1):7-15.
[100] Stark J. D., Vargas R. I., Miller N. W.. Toxicity of Spinosad in protein bait to threeeconomically important Tephritid fruit fly species (Diptera: Tephritidae) and their parasitoids(Hymenoptera: Braconidae)[J]. Journal of Economic Entomology,2004,97(3):911-915.
[101] Miller N. W., Vargas R. I., Prokopy R. J., et al. State-dependent attractiveness of proteinbait and host fruit odor to Bactrocera cucurbitae(Diptera: Tephritidae) females[J].2004,97(5):1063-1068.
[102] Heath R. R., Vazquez A., Schnell E. Q., et al. Dynamics of pH modification of an acidicprotein bait used for Tropical fruit flies (Diptera: Tephritidae)[J]. Journal of EconomicEntomology,2009,102(6):2371-2376.
[103]王波，黄居昌，季清娥，等.酶解啤酒废酵母生产橘小实蝇蛋白饵剂的研究[J].江西农业大学学报,2010,32(2):299-302.
[104]王波，季清娥，杨建全，等.橘小实蝇蛋白饵剂的生物测定[J].云南农业大学学报：自然科学版，2010,25(4):483-486.
[105]王荫长.2004.昆虫生理学——农业昆虫与害虫防治专业用.北京：中国农业出版社.
[106] Belanger J.M., Son J.H., Laugero K. D., et al. Effects of short-term management stress andACTH injections on plasma cortisol levels in cultured white sturgeon, Acipensertransmontanus[J]. Aquaculture,2001,203:165-176.
[107] Napole o T.H., Pontual E.V., Lima A. T, et al. Effect of Myracrodruon urundeuva leaf lectinon survival and digestive enzymes of Aedes aegypti larvae [J].Parasitology research,2012,110(2):609-616.
[108] Budatha M., Meur G., Dutta-Gupta A.. Identification and characterization of midgutproteases in Achaea janata and their implications [J]. Biotechnology letters,2008,30(2):305-310.
[109] Gatehouse H.S., Christeller J.T., Burgess E.P., et al. In vivo Responses of honey bee midgutproteases to two protease inhibitors from potato [J]. Journal of Insect Physiology,1998,44(2):141-147.
[110] Eguchi M., Iwamoto A. Alkaline proteases in the midgut tissue and digestive fluid of thesilkworm, Bombyx mori [J]. Insect Biochemistry,1976,6(5):491-496.
[111] Fortier M., Vachon V., Schwartz J., et al.Effect of insect larval midgut proteases on theactivity of Bacillus thuringiensis Cry Toxins [J]. Applied and Environmental Microbiology,2007,73(19):6208-6213.
[112] Mohan M, Gujar GT. Characterization and comparison of midgut protease of Bacillusthuringiensis susceptible and resistant diamondback moth (Plutellidea: Lepidoptera)[J].Journal of Invertebrate Pathology,2003,82(1):1-11.
[113] Oppert B., Kramer K. J., Johnson D.E., et al. Altered protoxin activation by midgut enzymesfrom a Bacillus thuringiensis resistant strain of Plodia interpunctella [J]. BiochemicalBiophysical Research Communicaitons.1994,198(3):940-947.
[114] Miranda R., Zamudio F.Z., Bravo A.. Processing of Cry1Ab delta-endotoxin from Bacillusthuringiensis by Manduca sexta and Spodoptera frugiperda midgut proteases: role inprotoxin activation and toxin inactivation [J]. Insect Biochemical and Molecular Biology,2001,31(12):1155-1163.
[115] Ballester V., Granero F., Tabashnik B. E., et al. Integrative model for binding of Bacillusthuringiensis toxins in susceptible and resistant larvae of the diamondback moth (Plutellaxylostella)[J]. Applied Environmental Microbiology,1999,65(4):1413-1419.
[116] Mohan M., Gujar G.T.. Characterization and comparison of midgut proteases of Bacillusthuringiensis susceptible and resistant diamondback moth (Plutellidae: Lepidoptera)[J].Journal of Invertebrate Pathology,2003,82(1):1-11.
[117] Kodrík D., Vinokurov K., Tom ala A., et al. The effect of adipokinetic hormone on midgutcharacteristics in Pyrrhocoris apterus L.(Heteroptera)[J]. Journal of Insect Physiology,2012,58(1):194-204.
[118] Markwick N.P., Poulton J., McGhie T.K., et al. The effects of the broad-specificity lipaseinhibitor, tetrahydrolipstatin, on the growth, development and survival of the larvae ofEpiphyas postvittana (Walker)(Tortricidae, Lepidoptera)[J]. Journal of Insect Physiology,2011,57(12):1643-1650.
[119] Pasquevich M.Y., Dreon M.S., Lavarías S., et al. Triacylglycerol catabolism in the prawnMacrobrachium borellii (Crustacea: Palaemoniade)[J].Comparative Biochemistry andPhysiology B Biochemistry and Molecular Biology,2011,160(4):201-207.
