JPH0247977B2 - * E ** 4 ** Z ** 100TETORADEKAJENIRUASETAATO * SONOSEIZOHOOYOBISONOKAGOBUTSUTO * Z ** 100TETORADESENIRUASETAATOOJUKOSEIBUNTOSURUKONCHUJUINZAI - Google Patents

* E ** 4 ** Z ** 100TETORADEKAJENIRUASETAATO * SONOSEIZOHOOYOBISONOKAGOBUTSUTO * Z ** 100TETORADESENIRUASETAATOOJUKOSEIBUNTOSURUKONCHUJUINZAI

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Publication number
JPH0247977B2
JPH0247977B2 JP25520184A JP25520184A JPH0247977B2 JP H0247977 B2 JPH0247977 B2 JP H0247977B2 JP 25520184 A JP25520184 A JP 25520184A JP 25520184 A JP25520184 A JP 25520184A JP H0247977 B2 JPH0247977 B2 JP H0247977B2
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JP
Japan
Prior art keywords
following formula
acetate
ether
formula
reacted
Prior art date
Legal status (The legal status is an assumption and is not a legal conclusion. Google has not performed a legal analysis and makes no representation as to the accuracy of the status listed.)
Expired - Lifetime
Application number
JP25520184A
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Japanese (ja)
Other versions
JPS61134347A (en
Inventor
Yoshio Tamaki
Hajime Sugie
Kenjiro Kawasaki
Toshio Oku
Masayoshi Wakagimi
Takeshi Ujiie
Takehira Pponma
Chisato Hirano
Michiro Horiike
Current Assignee (The listed assignees may be inaccurate. Google has not performed a legal analysis and makes no representation or warranty as to the accuracy of the list.)
NORINSUISANSHO NOGYO KANKYO GIJUTSU KENKYUSHOCHO
Original Assignee
NORINSUISANSHO NOGYO KANKYO GIJUTSU KENKYUSHOCHO
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Priority to JP25520184A priority Critical patent/JPH0247977B2/en
Publication of JPS61134347A publication Critical patent/JPS61134347A/en
Publication of JPH0247977B2 publication Critical patent/JPH0247977B2/en
Anticipated expiration legal-status Critical
Expired - Lifetime legal-status Critical Current

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  • Organic Low-Molecular-Weight Compounds And Preparation Thereof (AREA)
  • Agricultural Chemicals And Associated Chemicals (AREA)

Description

【発明の詳細な説明】[Detailed description of the invention]

本発明はキンモンホソガ及びその近縁種の誘引
物質として有用な新規化合物及びその製造法並び
にそれを有効成分とする誘引剤に関する。 キンモンホソガ(Phyllonorycter ringoniela)
はリンゴの重要害虫である。この害虫は表皮をヒ
ダ状にたぐり寄せ葉肉内で棚状組織を点状に食害
し、一葉に数頭寄生すると、リンゴの葉の生理的
な落葉を誘起し、果実の肥大や翌年の花芽の形成
を著しく阻害する被害をもたらす。本種の幼虫は
葉肉内に生息しているため、防除は殺虫剤に対す
る感受性の高い若令幼虫期に限られる。このた
め、本種の発生時期を的確に知ることはきわめて
重要である。 一方、最近多くの害虫についていわゆる性フエ
ロモンの化学構造が明らかにされておりこの性フ
エロモンを用いて害虫の発生消長調査が能率的に
行われるようになつてきている。性フエロモンと
は一般に雌成虫が分泌する化学物質で、同種の雄
成虫に対して種特異的な誘引作用を示す。このよ
うな誘引性の性フエロモンの化学構造を明らかに
