溫度對異角釉小蜂 (膜翅目:釉小蜂科) 族群增長與致死寄主能力之影響
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(2) (Burgess)) ă ൫ ࡵ ሕ ᙀ (L. bryoniae. ཻ̝̈ᖪᄃᓄത͞ڱĂт Chien and Ku. (Kaltenbach)) ă ቸ ሕ ᙀ (L. sativae. (2001a, b) ٙĄӈͽѣௐˬ᛬߷ܧළሕ. (Blanchard)) ă ࡿ ሕ ᙀ (L. pusilla. ᙀρᖪሕࢴ̝ឫ೧֑ࡺĂᓄതள֎࿏ཻ̈Ą. Meigen) ̈́ ֑ ఏ ሕ ᙀ. (Ophiomyia. phaseoli (Tryon)) (Kerrich, 1968; Boucek,. ΠȃசҡြசҡमԫசкᇄॵڥमԫசкϞୢ. 1988; Del, 1989; Lee, 1990; Lin and. Ϸ. Wang, 1992)Ąдᄂ៉̚ొ߷ܧළ̰Ăྍཻ. ώྏរ̚ડ̶ρᖪజள֎࿏ཻ̈. ࠎ߷ܧළሕᙀ̝ώгᐹ๕Ϡཻ (Chien. Ϡٕ̝ޢࢴפѪᇈېĂֶܼ Chien and Ku. and Ku, 1998)ĄϠ͞ёᛳρᖪಏࣶγϠ. (2001b) ٙĂజϠ۰Ӕஎޘ౫༑ېăវเ. (solitary ectoparasitism) (Lin and Wang,. Ғăវቲᗫă֗វٛܜăវ႕ăঐ̼გ̰. 1992; Chien and Ku, 2001a, b)ĄѪ. ຳქҒ̝̰टۏćజࢴפ۰Ѫ˸ăវเነ. ͞ёѣϠᄃࢴפĂ۰ּ̝ͧ되. Ғăγԛҩܜăវͷᒺăঐ̼გ̰̪ണѣ. ཻޘᙯĂ༊ᅬཻᇴᄃᇴࠎ 10Ƃ30 . ຳქҒ̝̰टۏă๋˾ѣஃ̝វ୵Ą. ᄃ 300 ॡĂ۰ּ̝ͧࠎ 0.6Ƃ0.8:1 (Chien and Ku, 2002)ĄᅬཻயӉᄃࢴפॡĂӮ. έȃྣ࡙ᄇ႐ωြีىϞኇ. ઐр߷ܧළሕᙀௐˬ᛬ρᖪ (Chien and. Ӏϡд 25ƨ˭Ăᅬཻ 2 ̈ॡᄃ 24 ̈ॡ̰. Ku, 2001a)Ą ٺ25ƨ˭Ăᅬཻ˘ϠѪ. ٙய˭̝Т᛬ཻӉĂซҖ̱̙Тޘ၆ள֎. ᇴ྿ 497 ĂρᖪజயӉٕޢࢴפĂЧ. ࿏ཻ̈൴ֈ̝ᇆᜩĄࢵАણ Chien and Ku. ٺ4 ٕ 0 ̶ᛗ̰ӈ̙Г߿જă( ࢴפChien and. (2001a) ̝͞ڱĂͽѣௐˬ᛬ρᖪሕࢴ. Ku, 2001b)Ąள֎࿏ཻ̈ᄃ࠹̝ޘᙯྤफ़. ̝ឫ೧֑ࡺĂֻᅬཻயӉ 2 ̈ॡٕ 24 ̈ॡĂ. ѣ ࢨ Ă ༊ ྍ ཻ Ϡ ( ֑ ٺpole bean,. ޢѩѣ 25Ƃ42 Т᛬ཻӉ̝ឫ೧. Phaseolus vulgaris L.) ˯߷ܧළሕᙀॡĂ. ֑ࡺĂЧٸˢ 10ă15ă20ă25ă30 ̈́ 35. ˘൴ֈഇд 20ă25ă30 ̈́ 35ƨ˭Чࠎ. ƨ̝ؠቐ̰ĄᅬཻயӉ 2 ̈ॡ̝நĂՏ. 16.5ă11.5ă8.5 ̈́ 6.5 ͟ (Vercambre and. ͟៍၅ޘ၆ྍཻЧᖪഇ̝х߿தᄃ൴ֈ͟. Thiery, 1983)Ąࠎஎˢᒢྋޘ၆ள֎࿏ཻ̈. ᇴ̝ᇆᜩĂ֭дܕЧᖪഇٕ᛬ഇེϩ̝ᅫĂՏ. ̝൴ֈă᛬ҾϠܑăѪਕ˧̈́ုඈ. ̈ॡᐂྍཻ̝൴ֈଐԛĄᅬཻயӉ 24 ̈ॡ. ̝ᇆᜩĂ˜ซҖώྏរĂጔਕ೩ֻྍཻᓄതԫ. ̝நĂ៍၅д̙Тޘந˭â. ఙᄃᑕϡ̝ણ҂Ą. ̝൴ֈ͟ᇴᄃх߿தĄ̚х߿தྏរՏந ៍၅ 25Ƃ35 ӉĂЧઇ 3Ƃ5 ࢦኑĂ൴ֈഇྏ. ਟᇄПݲ. រЧ៍၅ 17Ƃ42 ̙ඈĄֶ֭ Campbell et al. (1974) ̝͞ڱĂҤზྍཻ̝൴ֈᓜࠧҲ. Ιȃசкේސȃசк݀ᙫЅசҡြϞႷى. ᄃ൴ֈѣड़᎕Ą. ώྏរٙϡ̝߷ܧළሕᙀᖪăങ ( ֑ۏPhaseolus vulgaris var. communis. Ѳȃۡྣᄇ႐ωြमԫசкΨᇄυфርܒШ. Aeschers) ࡺ̈́߷ܧළሕᙀ̝ᓄത͞. Ϟኇ. ڱĂт Chien and Ku (1996) ٙĄள֎࿏. дؠ˭ീྏޘ၆ள֎࿏ཻ̈Ѫ. 92. έ៉ٿᖪௐ˟˩αסௐ˟ഇ.