[120] Christeller J.T., Amara S., Carrière F.. Galactolipase, phospholipase and triacylglycerollipase activities in the midgut of six species of lepidopteran larvae feeding on different lipiddiets [J]. Journal of Insect Physiology,2011,57(9):1232-1239.
[121] Markwick N.P., Poulton J., McGhie T.K., Wohlers M.W., Christeller J.T.. The effects of thebroad-specificity lipase inhibitor, tetrahydrolipstatin, on the growth, development andsurvival of the larvae of Epiphyas postvittana (Walker)(Tortricidae, Lepidoptera)[J].Journal of Insect Physiology.2011,57(12):1643-1650.
[122] Christeller J.T., Poulton J., Markwick N.M.,et al. The effect of diet on the expression oflipase genes in the midgut of the lightbrown apple moth (Epiphyas postvittana Walker;Tortricidae). Insect Molecular Biology,2010,19(1):9-25.
[123] Bulushova N.V., Zhuzhikov D.P., Lyutikova L.I., et al. Toxin-binding proteins isolated fromyellow mealworm Tenebrio molitor and wax moth Galleria mellonella [J]. Biochemistry(Mosc).2011,76(2):202-208.
[124] Soares-Costa A., Dias A.B., Dellamano M., et al. Digestive physiology and characterizationof digestive cathepsin L-like proteinase from the sugarcane weevil Sphenophorus levis [J].Journal of Insect Physiology,2011,57(4):462-468.
[125] Mehrabadi M., Bandani A.R., Saadati F.. Inhibition of Sunn pest, Eurygaster integriceps,α-amylases by α-amylase inhibitors (T-αAI) from Triticale. Journal of Insect Science,2010,10(179):1-13.
[126] Bifano T.D., Samuels R.I., Alexandre D., et al. Host-mediated induction of alpha-amylasesby larvae of the Mexican bean weevil Zabrotes subfasciatus (Coleoptera: Chrysomelidae:Bruchinae) is irreversible and observed from the initiation of the feeding period [J].Archives of Insect Biochemistry and Physiology,2010,74(4):247-260.
[127] Yezdani E., Sendi J.J., Zibaee A.,et al. Enzymatic properties of alpha-amylase in the midgutand the salivary glands of mulberry moth, Glyphodes pyloalis Walker (Lepidoptera:Pyralidae)[J]. Comptes Rendus Biologies,2010,333(1):17-22.
[128]贾源，季伟华，谢醒民.家蝇显微解剖方法的研究[J].中国人兽共患病杂志，2004，20（12）：1101-1103.
[129]汪慧芳，王雅琴，刘春国．3种脂肪酶活力测定方法的比较及改进[J]．化学与生物工程，2007，24(8)：72-75．
[130]王健敏，陈晓鸣，冯颖，等．两种蛀干昆虫消化酶组成和活性比较[J]．林业科学研究，2007，20(2)：170-175.
[131]余冰宾．生物化学实验指导[M]．北京：清华大学出版社。2004：133-135.
[132]刘震，鲍先巡，尤征英，等.家蚕对BmNPV抗病性与中肠消化酶活性的关系[J].安徽农业大学学报，2009,36（3）：489-492.
[133] Bandani A. R., Maleki F., Rahmani S., et al. Characterization of a-Amylase in the alimentarycanal of Naranga aenescens Moore (Lepidoptera: Noctuidae), the rice green caterpillar [J].Munis. Entomology&Zoology,2010,5(2):716-725.
[134] Chun-Nu Hung, Tai-Lung Lin, et al. Morphology and Ultrastructure of the Alimentary Canalof Oriental Fruit Fly Bactrocera dorsalis (Hendel)(Diptera: Tephritidae)(2): The Structureof the Midgut [J].Zoological Studies,2000,39(4):387-394.
[135] Modarres R., Ouarda T.B., Vanasse A.,et al. Modeling seasonal variation of hip fracture inMontreal, Canada [J]. BONE,2012,50(4):909-916.
[136] Aldeyab M.A., Harbarth S., Vernaz N., et al. The impact of antibiotic use on the incidenceand resistance pattern of ESBL-producing bacteria in primary and secondary healthcaresettings [J]. British Journal of Clinical Pharmacology,2011,72(6):1365-2125.
[137]周建中，罗志义。柑桔全爪螨自然种群动态的模拟模型[J].生态学报，1992，12（4）：348-355.
[138]张德昌，齐孟文。小麦蚜虫种群动态随时间序列变化的趋势分析[J].昆虫知识，1995，32（4）：204-207.
[139]任广伟，秦焕菊。山东烟区烟蚜种群在时间序列上的变化趋势[J].植物保护，2000,26（2）：8-11.
[140]马飞，丁宗泽。褐飞虱发生的一维时间序列相空间重构及混沌吸引子维数的确定[J].生态学报，2001,21（9）：1542-1548.
[141]宫锡鸿，王荣花。时间序列优选法在棉铃虫发生趋势超长期预测中的应用[J].数理统计与管理，1997,16（5）：10-13.
[142] Vargas R. I., Prokopy R..attraction and feeding responses of melon flies and oriental fruitflies (Diptera: Tephritidae) to various protein baits with and without toxicants [J].