し、その物質を化学合成して、いわゆる性誘引物
質として用いることにより、効率的に発生消長を
調査することが可能となる。さらに、この物質を
用いて大量の雄を誘殺したり、雌雄の交尾行動を
撹乱したりすることにより成虫期を対象とした害
虫の防除を行うこともできる。 本発明者らはこれらの事情にかんがみ、キンモ
ンホソガの性フエロモンの研究をおこない、キン
モンホソガの処女雌から雄に対する誘引活性を有
する成分を抽出し、その化学構造を決定した。さ
らに化学的に合成した化合物が、キンモンホソガ
に対して有効な誘引作用を示すことを知つた。本
発明はこれらの知見に基づいて完成されたもので
ある。 本発明における新規化合物は示性式: で示されるものである。この化合物は。例えば以
下のような方法で合成することができる。 HO−C6H12−OH+HBr −→Br−C6H12−OH+H2O Br−C6H12−OH−(C6H53P −→〔(C6H53P(C6H12−OH)〕Br 〔(C6H53P(C6H12−OH)〕Br+n−
C3H7CHO ヴイテイツヒ反応 ―――――――――→ C3H7−CH=CH−C5H10−OH HO−C4H8−OH+HBr −→Br−C4H8−OH Br−C4H8−OH+(C6H53P −→〔(C6H53P(C4H8−OH)〕Br この化合物をキンモンホソガ用誘引剤の有効成
分として使用する場合、種々の形態が可能であ
る。この化合物はきわめて微量で著効を奏するこ
と、及び揮発性の油状液であることから、そのま
まあるいはヘキサン等の適当な溶媒に溶解したも
のを適当な担体(各種合成高分子体、天然ゴム、
合成ゴム)に吸着させたり、これらの担体素材の
成型物に封入した形態で使用することが好まし
い。 有効成分の含有量は適宜に定めることができる
が、担体に吸着させたり担体素材成型物に封入す
る場合は、担体1g中に0.1〜100mg程度が好まし
い。 このような有効成分を含有する担体あるいは担
体素材成型物を適当な支持体によつて、例えば、
その他の液体を入れた容器(バツトなど)上ある
いは適当な粘着物質を塗布した物体上またはその
付近に設置することによりキンモンホソガが誘引
され、容器(バツトなど)中に落下または粘着物
質に捕捉されて死亡する。 次に本発明に係わる化合物の単離とその構造決
定について説明する。 野外から採集した越冬蛹を休眠消去後、20℃に
全明下で加温し、羽化した成虫の雌を暗条件下に
8時間おいたのちジクロロメタンに浸漬した抽出
物を得た。試料の誘引活性はりんご園またはフラ
イト・トンネルを用いて雄蛾が誘引されるかどう
かにより調べた。 活性物質の単離は次のようにして行つた。101,
000雌からの抽出物をケン化し、不ケン化物と、
ケン化物に分けた。不ケン化物をフロリシルカラ
ムクロマトグラフイによりヘキサン、5%エーテ
ル/ヘキサン、15%エーテル/ヘキサン、25%エ
ーテル/ヘキサン、50%エーテル/ヘキサン、2
%メタノール/エーテル、4%酢酸/エーテルに
よつて順次溶出した。15%エーテル/ヘキサン、
25%エーテル/ヘキサンの2画分を混合後、アセ
チル化を行い、さらにフロリシルカラムクロマト
グラフイにより得られた5%エーテル/ヘキサン
画分につついて硝酸銀−シリカゲルカラムクロマ
トグラフイにかけ、1%エーテル/石油エーテ
ル、3%エーテル/石油エーテル、5%エーテ
ル/石油エーテル、10%エーテル/石油エーテ
ル、50%エーテル/石油エーテル、エーテルによ
り溶出される画分を得た。以上の画分について生
物検定を行つたところ、硝酸銀−シリカゲルカラ
ムクロマトグラフイで得られた5%エーテル/石
油エーテル(AG−3)、10%エーテル/石油エ
ーテル(AG−4)で溶出された2画分を混ぜ合
わせた場合にのみ活性が認められた。そこで、こ
の2画分をべつべつにガスクロマトグラフイによ
り精製を進めた。1%OV−1(1m)のカラムを
用い100から200℃、毎分5℃昇温条件下で分取し
た。この条件でトリデシルアセタート、テトラデ
シルアセタート、ペンタデシルアセタートはそれ
ぞれ、9.3分、11.2分、13.0分に溶出された。AG
−3画分の分取の結果9.9〜11.8分の間に、AG−
4画分では10.4〜11.4分のあいだに溶出された2
画分を混ぜ合わせた場合にのみ活性が認められ
た。次いで、この2画分を10%サーモン1000
(1.2m,195℃)カラムを用いて分取を行つた。
AG−3からの画分は4.3〜5.1分に、AG−4から
の画分は4.5〜5.4分のあいだに溶出される2ピー
クを混ぜ合わせた場合にのみ活性が認められた。
この条件でテトラデシルアセタートは3.8分に溶
出された。この2画分をガスクロマトグラフ−マ
スクロマトグラフイ(GC−MS)により分析し
たところ、AG−3からのピークはテトラデセニ
ルアセタート〔特徴ピーク(相対強度):61(13),
82(100),194(13)〕、AG−4からのピークはテ
トラデカジエニルアセタート〔特徴ピーク(相対
強度):61(4),67(100),192(4)〕であること
がわかつた。これらはそれぞれ、1.5μg,0.4μgの
量であつた。 これらの物質の2重結合の位置の決定は、オゾ
ン分解により生じるω−アセトキシアルデヒドを
GC−MSを用いて検出することで行つた。テト
ラデカジエニルアセタートはヒドラジンを用いて
2個の2重結合の片方を飽和にした後、オゾン分
解した。AG−3に含まれるテトラデセニルアセ
タートからはω−アセトキシデカナール〔特徴ピ
ーク(相対強度):61(40),69(100),171(4),
CIでは215(100)〕が検出されたことから10位に
2重結合があることがわかつた。またAG−4か
らのテトラデセニルアセタート混合物の分析は試
料の量が少ない為、EIで61,CIで(M+1)の
フラグメントピークを検出する方法で行い、10位
に2重結合を持つものがあることがわかつた。し
かし、もう1つの2重結合位置についてはわから