(3) ਕ˧ᄃ̄ᅬّ̝ͧᇆᜩĂܼڱ͞ӀϡՄ. increase, λ)ăஐᆧതத (net reproductive. फ़ᄃ͞ڱௐˬี̚ள֎࿏ཻ̈Ӊд 15ă20ă. rate, Ro)̈́πӮ͵ॡม (mean generation. 25ă30 ̈́ 35ƨ̣̙Тؠ˭൴ֈăϒ૱Ҁ. time, T) ඈĄՏநЧซҖ 5Ƃ12 ࢦኑĄ. ̼̝ௐ˘͟᛬јཻĂЧ פ1 ၆͔ˢ 21 x 12 cm ̝ࠟሬඌĂޢГٸˢЧࣧѣ̣̙Тޘ. Μȃྣ࡙ᇄॵސᄇԙြჰڼϞኇ. ந̝ؠቐ̰ĄՏ͟ѝ˯ 7 ᕇĂЧநੵͽ. ྏរ̶͞ёซҖĂӈдٕѣ. ͨඊϏංᛖཻᄘࠟٺሬඌ̰ጨγĂֻإᑕ. ֻᑕ˭Ăീྏдࢴۏхдᄃӎ˭ޘ၆јཻ. 1 ঀ̰ѣ 40Ƃ50 ௐˬ᛬ρᖪሕࢴ̝ឫ. ု̝ᇆᜩĄந̝ྏរ͞ڱĂܼА. ೧֑ࡺĂۡҌᅬཻѪ˸ࠎͤĄྏរഇมĂՏ. ٺ25ƨ˭ܐҀ̼̝ 10 ၆јཻ͔ˢ 7 x 1.5. ͟ЧநٙՀೱ˭̰ѣజϠ̝֑. cm ̝ԛგĂޢдֻᑕ˭ĂՏ͟ͽ. ࡺொҌ 25ƨ˭ֈۡҌ̄јཻҀ̼γĂϺ. ͨඊ൪ࠟٺሬგ̰ጨ̝͞ёĂ̶ҾϏං. ֶ Chien and Ku (2001a) ̝͞ڱĂٺତཻޢ. ᛖཻ̝ᄘăͪᔼࢴ̝ĂΩన˘̙ᔼࢴЇңࢴۏ. ѨĂАӀϡЍࢍڱᇴᅬཻ၆ρᖪ̝. ̝၆Ą̚ᔼࢴཻᄘ̝நĂܼ̰ѣ. Ѫᓁᇴ (ϠѪᇴᄃࢴפѪᇴ)Ă6 ͟ޢĂ. јཻ̝ԛგЧٸˢ 15ă20ă25ă30 ̈́ 35. Г̶Ҿᐂᅬཻ၆ρᖪ̝Ϡᇴ (Ϡཻ. ƨඈ̙Тؠ̝ޘቐĂ҃ᔼࢴͪăٕ̙ᔼࢴ. ུᇴ) ᄃࢴפᇴ (ѪᓁᇴůϠཻ. Їңࢴ̝ۏ၆Ă̰ѣјཻ̝ԛგٸ. ུᇴ)ćޞϠཻҀ̼ޢГᐂᅬཻᄃฯཻᇴ̈́. ˢ 25ƨؠቐĂՏ͟៍၅јཻ̝ုĂЧઇ 5. ᅬّͧ (♀/(♀+♂))ĄՏநЧซҖ 5Ƃ12 ࢦ. ࢦኑĄ҃ѣֻᑕந̝ྏរ͞ڱĂܼ. ኑĄ. ӀϡՄफ़ᄃ͞ڱௐαีྏរ̝ඕڍĂӈјཻд 15ă20ă25ă30 ̈́ 35ƨඈ̙Т˭ޘĂՏ͟. Ϥȃଽྣᄇ 36ʨήᖅϞ႐ωြमԫசкΨ ᇄυфርܒШϞኇ!. ֻᑕͷᔼࢴϏංᛖཻ̝ᄘॡĂീྏޘ၆ ̝ုᇆᜩĄЧซҖ 5Ƃ12 ࢦኑĄ. д 25ƨ˭ᓄത̝ௐ˘͟᛬ј̶ཻҾொ Ҍ 30 ᄃ 35ƨ˭Ăޢീྏ၆ள֎࿏ཻ̈. ΤȃಛॎϷݙ. Ѫਕ˧ᄃ̄ᅬّ̝ͧᇆᜩĂมֻྏ. Чีྏរྤफ़ੵӀϡ SPSS (Statistical. ᄃᑭෛྏរඕڱ̝͞ڍᄃ͛̚Մफ़ᄃ͞. Products and Services Solutions) హវАซ. ڱௐαี࠹ТĄՏநЧซҖ 5Ƃ10 ࢦኑĄ. Җត̶͞ژĂГͽ̈ពम (LSD) ڱᑭ ീĂ֭ଳ 5% ពͪͧྵநม̝मளّ. ϲȃ႐ωြϞឭտҡߒڼ ӀϡՄफ़ᄃ͞ڱௐˬีᄃௐαีྏរĂ. γĂإӀϡਫ਼ᕩ̶ڱژពϯϠཻ̝Чീྏี. Ч̝ 24 ̈ॡ̰Т᛬ཻӉд̙Тޘந̚. ăᅬཻѪᓁᇴăᅬཻϠѪᓁ. ̝˘൴ֈഇᄃх߿தྤफ़Ă̈́ᅬཻЧ͟᛬ᓄ. ᇴăᅬཻࢴפѪᓁᇴăᅬཻϠѪ. ത ̝ ̄ ཻ ᇴ ᄃ ᅬ ّ ͧ ඈ ྤ फ़ Ă ˢ Birch. ᇴᄃࢴפѪᇴ̝ͧࣃ̈́ᅬّͧඈᄃ. (1948) ̝̳ёĂͽҤზྍཻдЧ̙Тؠ˭. ( ޘx) ̝ᙯܼĄ༊ y^ = b0 + b1x + b2x2 ॡĂ. ̝ཏ̬ณĂт̰дᆧതத (intrinsic rate of. y^ ̂ࣃ̝ՐڱĂܼ༊ x = -b1/2b2 ॡˢ݈. increase, r) Ă ໂ ᆧ ത த (finite rate of. ี̳ёӈΞ. ϫ (y^ )ĂтЧᖪഇ൴ֈిதăᅬཻᄃฯཻ̝ု. (Neter and Wasserman,. ޘ၆ள֎࿏ཻ̈ཏᆧܜᄃѪਕ˧̝ᇆᜩ. 93.