[143] Chinajariyawong, A., Kritsaneepaiboon, S., Drew, R. A. I.. Efficacy of protein bait sprays incontrolling fruit flies (Diptera: Tephritidae) infesting angled luffa and bitter gourd inThailand[J]. Raffles Bulletin of Zoology,2003,51(1):7-15.
[144] Fabre, F., Ryckewaert, P., Duyck, P. F., et al. Comparison of the efficacy of different foodattractants and their concentration for melon fly (Diptera: Tephritidae)[J]. Journal ofEconomic Entomology,2003,96(1):231-238.
[145] Barry, J. D., Miller, N. W., Pinero, J. C., et al. Effectiveness of protein baits on melon flyand oriental fruit fly (Diptera: Tephritidae): Attraction and feeding [J]. Journal of EconomicEntomology,2006,99(4):1161-1167.
[146] Vargas, Roger I., Prokopy, Ronald. Attraction and Feeding Responses of Melon Flies andOriental Fruit Flies (Diptera: Tephritidae) to Various Protein Baits with and withoutToxicants [J]. Proceedings of the Hawaiian Entomological Society,2006,38:49-60.
[147] Steiner, L. F., Hart, W. G., Harris, E. J., et al. Eradication of the oriental fruit fly from themariana Islands by the methods of Male Annihilation and Sterile Insect Release [J]. Journalof Economic Entomology,1970,63(1):131-135.
[148] Vargas, R. I., Walsh, W. A., Hsu, C. L., et al. Effects of sterile Mediterranean fruit fly(Diptera: Tephritidae) releases on the target species, a nontarget tephritid, and a braconidparasitoid (Hymenoptera: Braconidae) in commercial coffee fields [J]. Journal of EconomicEntomology,1994,87(3):653-660.
[149] Vargas, R. I., Whitehand, L., Walsh, W. A., et al. Aerial releases of sterile Mediterraneanfruit fly (Diptera: Tephritidae) by helicopter: dispersal, recovery, and populationsuppression[J]. Journal of Economic Entomology,1995,88(5):1279-1287.
[150] McInnis, D. O., Rendon, P., Komatsu, J. Mating and remating of medflies (Diptera:Tephritidae) in Guatemala: Individual fly marking in field cages[J]. Florida Entomologist,2002,85(1):126-137.
[151] McInnis, D. O., Tam, S., Lim, R., et al. Development of a pupal color-based genetic sexingstrain of the melon fly, Bactrocera cucurbitae (Coquillett)(Diptera: Tephritidae)[J]. Annalsof the Entomological Society of America,2004,97(5):1026-1033.
[152] Rendon, P., McInnis, D., Lance, D., et al. Medfly (Diptera: Tephritidae) genetic sexing:Large-scale field comparison of males-only and bisexual sterile fly releases in Guatemala[J].Journal of Economic Entomology,2004,97(5):1547-1553.
[153] Vargas, Roger I., Leblanc, Luc, Putoa, Rudolf, et al. Impact of introduction of Bactroceradorsalis (Diptera: Tephritidae) and classical biological control releases of Fopius arisanus(Hymenoptera: Braconidae) on economically important fruit flies in French Polynesia [J].Journal of Economic Entomology,2007,100(3):670-679.
[154] Stark, J. D., Wong, T. T. Y., Vargas, R. I., et al. Survival, longevity, and reproduction oftephritid fruit fly parasitoids (Hymenoptera: Braconidae) reared from fruit flies exposed toazadirachtin[J]. Journal of Economic Entomology,1992,85(4):1125-1129.
[155] Vargas, R. I., Stark, J. D., Uchida, G. K., et al. Opiine parasitoids (Hymenoptera: Braconidae)of oriental fruit fly (Diptera: Tephritidae) on Kauai Island, Hawaii: islandwide relativeabundance and parasitism rates in wild and orchard guava habitats [J]. Biological Control,1993,22(1):246-253.
[156] Bautista, R. C., Harris, E. J., Vargas, R. I., et al. Parasitization of melon fly (Diptera:Tephritidae) by Fopius arisanus and Psyttalia fletcheri (Hymenoptera: Braconidae) and theeffect of fruit substrates on host preference by parasitoids[J]. Biological Control,2004,30:156-164.
[157] Vargas, R. I., Long, J., Miller, N. W., et al. Releases of Psyttalia fletcheri (Hymenoptera:Braconidae) and sterile flies to suppress melon fly (Diptera: Tephritidae) in Hawaii [J].Journal of Economic Entomology,2004,97(5):1531-1539.
[158] Liquido, N. J.. Effect of Ripeness and Location of Papaya Fruits on the Parasitization Ratesof Oriental Fruit-Fly and Melon Fly (Diptera, Tephritidae) by Braconid (Hymenoptera)Parasitoids [J]. Environmental Entomology,1991,20(6):1732-1736.
[159] Liquido, N. J.. Reduction of Oriental Fruit-Fly (Diptera, Tephritidae) Populations in PapayaOrchards by Field Sanitation [J]. Journal of Agricultural Entomology,1993,10(3):163-170.