なかつたが、ガスクロマトグラフイでの極性、非
極性カラム上のテトラデシルアセタートとの溶出
時間の比較から非共役な位置にあると推定され
た。そこで、2重結合の位置が(3,10)、(4,
10)、(5,10)、(6,10)にあるジエンを合成
し、その生物活性を野外での誘引試験で調べた。
また、モノエンについてもその幾何異性は不明で
あつたので、この点に関してもその生物活性を野
外での誘引試験で調べた。その結果モノエンは
(Z)−10−テトラデセニルアセタート、ジエンは
(E)−4,(Z)−10−テトラデカジエニルアセタ
ートであることが明らかとなつた。更に、その誘
引力は処女雌とほぼ同等であつた。 実施例 (E)−4,(Z)−10−テトラデカジエニルア
セタートの合成 1) HO−C6H12−OH+HBr 〔〕 −→Br−C6H12−OH+H2O 〔〕 1,6−ヘキサンジオール()59gと臭化
水素酸90gを80℃で連続抽出しながら反応させ
て6−ブロモ−1−ヘキサノール()を得
た。フロリシルカラムでジブロム化合物と未反
応物を除いた(収率52%)。 2) Br−C6H12−OH+(C6H53P 〔〕 −→〔(C6H53P(C6H12−OH)〕Br 〔〕 1)で得た化合物()47gとトリフエニル
ホスフインを200mlのアセトニトリルに溶かし、
2日間還流した。50gの(1−ヒドロキシヘキ
シル)トリフエニルホスホニウムブロマイド
()が得られ収率は80%であつた。 3) 〔(C6H53P(C6H12−OH)〕Br+n−C3H7CHO 〔〕 −→C3H7−CH=CH−C5H10−OH 〔〕 次いで乾燥した丸底フラスコに11.2gの(1
−ヒドロキシヘキシル)トリフエニルホスホニ
ウムブロマイド()とそれぞれ20mlの無水エ
ーテルとテトラヒドロフラン、ブチルリチウム
ヘキサン溶液を加えた。1時間撹拌を続けた
後、1.8gのブチルアルデヒドを加え、さらに
1時間撹拌を続けて反応させた。水を加えた
後、エーテルで抽出した。フロリシルカラムに
より精製し、1.2gの6−デセン−1−オール
()が得られた(収率38%)。 4) 2gの無水クロム酸に20mlのピリジンを加え
ておき、工程3)で得た化合物をゆつくり加え
酸化をおこなつた。フロリシルカラムにより精
製し、20%の収率で6−デセナールを得た。次
いで、硝酸銀シリカゲルカラムクロマトグラフ
イによつてZ体、E体に分離し、(Z)−6−デ
セナール()を得た。 5) HO−C4H8−OH+HBr 〔〕 −→Br−C4H8−OH 〔〕 1,4−ブタンジオール()45gと臭化水
素酸90gを連続抽出しながら80℃で反応させて
4−ブロムブタン−1−オール()を得た。
これからフロリシルカラムでジブロム化合物と
未反応物を除いた(収率20%)。 6) Br−C4H8−OH+(C6H53P () −→〔(C6H53P(C4H8−OH)〕Br 〔〕 工程5)で得た化合物()15gをトリフエ
ニルホスフインを200mlのアセトニトリルに溶
かし、2日間還流し、(1−ヒドロキシブチル)
トリフエニルフオスホニウムブロマイド()
を得た。(収率73%)。 7) 次いで乾燥した丸底フラスコに2.1gの(1
−ヒドロキシブチル)トリフエニルホスホニウ
ムブロマイド()とそれぞれ20mlの無水エー
テルとテトラヒドロフラン、5mlのブチルリチ
ウムヘキサン溶液を加えた。1時間撹拌を続け
た後、工程4)で得られた160mgの(Z)−6−
デセナール()を加え、さらに1時間撹拌を
続けて反応させた。水を加えた後、エーテルで
抽出し、フロリシルカラムにより精製した。さ
らに、アセチル化後、硝酸銀シリカゲルカラム
クロマトグラフイによつて精製し12mgの(E)
−4,(Z)−10−テトラデカジエニルアセター
トと31mgの(Z)−4,(Z)−10−テトラデカ
ジエニルアセタートを得た(収率16%)。 (E)−4,(Z)−10−テトラデカジエニルア
セタートの物性は次のとおりである。 分子量 252 沸 点 119℃/0.12mmHg 屈折率 1.4655(17℃) 赤外吸収スペクトル(cm-1)(KBr錠剤) 3000(−CH=CH−) 1735(−C=0) 960(−CH=CH−,トランス
E) 720(−CH=CH−,シスZ) 質量分析スペクトル m/z 81(ベース) 192(M−AcOH) 試験例 1 合成化合物(E)−4,(Z)−10−テトラデカ
ジエニルアセタート、または、その幾何異性体
10μgと(Z)−10−テトラデセニルアセタート、
または、(E)−10−テトラデセニルアセタート
100μgとをプラスチツクキヤツプ(安元化成(株)
製)に含浸させ、これを粘着式のトラツプ上に置
きリンゴ園に設置した。比較のために誘引源を取
りつけないトラツプと2頭の処女雌を誘引源とし
たトラツプも設置し、捕獲数を調査した。 その結果を下表に示すが、これより(E)−4,
(Z)−10−テトラデカジエニルアセタートと
(Z)−10−テトラデセニルアセタートの混合物に
処女雌と同程度の誘引力が認められた。
The present invention relates to a novel compound that is useful as an attractant for the goldenrod moth and its related species, a method for producing the same, and an attractant containing the compound as an active ingredient. Phyllonorycter ringoniela