(4) 1974)Ą. ШϞኇ ྏរඕڍϤဦ˘ᄃܑαۢĂд 15Ƃ35. ๖! ! ݎ. ƨؠăՏֻ͟ᑕ 40Ƃ50 ௐˬ᛬ρᖪ ॡĂள֎࿏ཻ̈˘ϠѪᓁᇴᄃޘӔ˟ Ѩ ਫ਼ ᕩ ᙯ ܼ (y^ = −3.2425x2 + 164.54x −. Ιȃྣ࡙ᄇ႐ωြีىϞኇ д 10Ƃ35ƨؠ˭Ă10ƨॡள֎࿏ཻ̈. 1715.7, R2 = 0.5141)Ăтд 15ă20ă25ă30. Ӊ̝ြ̼தࠎ 0%ć15Ƃ35ƨॡӉ൴ֈҌјᖪ. ̈́ 35ƨॡĂྍཻ˘ϠѪᓁᇴ̝၁ീࣃ. ̝х߿த྿ 90.9Ƃ96.3% (ܑ˘)ĄӉăρ. Чࠎ 39ă154ă497ă160 ̈́ 40 Ă̂Ҥ. ᖪăུ݈ăུ̈́ӉҌјᖪඈᖪഇ̝൴ֈ͟ᇴӮ. ീࣃࠎ 25.4ƨॡ̝ 372 ĄมྍཻϠѪ. ᐌ̝҃̿ޘᒺൺ (ܑ˟)Ąள֎࿏ཻ̈ЧϠ. ᇴٕࢴפѪᇴᄃޘӮӔ˟Ѩਫ਼. ܜഇ̝൴ֈిதᐌ൴ֈዋቑಛ̰̝ޘ. ᕩᙯܼ (݈۰ࠎ y^ = − 1.5224x2 + 75.749x −. ̿҃ᆧԣĂ۰มӔۡቢਫ਼ᕩᙯܼ (ܑˬ)Ą. 792.03, R2 = 0.5791ćޢ۰ࠎ y^ = − 2.0952x2 +. Ӊăρᖪăུ݈ăུ̈́ӉҌјᖪඈᖪഇ̝൴ֈ. 104.27x − 1072, R2 = 0.6208)Ăтд 15ă. ᓜࠧҲЧࠎ 11.61ă12.67ă11.64ă11.56. 20ă25ă30 ̈́ 35ƨॡĂϠѪᇴ̝. ̈́ 11.97℃ć൴ֈѣड़᎕Чࠎ 16ă46ă9ă. ၁ീࣃЧࠎ 9ă56ă210ă57 ̈́ 10 Ă̂. 81 ̈́ 152 ͟)ˬܑ( ޘĄ. Ҥീࣃࠎ 24.9ƨॡ̝ 150 ćࢴפѪᇴ ̝၁ീࣃЧࠎ 30ă99ă287ă103 ̈́ 30 Ă. Πȃྣ࡙ᄇ႐ωြमԫசкΨᇄڏυфርܒ. ̂Ҥീࣃࠎ 24.9ƨॡ̝ 225 Ąᅬཻ˘Ϡ. ߒΙ! Ϛӣۡྣήُ႐ωြҐԙዣϞԆࣀ Table 1.! Rate of survival of immature stages of Hemiptarsenus varicornis at various constant temperatures Temp. (ƨ). Egg 10 0 15 98.9 ± 1.1 20 97.3 ± 1.4 25 100 30 100 35 95.9 ± 0.5 With 25-35 eggs per treatment,. 1). Percent survival ( x ± SE)1) Pupa Larva Prepupa 100 100 91.9 ± 4.2 98.6 ± 1.4 100 100 100 100 96.0 ± 0.5 99.1 ± 0.9 100 97.1 ± 1.1 100 100 100 three-five replicates.. Egg-adult 0 90.9 ± 5.0 95.9 ± 2.3 96.0 ± 0.5 96.3 ± 2.3 95.9 ± 0.5. ߒΠ! Ϛӣۡྣήُ႐ωြҐԙዣϞีىРኵ Table 2.! Duration days of immature stages of Hemiptarsenus varicornis at various constant temperatures Temp. Ğƨğ 15 20 25 30 35. 94. n 33 20 42 39 21. Egg x ± SE 4.6 ± 0.1 2.1 ± 0.0 1.1 ± 0.0 0.8 ± 0.0 0.7 ± 0.0. έ៉ٿᖪௐ˟˩αסௐ˟ഇ. n 31 20 40 39 21. Larva x ± SE 15.2 ± 0.3 6.9 ± 0.1 4.1 ± 0.1 2.4 ± 0.0 2.1 ± 0.0. n 31 17 37 39 20. Prepupa x ± SE 2.5 ± 0.3 1.1 ± 0.2 0.7 ± 0.0 0.4 ± 0.1 0.4 ± 0.0. n 30 17 37 39 20. Pupa x ± SE 32.7 ± 0.6 10.5 ± 0.2 5.2 ± 0.1 4.1 ± 0.0 3.8 ± 0.1. n 30 17 37 36 20. Egg-adult x ± SE 54.0 ± 0.3 20.6 ± 0.2 11.1 ± 0.1 7.7 ± 0.1 7.0 ± 0.1.
(5) ߒέ! ُ႐ωြҐԙዣϞีىᖝࣨճྣᇄีىԤਝᑖྣ Table 3.! Lower developmental thresholds (ʨ) and degree-day requirements (ʨ-days) for immature stages of Hemiptarsenus varicornis Stage. Linear regression. a b R2 Egg - 0.739 0.0638 0.9856 Larva - 0.28 0.022 0.9727 Prepupa - 1.347 0.1158 0.9439 Pupa - 0.136 0.012 0.9544 Egg to Adult - 0.074 0.0064 0.9734 1) Estimated according to Campbell et al. (1974).. Low developmental threshold1) ( x ± SE). Degree-days1) ( x ± SE). ± ± ± ± ±. 