is an important pest of apples. This pest folds the epidermis and damages the shelf tissue within the mesophyll in dots. When several individuals infest one leaf, it induces physiological defoliation of apple leaves, causing fruit enlargement and the formation of next year's flower buds. It causes damage that significantly inhibits formation. Since the larvae of this species live within the mesophyll, control is limited to the young larval stage, which is highly sensitive to insecticides. For this reason, it is extremely important to accurately know when this species appears. On the other hand, the chemical structures of so-called sex pheromones for many pests have recently been clarified, and it has become possible to efficiently investigate the occurrence and fate of pests using these sex pheromones. Sex pheromones are chemical substances that are generally secreted by adult females and exhibit a species-specific attracting effect on adult males of the same species. By clarifying the chemical structure of such attractive sex pheromone, chemically synthesizing the substance, and using it as a so-called sex attractant, it becomes possible to efficiently investigate the development and development of sex pheromone. Furthermore, by using this substance to attract and kill a large number of males or to disrupt the mating behavior of males and females, it is also possible to control pests targeting the adult stage. In view of these circumstances, the present inventors conducted research on the sex pheromone of the goldenrod moth, extracted a component having male-attractive activity from virgin females of the goldenrod moth, and determined its chemical structure. Furthermore, we learned that a chemically synthesized compound exhibits an effective attracting effect on the goldenrod moth. The present invention was completed based on these findings. The novel compound in the present invention has the following formula: This is shown in . This compound is. For example, it can be synthesized by the following method. HO−C 6 H 12 −OH+HBr −→Br−C 6 H 12 −OH+H 2 O Br−C 6 H 12 −OH−(C 6 H 5 ) 3 P −→[(C 6 H 5 ) 3 P(C 6 H 12 −OH)]Br [(C 6 H 5 ) 3 P(C 6 H 12 −OH)]Br+n−
C 3 H 7 CHO Witeizg reaction――――――――――→ C 3 H 7 −CH=CH−C 5 H 10 −OH HO−C 4 H 8 −OH+HBr −→Br−C 4 H 8 −OH Br−C 4 H 8 −OH+(C 6 H 5 ) 3 P −→[(C 6 H 5 ) 3 P(C 4 H 8 −OH)〕Br When this compound is used as an active ingredient of an attractant for goldenrod moth, various forms are possible. Since this compound is effective in extremely small amounts and is a volatile oily liquid, it can be used directly or dissolved in an appropriate solvent such as hexane in an appropriate carrier (such as various synthetic polymers, natural rubber, etc.).
It is preferable to use it in the form of being adsorbed onto a synthetic rubber (synthetic rubber) or encapsulated in a molded product of these carrier materials. The content of the active ingredient can be determined as appropriate, but when adsorbed onto a carrier or encapsulated in a molded carrier material, the content is preferably about 0.1 to 100 mg per gram of the carrier. A carrier or carrier material molded product containing such an active ingredient is supported by a suitable support, for example,
By placing it on or near a container containing other liquids (such as a vat) or an object coated with a suitable sticky substance, the golden moth can be attracted and fall into the container (such as a vat) or become trapped by the sticky substance. die. Next, isolation of the compound according to the present invention and determination of its structure will be explained. After extinguishing dormancy, overwintering pupae collected from the field were warmed to 20°C under full light, and the emerged adult females were left in the dark for 8 hours, and then immersed in dichloromethane to obtain an extract. Attractive activity of the samples was examined by whether male moths were attracted using apple orchards or flight tunnels. Isolation of the active substance was carried out as follows. 101,
000 The extract from the female was saponified and the unsaponifiable matter was
Separated into saponified products. Unsaponifiables were collected by Florisil column chromatography in hexane, 5% ether/hexane, 15% ether/hexane, 25% ether/hexane, 50% ether/hexane, 2
% methanol/ether and 4% acetic acid/ether. 15% ether/hexane,
After mixing the two 25% ether/hexane fractions, acetylation was performed, and the 5% ether/hexane fraction obtained by florisil column chromatography was subjected to silver nitrate-silica gel column chromatography to obtain 1% Fractions eluted with ether/petroleum ether, 3% ether/petroleum ether, 5% ether/petroleum ether, 10% ether/petroleum ether, 50% ether/petroleum ether, and ether were obtained. When bioassay was performed on the above fractions, it was found that eluted with 5% ether/petroleum ether (AG-3) and 10% ether/petroleum ether (AG-4) obtained by silver nitrate-silica gel column chromatography. Activity was observed only when the two fractions were combined. Therefore, these two fractions were purified separately by gas chromatography. Fractionation was carried out using a 1% OV-1 (1 m) column from 100 to 200°C at a heating rate of 5°C per minute. Under these conditions, tridecyl acetate, tetradecyl acetate, and pentadecyl acetate were eluted at 9.3 minutes, 11.2 minutes, and 13.0 minutes, respectively. A.G.
-As a result of fractionation of 3 fractions, between 9.9 and 11.8 minutes, AG-
In the 4th fraction, 2 eluted between 10.4 and 11.4 minutes.
Activity was observed only when the fractions were combined. Next, add these two fractions to 10% Salmon 1000
(1.2 m, 195°C) column was used for fractionation.
Activity was observed only when the two peaks, eluted between 4.3 and 5.1 minutes for the fraction from AG-3 and between 4.5 and 5.4 minutes for the fraction from AG-4, were combined.