16 ± 1 46 ± 4 9±1 81 ± 10 152 ± 13. 11.61 12.67 11.64 11.56 11.97. 0.52 0.62 1.63 0.92 0.61. ϠѪᇴᄃࢴפѪᇴּ̝ͧᄃ. ᓁᇴăٕࢴפѪᇴมѣពमளĂᄃ. ޘϺ Ӕ ˟ Ѩ ਫ਼ ᕩ ᙯ ܼ (y= − 0.004x +. 15ă20ă30 ̈́ 35ƨؠ˭ᅬཻϠѪ. 0.1989x − 1.7514, R = 0.4873)Ăтд 15 ᄃ. ᇴมѣពमளĂ̈́ᄃ 15 ٕ 35℃ؠ˭ᅬཻ. 35ƨٕ 20Ƃ30ƨॡĂ၁ീּͧЧࠎ 0.3:1. ˘ϠϠѪᇴᄃࢴפѪᇴ̝ͧ. ٕ 0.6Ƃ0.7:1Ă̂Ҥീࣃࠎ 24.9℃ॡ̝. ּăٕ̄ᅬّͧมӮѣពमள (ܑα)Ą. ^. 2. 2. 0.72:1Ą̄ᅬّͧᄃޘӔ˟Ѩਫ਼ᕩᙯܼ (y^ = −0.0053x2 + 0.2527x − 2.2995, R2 =. Ѳȃྣ࡙ᄇ႐ωြРசҡԒᇄРॵڥԒϞ. 0.7937)Ăтд 15ă20Ƃ30 ̈́ 35ƨॡĂྍཻ. ኇ. ၁ീ̝̄ᅬّͧЧࠎ 0.44ă0.62Ƃ0.64 ̈́. Ϥဦ˟ٙϯள֎࿏ཻ̈͟Ϡݭё̚Ă. 0Ă̂Ҥീࣃࠎ 23.8ƨॡ̝ 0.71Ą. ۢд̙Тཻྍ˭ޘҀ̼༊ٕ͟Ѩ͟ӈΞய ӉĂពϯྍཻځព۞யӉ݈ഇćҭྍཻ̝ய. έȃଽྣᄇ 36ʨήᖅϞ႐ωြमԫசкΨ ᇄυфርܒШϞኇ!. ӉޢഇݒᄃޘѣᙯĂтд 15 ᄃ 20Ƃ35℃ؠ ˭ĂֻྏᅬཻдѪ˸݈ 9 ᄃ 3Ƃ5 ͟ӈய. ள֎࿏ཻ̈д 25ƨ˭ᓄത̝ௐ˘͟᛬ј. Ӊਕ˧Ă҃ 25℃˭൴ֈ̝ௐ˘͟᛬јཻĂ̶. ཻĂࡶொҌ 30 ᄃ 35ƨ˭ăՏֻ͟ᑕ 40. ҾொҌ 30 ᄃ 35℃˭Ăᅬཻ̝யӉޢഇ่ 1Ƃ2. Ƃ50 ௐˬ᛬ρᖪॡĂᅬཻုЧࠎ 21. ͟ĄΩள֎࿏ཻ̈͟ϠݭёϺֶ҃ޘளĄ. ᄃ 20 ͟ĂฯཻုӮࠎ 12 ͟ćᅬཻ˘ϠѪ. тд 15ă20ă25 ̈́ 30℃ؠॡௐ˘͟᛬ᅬཻ. ᓁᇴЧࠎ 611 ᄃ 651 Ă̚ϠѪ. ̝Ϡᇴᔵ่Ч 0.2ă1.4ă3.5 ̈́ 0.1 Ă. ᇴЧࠎ 234 ᄃ 245 ĂࢴפѪᇴЧࠎ. ҭҌௐ˟͟᛬ٕௐˬ͟᛬ޢӈځពᆧΐĂ̚. 376 ᄃ 406 ćᅬཻ˘ϠϠѪᇴᄃפ. 25℃ந۰̝ϠपഇΞჯ 18 ͟Ăഇม. ࢴѪᇴּ̝ͧЧࠎ 0.6:1 ᄃ 0.7:1ć̄. ̰Տ͟Ϡᇴࠎ 7.9Ƃ14.2 ć҃ 15ă20. ᅬّͧЧࠎ 0.58 ᄃ 0.63 (ܑα)Ą˯Чีീ. ̈́ 30℃ந۰̝Ϡपഇ่̙Чᒺൺࠎ. ྏࣃдநมᔵពमளĂҭᄃ˯ีྏរ. 7ă9 ̈́ 5 ͟ĂТॡഇม̰Տ͟ϠᇴϺ. ඕྵͧڍॡĂពϯྍநᄃ 35ƨؠ˭ᅬ. Чഴ͌ࠎ 0.6Ƃ1.8ă3.8Ƃ5.8 ̈́ 5.9Ƃ9.1 Ą. ཻုăٕ 15ă30 ̈́ 35ƨؠ˭ฯཻုม. Ҍ ٺ25℃˭൴ֈ̝ௐ˘͟᛬јཻĂ̶ҾொҌ. ѣពमளĂᄃ 15Ƃ35ƨؠ˭ᅬཻѪ. 30 ᄃ 35℃˭Ăௐ˘͟᛬̝ϠᇴЧࠎ. ޘ၆ள֎࿏ཻ̈ཏᆧܜᄃѪਕ˧̝ᇆᜩ. 95.
(6) ყΙ! ྣ࡙ᇄُ႐ωြमԫசкኵЅڏυфርܒШϞᜰ߽Ȅ Fig. 1.! Relationship between temperature and number of hosts killed by Hemiptarsenus varicornis and its female progeny ratio.. 2.3 ᄃ 10.8 Ăੵ݈۰ᄃ 25℃ؠॡܕҬγĂ. 18.3 ᄃ 8.5Ƃ24.8 ĂϺྵ 15Ƃ35℃ؠॡ. ۰Ӯྵ 15Ƃ35℃ؠॡࠎкćΩ۰Чҋ. ࠎкĄ. ௐαᄃௐ˟͟᛬ޢЧჯܜ྿ 21 ᄃ 16 ̝͟. Ϥဦ˟ٙϯள֎࿏ཻ̈͟ࢴפݭё. ϠपഇĂഇม̰Տ͟ϠᇴЧࠎ 7.6Ƃ. ̚Ăۢд 15 ٕ 20Ƃ35℃ؠ˭ྍཻҋҀ̼. 96. έ៉ٿᖪௐ˟˩αסௐ˟ഇ.
(7) ߒѲ! Ϛӣྣ࡙ήُ႐ωြϞჰڼȃमԫசкΨЅυфርܒШ 1,2) Table 4.! Longevity, host-killing capability, and female progeny ratio of Hemiptarsenus varicornis at various 1,2) temperatures No. hosts killed/♀ Female progeny Parasitized Host- feeding ratio (♀/(♀ + ♂)) Female Male Total A/B (A) (B) 15 5 15 ± 2c 9 ± 1b 9 ± 1bc 30 ± 7de 39 ± 7de 0.3 ± 0.1b 0.44 ± 0.03b 20 5 17 ± 3bc 11 ± 1ab 56 ± 10bc 99 ± 18cd 154 ± 27cd 0.6 ± 0.1a 0.64 ± 0.02a 25 11 22 ± 2a 14 ± 1a 210 ± 19a 287 ± 21b 497 ± 38b 0.7 ± 0.0a 0.62 ± 0.02a 30 12 13 ± 1c 9 ± 1b 57 ± 7b 103 ± 14c 160 ± 19c 0.6 ± 0.1a 0.64 ± 0.04a 35 12 8 ± 1d 7 ± 1c 10 ± 3c 30 ± 4e 40 ± 7e 0.3 ± 0.1b 0.00 ± 0.00c 25-303) 10 21 ± 2ab 12 ± 1a 235 ± 26a 376 ± 36a 611 ± 58a 0.6 ± 0.1a 0.58 ± 0.04a 25-353) 5 20 ± 1abc 13 ± 1a 245 ± 39a 406 ± 16a 651 ± 35a 0.7 ± 0.1a 0.63 ± 0.01a 1) One pair of adults was provided with 40-50 third-instar larvae of Liriomyza trifolii daily and reared at a given temperature with photoperiod of 14:10 (L:D) and 65-85% RH. 2) Means ( x ± SE) in each column followed by the same letter are not significantly different at 5% level by LSD. 3) Reared and emerged at 25ƨ, then transferred to 30 or 35ƨ for the parasitism and feeding tests. Temp. (ƨ). n. Longevity (d). ҌѪ˸݈ 4 ٕ 1Ƃ2 ͟Ă̙ҭՏ͟Ӯѣࢴפ. ள֎࿏ཻ̈ཏ̝ᆧܜĂд 15Ƃ30℃ؠ. ̝ҖࠎĂͷࢴפᇴ̂ٺϠᇴĄ. ॡܼᐌ҃̿˯̝ޘᆧΐĂтՏ̰͟дᆧ. Ҍٺᅬཻ͟ࢴפݭёֶ҃ޘளĄтд. തதд 15ă20ă25 ̈́ 30℃ॡĂЧࠎ 0.0212ă. 15ă20ă25ă30 ̈́ 35℃ॡĂௐ˘ٕௐ˟͟᛬. 0.1287ă0.2337 ̈́ 0.2733 (ܑ̣)Ăពϯ 30. ᅬཻ̝ࢴפᇴᔵ่Ч 1.6ă2.6ă8.5ă1.3. ℃ࠎྍཻཏᆧܜԣ̝ޘĄҭϤྍཻஐᆧ. ̈́ 1.7 ĂҭҌௐ˟ٕௐˬ͟᛬ޢӈځពᆧ. തࣃ៍̝Ăд 15ă20ă25ă30 ̈́ 35℃ॡĂЧ. ΐĂ ̚20ă25 ̈́ 30℃ந۰ΞЧჯ 19ă. ࠎ 4ă34ă121ă30 ̈́ 0 ᅬཻƝᅬཻ (ܑ̣)Ă. 20 ̈́ 17 ̝͟ࢴפपഇĂഇมՏ͟Чࢴפ. ពϯ 25℃ࠎྍཻཏᆧܜዋ̝ޘĂ҃ 35. 3.0Ƃ9.8ă8.8Ƃ18.2 ̈́ 5.5Ƃ13.6 Ă҃. ℃ॡጱྍཻཏ૪ሚхĄྍཻ̝᛬Ҿ. 15 ᄃ 35℃۰̝ࢴפपഇ่̙Чᒺൺࠎ 7 ᄃ. ໂᆧതதă᛬Ҿஐᆧതத̈́᛬Ҿх߿தඈᔵᄃ. 6 ͟ĂТॡഇม̰Տ͟ЧࢴפᇴϺഴ͌ࠎ. ޘѣᙯĂҭಶكඈ̝ѡቢݭё҃֏Ă݈۰. 2.6Ƃ5.8 ᄃ 3.3Ƃ8.4 ĄҌ ٺ25℃˭൴ֈ̝. ̝ݭёд 20Ƃ30℃ЧநมӮ࠹ҬĂ҃ᄃд. ௐ˘͟᛬јཻĂ̶ҾொҌ 30 ᄃ 35℃˭Ăௐ. 15℃நม̙˘ćҌٺ᛬Ҿх߿த̝ѡቢݭ. ˘͟᛬̝ࢴפᇴЧࠎ 7.8 ᄃ 10.5 Ăੵ݈. ёĂ15Ƃ30℃ЧநมӮ࠹Ҭ (ဦˬ)Ą. ۰ᄃ 25℃ؠॡܕҬγĂ۰Ӯྵ 15Ƃ35℃ ؠॡࠎкć۰ҋௐ˟͟᛬่̙ޢЧჯܜ. ϲȃྣ࡙ᇄॵސᄇԙြჰڼϞኇ. ྿ 24 ᄃ 17 ̝͟ࢴפपഇĂТॡഇม̰Տ͟. ள֎࿏ཻ̈д 15Ƃ35℃ؠăֻ. ࢴפᇴЧࠎ 12.0Ƃ26.9 ᄃ 13.0Ƃ28.8. ᑕă่҃ͽϏංᛖཻᄘᔼࢴॡĂᅬăฯཻု. ĂϺྵ 15Ƃ35℃ؠॡࠎкĄ. Ӯᐌ҃̿˯̝ޘᒺൺĂӔۡቢਫ਼ᕩᙯܼ (ᅬ ۰ࠎ y^ = −1.9983x + 68.183, R2 = 0.8807ć. Ϥȃྣ࡙ᄇ႐ωြឭտҡߒڼϞኇ. ฯ۰ࠎ y^ = −1.9168x + 64.707, R2 = 0.866). ޘ၆ள֎࿏ཻ̈ཏᆧܜᄃѪਕ˧̝ᇆᜩ. 97.
(8) ყΠ! Ϛӣྣ࡙ήُ႐ωြϞРசҡᇄРॵڥசкԒȄ Fig. 2.! Daily parasitization and host feeding patterns of Hemiptarsenus varicornis at various temperatures (25-30ʨ and 25-35ʨ is wasps reared at 25ʨ during the immature stage and then transferred to 30 or 35ʨ for the parasitism and feeding tests).. (ဦα)Ăု̚ܜ۰ࠎ 15℃ॡĂᅬăฯཻ. ᅬăฯཻုᄃޘมӮӔ˟Ѩਫ਼ᕩᙯܼ (ᅬ. ု̝၁ീࣃЧࠎ 44.7 ᄃ 42.3 ͟ĂҤീࣃ. ཻု ࠎy^ = − 0.0801x2 + 3.6201x − 21.57,. Чࠎ 38.2 ᄃ 36.0 ͟ćုൺ۰ࠎ 35℃ॡĂ. R2 = 0.5002ćฯཻု ࠎy^ = − 0.0498x2 +. ᅬăฯཻု̝၁ീࣃᔵЧࠎ 1.6 ᄃ 1.5 ͟Ă. 2.3561x − 15.162, R2 = 0.4901) (ဦα)Ąт. ҭд 34℃ॡᅬăฯཻု̝ҤീࣃݒӮࠎ 0. д 15ă20ă25ă30 ̈́ 35℃ؠॡĂᅬཻု. ͟Ąд 15Ƃ35℃ؠăՏֻ͟ᑕ 40Ƃ50 . ̝၁ീࣃЧࠎ 15ă17ă22ă13 ̈́ 8 ͟ (ܑα)Ă. ௐˬ᛬ρᖪᄃϏංᛖཻᄘॡĂள֎࿏ཻ̈. ̂Ҥീࣃࠎ 22.6℃ॡ̝ 19.3 ͟ćฯཻု. 98. έ៉ٿᖪௐ˟˩αסௐ˟ഇ.