Under these conditions, tetradecyl acetate was eluted at 3.8 minutes. When these two fractions were analyzed by gas chromatography-mass chromatography (GC-MS), the peak from AG-3 was tetradecenyl acetate [characteristic peak (relative intensity): 61 (13),
82 (100), 194 (13)], and the peak from AG-4 is tetradecadienyl acetate [characteristic peak (relative intensity): 61 (4), 67 (100), 192 (4)]. I understood. These amounts were 1.5 μg and 0.4 μg, respectively. Determination of the positions of the double bonds in these substances has revealed that ω-acetoxyaldehyde produced by ozonolysis is
This was done by detecting using GC-MS. One of the two double bonds of tetradecadienyl acetate was saturated using hydrazine, and then ozonolysis was performed. From the tetradecenyl acetate contained in AG-3, ω-acetoxydecanal [characteristic peaks (relative intensity): 61 (40), 69 (100), 171 (4),
215 (100)] was detected by CI, indicating that there was a double bond at the 10th position. In addition, since the amount of sample is small, the analysis of the tetradecenyl acetate mixture from AG-4 was carried out by detecting the fragment peaks of 61 with EI and (M+1) with CI, which has a double bond at the 10th position. I found out that there was something. However, the position of the other double bond was not known, but it was presumed to be at a non-conjugated position from a comparison of elution times with tetradecyl acetate on polar and non-polar columns in gas chromatography. Therefore, the positions of the double bonds are (3, 10), (4,
The dienes shown in (10), (5,10), and (6,10) were synthesized and their biological activities were investigated in field attraction tests.
Furthermore, since the geometric isomerism of monoene was unknown, we also investigated its biological activity in this regard through an attraction test in the field. The results revealed that the monoene was (Z)-10-tetradecenyl acetate and the diene was (E)-4,(Z)-10-tetradecadienyl acetate. Moreover, its attractive power was almost the same as that of virgin females. Example (E)-4, Synthesis of (Z)-10-tetradecadienyl acetate 1) HO-C 6 H 12 -OH+HBr [] -→Br-C 6 H 12 -OH+H 2 O [] 1, 59 g of 6-hexanediol () and 90 g of hydrobromic acid were reacted at 80° C. with continuous extraction to obtain 6-bromo-1-hexanol (). The dibrome compound and unreacted substances were removed using a Florisil column (yield 52%). 2) Br−C 6 H 12 −OH+(C 6 H 5 ) 3 P [] −→ [(C 6 H 5 ) 3 P(C 6 H 12 −OH)] Br [] Compound obtained in 1) ( ) and triphenylphosphine in 200ml of acetonitrile,
It was refluxed for 2 days. 50 g of (1-hydroxyhexyl)triphenylphosphonium bromide () was obtained with a yield of 80%. 3) [(C 6 H 5 ) 3 P (C 6 H 12 −OH)] Br+n−C 3 H 7 CHO [] −→C 3 H 7 −CH=CH−C 5 H 10 −OH [] Then drying 11.2 g (1
-hydroxyhexyl) triphenylphosphonium bromide () and 20 ml each of anhydrous ether, tetrahydrofuran, and butyllithium hexane solutions were added. After stirring for 1 hour, 1.8 g of butyraldehyde was added, and stirring was continued for another 1 hour for reaction. After adding water, the mixture was extracted with ether. Purification was performed using a Florisil column to obtain 1.2 g of 6-decen-1-ol (yield: 38%). 4) 20 ml of pyridine was added to 2 g of chromic anhydride, and the compound obtained in step 3) was slowly added to carry out oxidation. Purification was performed using a Florisil column to obtain 6-decenal with a yield of 20%. Next, it was separated into Z form and E form by silver nitrate silica gel column chromatography to obtain (Z)-6-decenal (). 5) HO−C 4 H 8 −OH+HBr [] −→Br−C 4 H 8 −OH [] 45 g of 1,4-butanediol () and 90 g of hydrobromic acid were reacted at 80°C with continuous extraction. 4-bromobutan-1-ol () was obtained.