(9) ߒϤ! Ϛӣۡྣήُ႐ωြϞఊတϭ໔ Table 5.! Population parameters of Hemiptarsenus varicornis at various constant temperatures λ1) Temp. (ƨ) r1) 15 0.0212 1.0214 20 0.1287 1.1374 25 0.2337 1.2633 30 0.2733 1.3142 35 1) r, intrinsic rate of increase (d-1); λ, finite rate of increase (d-1); Ro, net mean generation time (d).. Τ1) Ro1) 4 59.45 34 27.49 121 20.52 30 12.47 0 reproduction rate (female wasps /♀); T,. ̝၁ീࣃЧࠎ 9ă11ă14ă9 ̈́ 7 ͟ (ܑα)Ă. ៉гડѐ൴ϠĂͷ۰ม̝ТّޠϺ̙צ༊. ̂Ҥീࣃࠎ 23.7℃ॡ̝ 12.6 ͟ĄΩд 25℃. г̝ޘᇆᜩĄ. ؠă̙ᔼࢴ่ٕᔼࢴͪॡĂᅬཻု ࠎ2.0 Ƃ3.0 ͟Ăฯཻု ࠎ1.8Ƃ2.5 ͟Ą. Πȃྣ࡙ᄇُ႐ωြमԫசкΨϞኇ ώྏរͧྵள֎࿏ཻ̈д 15ă20ă25ă. ଆ፣ᇄ๖ᆯ. 30 ̈́ 35℃̣̙Тؠ˭൴ֈăϠതĂٕ Ад 25℃൴ֈăГொҌ 30 ᄃ 35℃˭. Ιȃྣ࡙ᄇُ႐ωြีҡϞኇ. ϠതĂ۰၆Ѫਕ˧̝मளĄඕۢڍ. Campbell et al. (1974) അಶ਼ᖪᄃ. дؠଐ˭ڶĂ21Ƃ30℃ࠎள֎࿏ཻ̈Ѫ. Ϡཻ۰̝൴ֈᓜࠧҲΐͽͧྵĂᄮࠎϠ. ߷ܧළሕᙀ̝ዋቑಛĂ༊Տֻ͟ᑕ 40Ƃ. ཻࠎዋᑕϠхĂ൴ֈᓜࠧҲྵĂҭ. 50 ௐˬ᛬ρᖪॡĂྍཻѪᓁᇴ. ன෪ϺᇆᜩϠཻᄃ̝ТّޠĄ. ̝Ҥീࣃࠎ 303Ƃ372 Ăม 25.4℃ࠎ. Chien and Ku (1996) ಡጱ߷ܧළሕᙀӉ. ዋޘĂѪਕ˧྿ 372 ć҃ 15. Ҍјᖪഇ̝൴ֈᓜࠧҲᄃ൴ֈѣड़᎕Ч. ᄃ 35℃̙Ӏྍཻ၆̝Ѫਕ˧Ă̙ኢ. ࠎ 8.7℃ᄃ 294 ͟ޘĂྍᙀ൴ֈ̝ዋࠎ. Ҥീٕ၁ീ̝ѪᇴӮЧዟഴࠎ 22Ƃ. 20Ƃ35℃Ą҃ώྏរඕۢڍĂள֎࿏ཻ̈Ӊ. 71 ٕ 39Ƃ40 Ąҭдؠܧଐ˭ڶĂ 25. Ҍјᖪഇ̝൴ֈᓜࠧҲᄃ൴ֈѣड़᎕Ч. ℃ؠ˭൴ֈ̝јཻĂ̶ҾொҌ 30 ᄃ 35. ࠎ 11.97℃ᄃ 152 ͟ޘĂ൴ֈዋࠎ 15. ℃Ăྍཻ˘ϠѪᓁᇴ̝၁ീࣃౣ྿. Ƃ35℃Ą࠹ྵ̝˭ள֎࿏ཻ̈ӉҌјᖪഇ̝൴. 611 ᄃ 651 Ąពϯ ̝ؠ15℃Ҳٕ 35. ֈᓜࠧҲᔵྵ 3.27℃Ăҭ൴ֈѣ. ℃Ӯ̙ዋள֎࿏ཻ̈၆̝Ѫ˧Ăҭ. ड़᎕ࠎ่ݒ̝ 51.7%ĂТॡ൴ֈዋ. ࡶд 25℃˭ᓄത̝ள֎࿏ཻ̈ொҌ 30 ٕ. ϺྵࠎᆵĄΩણ̚δঈ෪Ԋ 1897Ƃ. 35℃ॡĂྍཻ̙ҭΞ൴೭Ϡ̝Ѫ. 1997 ѐม൴οᄂΔăາѻ̈́ᄂ̚гડ 12 Ҍ. ˧ĂࠤҌЯ̝҃̿ޘពᆧΐࢴפѪ. 2 ̝͡͡؞πӮҲࠎ 11.7Ƃ14.3℃Ă. ̝ሕਕĄม̝मளٕΞଯኢ 30 ᄃ 35. ᄂݑᄃฯ 6 Ҍ 8 ͡आ̝͡؞πӮ. ℃၆ள֎࿏ཻ̈Ѫਕ˧̝ᇆᜩĂ֭. Чࠎ 32.0Ƃ32.6℃ᄃ 31.3Ƃ37.6℃ĂЯ҃ព. ܧдᅬཻϠٕࢴפ̝ҖࠎĂҭߏӎᇆ. ֍߷ܧළሕᙀᄃள֎࿏ཻ̙̈ҭӮΞдᄂ. ᜩྍཻϏјሢഇӉ૰̝൴ֈĂޞإซ˘Վྏ. ޘ၆ள֎࿏ཻ̈ཏᆧܜᄃѪਕ˧̝ᇆᜩ. 99.
(10) ყέ! Ϛӣۡྣήُ႐ωြϞᖅ (mx)ȃቨ (vx= lxmx) ЅឭտԆࣀ (lx)Ȅ Fig. 3.! Age-specific fecundity rate (mx), distribution of net maternity value (vx = lxmx), and survival rate (lx) of Hemiptarsenus varicornis at various constant temperatures.. រĄ̙࿅ѩีপኳ၆ٺள֎࿏ཻ̈дăშވ. έȃྣ࡙ᄇُ႐ωြఊတቨߝᇄڙசкఊ. ˭ĂͽϠۏᘽᛖ͞ٸё֨߷ܧڼළሕ. တΨϞኇ. ᙀॡ̪ѣӀϡ̝ĄҌٺ൪؆ត၆ள֎࿏̈. ˘ਠϠڼ֨ۏॡϠཻ̝̰дᆧതத૱. ཻ߿જăϠത̈́Ѫਕ˧̝ᇆᜩĂ̪៍ޞ. జࢋՐᅮྵٕ࠹༊ĄΞߏ༊Ϡཻ̝̰. ၅Ą. дᆧതதᔵྵҲĂҭΩࢴפٕണ. 100. έ៉ٿᖪௐ˟˩αסௐ˟ഇ.
(11) ყѲ! ټᔖြᇙܖြᇙёசк҂ᙫਢُ႐ωြჰڼᇄྣ࡙Ϟᜰ߽Ȅ Fig. 4.! Relationship between temperature and longevity of Hemiptarsenus varicornis provided with either honey or honey plus larvae of Liriomyza trifolii.. च (host mutilation) ̝ਕ˧ॡĂ̪Ξෛ. ਕ˧Ăтᅬཻ˘ϠϠѪᇴᄃࢴפ. ࠎ р ۞ Ϡ ڼ ֨ ۏЯ ̄ (Huffaker et al.,. Ѫᇴ̝၁ീּͧĂд 15Ƃ30℃ॡࠎ 0.3. 1977)ĄChien and Ku (1996) ಡጱ߷ܧළ. Ƃ0.7:1ĄЯ̙҃ኢҋचᖪᄃϠཻม̝ཏ. ሕᙀཏ̝ᆧܜд 12Ƃ35℃時ܼᐌ̝ޘ. ᆧٕܜϠཻԺטਕ˧ĂӮពϯள֎࿏̈. ˯̿҃ᆧΐĂᅬᙀՏ̰͟дᆧതதд 12ă. ཻд 15Ƃ30℃ॡ၆ཏቁѣૻ๕̝Ժ. 15ă20ă25ă30 ̈́ 35℃ॡĂЧࠎ −0.0088ă. ˧טĂࠎ߷ܧළሕᙀ̝ѣड़Ϡཻć่д 34. −0.0004 ă 0.1562 ă 0.2183 ă 0.2529 ̈́. Ƃ35℃ॡĂϤ̄ٺᅬّ̝ͧҤീࣃࠎ. 0.3053ĄώྏរඕۢڍĂள֎࿏ཻ̈ཏ̝. 0.16Ƃ0.05Ăѩன෪̙ҭ̙Ӏள֎࿏ཻ̈ཏ. ᆧ ܜд 15 Ƃ 30 ℃ ॡ ܼ ᐌ ҃ ̿ ˯ ̝ ޘᆧ. ̝ᆧܜĂࠤҌ༊ྍཻࢬᓜ ܕ35℃ᜈ. ΐĂᅬཻՏ̰͟дᆧതதд 15ă20ă25 ̈́. ॡĂౄјཏ̝૪ྋĂซ҃ഴऴٕϞྋྍ. 30℃ॡĂЧࠎ 0.0212ă0.1287ă0.2337 ̈́. ཻ၆ཏ̝Ժ˧טĄ. 0.2733Ă되ᙀ̝Տ̰͟дᆧതத࠹ྵĂ ੵࣃ20℃ॡர̈ٺγĂдዶ˭ޘ. Ѳȃྣ࡙ᇄॵސᄇԙြჰڼϞኇ. ӮྵࠎĄΩγಶள֎࿏ཻ̈Ժטሕ. Ϡّቯਂϫјཻ̝ࢴۏΞ̶ّࢴ. ਕ͞ࢬĂϤཻྍٺѪ͞ёѣϠᄃࢴפ. ( ۏhost food) ᄃܧّࢴ( ۏnon-host. ีĂࢴפ̚ਕ˧ՀࠤٺϠ. food) ᙷ̂Ă݈۰ࢋܼវ୵ĂࠎϠ. ޘ၆ள֎࿏ཻ̈ཏᆧܜᄃѪਕ˧̝ᇆᜩ. 101.
(12) ཻӉԛјॡٙυᅮ̝ᒉዳć҃ޢ۰кᛳᔝᙷ. 38 ͟ĂҌཻྍٺዋ̝෬хᖪഇăޘăഇ. ࢴ ۏĂ ࠎϠ ཻ߿જ ăჯ Ϡٙυ ᅮ̝ ዳ̶. ࢨ̈́ྍཻд෬хॡߏӎѣଠטӉ૰൴ֈ̝. (Chien and Ku, 1994)ĄώྏរඕۢڍĂ. ፟טඈĂ̪ޞଣĄ. ள֎࿏ཻ̈ုצੵޘᇆᜩγĂϺצ វ୵ᄃཻᄘ̝ᇆᜩĄд 25℃ؠă̙ᔼࢴٕ. ᇬ! ! ᗂ. ᔼͪॡĂᅬăฯཻုࠤൺĂӮ่ 2Ƃ3 ͟ć ࡶՏ่͟ͽϏංᛖཻᄘᔼࢴٕТॡֻᑕϏං. ώ ࡁ տ ٚ Җ ߆ ੰ ྺ ຽ ؎ ࣶ ົ 82 ࡊ ԫ. ᛖཻᄘᄃĂд 15Ƃ20℃ॡ۰ᅬཻု. -1.3-ᖏ-23(7) ࢍ൪ྃӄొ̶གྷĂྏរഇม. Ч྿ 28.2Ƃ38.2 ᄃ 14.7Ƃ18.8 ͟Ăฯཻု. ٚՂָᐖ̈ؓםӄᖪĂᖰѩ˘׀ᔁĄ. Ч྿ 26.4Ƃ36.0 ᄃ 9.0Ƃ12.0 ͟Ă҃д 30Ƃ33℃ॡ۰ᅬཻုЧ྿ 2.2Ƃ8.2 ٕ. ЕҢМᝦ. 10.7Ƃ15.0 ͟ĂฯཻုЧ྿ 1.5Ƃ7.2 ٕ 8.4Ƃ10.7 ͟Ąពϯள֎࿏ཻ̈д 15Ƃ20℃. Birch, L. C. 1948. The intrinsic rate of. ҲॡĂቁΞЯϏංᛖཻᄘֻ̝ࢴᄃயӉ߿. natural increase of an insect popu-. જ̝ঐਈĂֹᅬăฯཻုྵѣхдॡ. lation. J. Anim. Ecol. 17: 15-26.. Ч ܜؼ1.5Ƃ2.6 ᄃ 2.2Ƃ4.0 ࢺĂҭд 30. Boucek, Z. 1988. Australasian Chalci-. Ƃ33ƨॡĂள֎࿏ཻ̈ݒΞϤࢴפវ. doidea (Hymenoptera). C.A.B. Inter-. ୵ᒔ̝ᒉዳĂֹᅬăฯཻုྵх. national, London. 832 pp.. дॡЧ ܜؼ1.8Ƃ4.9 ᄃ 1.5Ƃ5.6 ࢺĄЯѩ. Campbell, A., B. D. Frazer, N. Gilbert, A. P.. ޙᛉ༊ள֎࿏ཻ̈јཻ෬хăᓄത̈́ϣมᑕϡ. Gutierrez, and M. Mackauer. 1974.. ॡĂӮΞ҂ᇋͽ৷ཻᄘֻࢴĂੵΞۡତܜؼј. Temperature requirements of some. ཻုγĂมତϺܳซཏᆧܜᄃѪ. aphids and their parasites. J. Appl.. ਕ˧̝ᆧૻĄ. Ecol. 11: 431-438. Chien, C. C., Y. I. Chu, and S. C. Ku. 1994.. Ϥȃُ႐ωြσ໔ᖅਢϞనӇ. Influence of food on longevity, egg. ซҖचᖪϠڼ֨ۏॡĂࠎ೩ֻዋॡዋณ̝. production and population increase of. ϠཻĂЯ҃Ϡཻ̝̂ณᓄതᄃ෬хԫఙӈ. the eulophid wasp, Tamarixia radiate.. јࠎचᖪϠ̚ڼ֨ۏυ౯̝୧ІĄѣᙯள֎࿏. Plant Prot. Bull. 36:. ཻ̝̈ତཻ͞ڱăങۏă၆᛬ഇઐр. Chinese with English summary).. ّăϠ߿Ϋăତཻ۩ม̈́Ϡཻᄃ̝ዋ༊. Chien, C. C., and S. C. Ku. 1996.. ᓄ ത ͧ ּ ඈ ̏ ѣ ಡ ጱ (Chien and Ku,. Morphology, life history and repro-. 2001a, b, 2002)Ą̫ϤώྏរඕۢڍĂ30. ductive ability of Liriomyza trifolii. J.. ℃ᔵࠎள֎࿏ཻ̈ཏᆧ̝ܜԣޘĂҭ. Agric.. 25℃ཻྍࠎݒᓄത̝ዋޘĄҌٺள֎࿏̈. Chinese with English summary).. ཻ෬хԫఙ̝ฟ൴ĂώྏរܐՎඕ่ۢڍᅬཻ. Chien, C. C., and S. C. Ku. 1998. The. д 15℃˭ᔼࢴ৷ཻᄘĂုΞពܜؼ྿. occurrence of Liriomyza trifolii and. 102. έ៉ٿᖪௐ˟˩αסௐ˟ഇ. Res.. China. 45:. 97-105. 69-88. (in. (in.