From this, the dibrome compound and unreacted substances were removed using a Florisil column (yield 20%). 6) Br−C 4 H 8 −OH+(C 6 H 5 ) 3 P () −→ [(C 6 H 5 ) 3 P(C 4 H 8 −OH)] Br [] Compound obtained in step 5) Dissolve 15g of triphenylphosphine in 200ml of acetonitrile and reflux for 2 days to obtain (1-hydroxybutyl)
Triphenylphosphonium bromide ()
I got it. (yield 73%). 7) Then add 2.1 g (1
-hydroxybutyl) triphenylphosphonium bromide (20 ml each of anhydrous ether and tetrahydrofuran, and 5 ml of butyllithium hexane solution were added. After continuing stirring for 1 hour, 160 mg of (Z)-6- obtained in step 4)
Decenal () was added and the reaction was continued with stirring for an additional hour. After adding water, the mixture was extracted with ether and purified using a Florisil column. Furthermore, after acetylation, 12 mg of (E) was purified by silver nitrate silica gel column chromatography.
-4,(Z)-10-tetradecadienyl acetate and 31 mg of (Z)-4,(Z)-10-tetradecadienyl acetate were obtained (yield 16%). The physical properties of (E)-4,(Z)-10-tetradecadienyl acetate are as follows. Molecular weight 252 Boiling point 119℃/0.12mmHg Refractive index 1.4655 (17℃) Infrared absorption spectrum (cm -1 ) (KBr tablet) 3000 (-CH=CH-) 1735 (-C=0) 960 (-CH=CH -, trans E) 720 (-CH=CH-, cis Z) Mass spectrometry spectrum m/z 81 (base) 192 (M-AcOH) Test example 1 Synthetic compound (E)-4, (Z)-10-tetra Decadienyl acetate or its geometric isomer
10 μg and (Z)-10-tetradecenyl acetate,
or (E)-10-tetradecenyl acetate
100μg and plastic cap (Yasumoto Kasei Co., Ltd.)
(manufactured in Japan) and placed it on an adhesive trap and installed it in an apple orchard. For comparison, we also set traps with no attraction source and traps with two virgin females as attraction sources, and investigated the number of fish caught. The results are shown in the table below, from which (E)-4,
A mixture of (Z)-10-tetradecadienyl acetate and (Z)-10-tetradecenyl acetate was found to have an attractive power comparable to that of virgin females.

【表】【table】

【表】【table】

【表】【table】

Claims (1)

【特許請求の範囲】 1 示性式: で示される(E)−4,(Z)−10−テトラデカジ
エニルアセタート。 2 次の諸工程: (a) 1,6−ヘキサンジオール()と臭化水素
酸を下式()のごとく反応させて得られる6
−ブロモ−1−ヘキサノール()をトリフエ
ニルホスフインと下式()のごとく反応させ
て(1−ヒドロキシヘキシル)トリフエニルホ
スホニウムブロマイド()を生成せしめる工
程; HO−C6H12−OH+HBr 〔〕 −→Br−C6H12−OH+H2O () 〔〕 Br−C6H12−OH+(C6H53P 〔〕 −→〔(C6H53P(C6H12−OH)〕Br () 〔〕 (b) 前記工程で得られた(1−ヒドロキシヘキシ
ル)トリフエニルホスホニウムブロマイド
()をウイテイツヒ反応を利用してブチルア
ルデヒドと下式()のごとく反応させて、6
−デセン−1−オール()を得る工程; 〔(C6H53P(C6H12−OH)〕Br+n−
C3H7CHO 〔〕 塩基 ――→ C3H7−CH=CH−C5H10−OH () 〔〕 (c) 前記工程で得られた6−デセン−1−オール
()をクロム酸酸化した後、硝酸銀シリカゲ
ルカラムクロマトグラフイによつてZ体、E体
に分離した後、(Z)−6−デセナール()を
得る工程; (d) 1,4−ブタンジオールと臭化水素酸を下式
()のごとく反応させて得た4−ブロムブタ
ン−1−オール()をトリフエニルホスフイ
ンと下式()のごとく反応させて(1−ヒド
ロキシブチル)トリフエニルホスホニウロブロ
マイド()を生成せしめる工程; HO−C4H8−OH+HBr 〔〕 −→Br−C4H8−OH () 〔〕 Br−C4H8−OH+(C6H53P 〔〕 −→〔(C6H53P(C4H8−OH)〕Br () 〔〕 (e) 前記工程で得られた(Z)−6−デセナール
()とウイテイツヒ反応を利用して前記工程
()で得られた(1−ヒドロキシブチル)ト
リフエニルホスホニウムブロマイド()と下
式()のごとく反応させて、(E)−4,(Z)
−10−テトラデカジエン−1−オール(X)を