(13) its parasitoids on fields of Gerbera. Eulophid. jamesonii. Chinese J. Entomol. 18:. Chalcidoidea), mostly of coffee leaf-. 187-197 (in Chinese with English. miners in Africa. Bull. Entomol. Res.. summary).. 59: 195-228.. parasites. (Hymenoptera:. Chien, C. C., and S. C. Ku. 2001a. Instar. Lee, H. S. 1990. Differences in injury of. preference of five species of parasi-. Liriomyza bryoniae (Kalt) on crops. toids of Liriomyza trifolii (Hyme-. and the influence of host plants to. noptera:. Braconidae).. the parasitoids. Chinese J. Entomol.. Formosan Entomol. 21: 89-97 (in. 10: 409-418 (in Chinese with English. Chinese with English summary).. summary).. Eulophidae,. Chien, C. C., and S. C. Ku. 2001b. Appearance. and. life. history. Lin, F. C., and C. L. Wang. 1992. The. of. occurrence of parasitoids of Liriomyza. Hemiptarsenus varicornis (Hymeno-. trifolii (Burgess) in Taiwan. Chinese. ptera: Eulophidae). Formosan Ento-. J. Entomol. 12: 247-257 (in Chinese. mol. 21: 247-255 (in Chinese with. with English summary).. English summary).. Minkenberg, O. P. J. M., and J. C. van. Chien, C. C., and S. C. Ku. 2002. Intraspecific. The. leafminers. Liriomyza bryoniae and L. trifolii. species of parasitoids (Hymenoptera:. (Diptera: Agromyzidae), their para-. Eulophidae). trifolii. sites and host plants: a review. Agric.. Formosan. Univ. Wageningen Papers 86-2. 50. of. of. 1986.. two. (Diptera:. competition. Lenteren.. Liriomyza. Agromyzidae).. Entomol. 22: 279-290 (in Chinese with English summary).. pp. Murphy, S. T., and J. LaSalle. 1999.. Del, B. G. 1989. Natural enemies of. Balancing biological control strate-. Liriomyza trifolii (Burgess), Chro-. gies in the IPM of New World. matomyia horticola (Goureau) and. invasive. Chromatomyia. syngenesiae. Hardy. (Diptera: Agromyzidae) in Tuscany. Redia 72: 529-544.. field. Liriomyza. vegetable. leafminers. crops.. in. Biocontrol. News Info. 20: 91-104. Neter, J., and W. Wasserman. 1974.. Huffaker, C. B., R. F. Luck, and P. S.. Applied linear statistical models. Vol.. 1977.. I. Regression: 291-292. Richard, D.. Messenger. basis. of. The. biological. ecological. control.. pp.. Irwin, London.. th. Vercambre, B., and A. Thiery. 1983.. International Congress of Entomo-. Donnees bio-ecologiques sur Lirio-. logy. Washington. 1976.. myza trifolii Burgess (Dipt., Agro-. 560-586.. Proceedings. of. the. 15. Kerrich, G. J. 1968. Systematic studies on. myzidae) et de son principal parasite. ޘ၆ள֎࿏ཻ̈ཏᆧܜᄃѪਕ˧̝ᇆᜩ. 103.
(14) Hemiptarsenus semialbiclava Girault. (Diptera: Agromyzidae) in Guang-. (Hym., Eulophidae). 9th Africa Hort.. dong. Nat. Enemies Insects 21(3):. Symp., Les Seychelles.. 113-116.. Zeng, L., W. Zhang, and J. Wu. 1999.. 104. Preliminary studies on the parasi-. ԝӇРȈ2004 ԑ 1 Т 16 Р. toids of Lirionmyza sativae Blanchard. ڧРȈ2004 ԑ 3 Т 20 Р. έ៉ٿᖪௐ˟˩αסௐ˟ഇ.
(15) Influence of Temperature on Both Population Increase and Host-killing Capability of Hemiptarsenus varicornis (Hymenoptera: Eulophidae) Ching-Chin Chien* and Shu-Chen Chang!. Department of Applied Zoology, Taiwan Agricultural Research Institute, Council of Agriculture, Wufeng, Taichung 413, Taiwan. Shiu-Chih Ku!. Department of Zoology, National Museum of Natural Science, Taichung 404, Taiwan. ABSTRACT The ifluence of temperature on both population increase and host-killing capability of Hemiptarsenus varicornis (Girault) was studied at 10, 15, 20, 25, 30, and 35ƨ. H. varicornis completed their development between 15 and 35 ƨ. In this temperature range, its survival rate and development period from egg to adult was 90.9-96.3% and 7.0-54.0 days, respectively. But its hatch rate was 0% at 10ƨ. A lower developmental threshold was estimated to be 11.97ƨ for development from egg to adult. H. varicornis required 16, 46, 9, 81, and 152ƨ-days, respectively, to complete the egg, larval, prepupal, pupal, and egg to adult stages. When 40-50 third-instar larvae of Liriomyza trifolii (Burgess) were provided daily for a pair of H. varicornis between 15-35 ƨ at 5 ƨ intervals, the relationship between temperature and the total number of hosts killed formed a quadratic regression. Accordingly, the maximum number of hosts killed was estimated to be 372 at 25.4ƨ; However, when wasps reared at 25ƨ during the immature stages were then transferred to 30 or 35ƨ after emergence, the parasitism and feeding tests showed total numbers of hosts killed of 611 and 651 larvae, respectively. The relationship between temperature and the ratio of number of lifetime host parasitized over lifetime host feeding fitted to a quadratic regression, as was the relationship between temperature and the female progeny ratio. The estimated maximum values of the former ratio and the latter one were 0.72:1 at 24.9ƨ and 0.71 at 23.8ƨ , respectively. At 25ƨ , the intrinsic rate of increase (r), net reproductive rate (Ro), and mean generation time (T) were 0.2337/day, 121 female wasps/female, and 20.52 days, respectively. When adults were fed daily with pure honey only between 15 and 35 ƨ , the relationship between temperature and longevity of females or males showed a linear regression and the estimated maximum longevity of females and males was 38 and 36 days at 15ƨ , respectively. For those fed pure honey and provided with hosts, the relationship between temperature and longevity of females or males formed a quadratic regression, and the estimated maximum longevity of females and males was 19 days at 22.6ƨ and 13 days at 23.7ƨ, respectively. Key words: Hemiptarsenus varicornis, Liriomyza trifolii, temperature, population increase, host-killing capability. ޘ၆ள֎࿏ཻ̈ཏᆧܜᄃѪਕ˧̝ᇆᜩ. 105.
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