得、さらにアセチル化後、硝酸銀シリカゲルカ
ラムクロマトグラフイによつて(E)−4,
(Z)−10−テトラデカジエニルアセタート
()を得る工程; よりなることを特徴とする示性式: で表させれる(E)−4,(Z)−10−テトラデカ
ジエニルアセタート()を製造する方法。 3 示性式: で表される(E)−4,(Z)−10−テトラデカジ
エニルアセタート(1)と(Z)−10−テトラデ
セニルアセタートを有効成分とするキンモンホソ
ガ及びその近縁種に対する誘引剤。
[Claims] 1 Indicative formula: (E)-4,(Z)-10-tetradecadienyl acetate. 2 Next steps: (a) 6 obtained by reacting 1,6-hexanediol () and hydrobromic acid as shown in the following formula ()
- A step of reacting bromo-1-hexanol () with triphenylphosphine as shown in the following formula () to produce (1-hydroxyhexyl)triphenylphosphonium bromide (); HO-C 6 H 12 -OH+HBr [] −→Br−C 6 H 12 −OH+H 2 O () [] Br−C 6 H 12 −OH+(C 6 H 5 ) 3 P [] −→[(C 6 H 5 ) 3 P(C 6 H 12 -OH)]Br () [] (b) The (1-hydroxyhexyl)triphenylphosphonium bromide () obtained in the above step is reacted with butyraldehyde using the Witteitz reaction as shown in the following formula (), 6
Step of obtaining -decen-1-ol (); [ ( C6H5 ) 3P ( C6H12 - OH)]Br+n-
C 3 H 7 CHO [] Base---→ C 3 H 7 -CH=CH-C 5 H 10 -OH () [] (c) 6-decen-1-ol () obtained in the above step is converted to chromium A step of obtaining (Z)-6-decenal () after acid oxidation and separation into Z form and E form by silver nitrate silica gel column chromatography; (d) 4-bromobutan-1-ol () obtained by reacting 1,4-butanediol and hydrobromic acid as shown in the following formula () is reacted with triphenylphosphine as shown in the following formula (). Step of producing (1-hydroxybutyl) triphenylphosphoniurobromide (); HO−C 4 H 8 −OH+HBr [] −→Br−C 4 H 8 −OH () [] Br−C 4 H 8 − OH+ (C 6 H 5 ) 3 P [] −→ [(C 6 H 5 ) 3 P (C 4 H 8 −OH)] Br () [] (e) (Z)-6 obtained in the above step -decenal () is reacted with (1-hydroxybutyl)triphenylphosphonium bromide () obtained in the above step () using the Witteig reaction as shown in the following formula () to form (E)-4, (Z )
-10-tetradecadien-1-ol (X) was obtained, and after further acetylation, (E)-4,
Step of obtaining (Z)-10-tetradecadienyl acetate (); An indicative formula characterized by: A method for producing (E)-4,(Z)-10-tetradecadienyl acetate () represented by: 3 Indicative formula: A drug containing (E)-4, (Z)-10-tetradecadienyl acetate (1) and (Z)-10-tetradecenyl acetate as active ingredients against the goldenrod moth and its related species. Attractant.
JP25520184A 1984-12-03 1984-12-03 * E ** 4 ** Z ** 100TETORADEKAJENIRUASETAATO * SONOSEIZOHOOYOBISONOKAGOBUTSUTO * Z ** 100TETORADESENIRUASETAATOOJUKOSEIBUNTOSURUKONCHUJUINZAI Expired - Lifetime JPH0247977B2 (en)

Priority Applications (1)

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JP25520184A JPH0247977B2 (en) 1984-12-03 1984-12-03 * E ** 4 ** Z ** 100TETORADEKAJENIRUASETAATO * SONOSEIZOHOOYOBISONOKAGOBUTSUTO * Z ** 100TETORADESENIRUASETAATOOJUKOSEIBUNTOSURUKONCHUJUINZAI

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JP25520184A JPH0247977B2 (en) 1984-12-03 1984-12-03 * E ** 4 ** Z ** 100TETORADEKAJENIRUASETAATO * SONOSEIZOHOOYOBISONOKAGOBUTSUTO * Z ** 100TETORADESENIRUASETAATOOJUKOSEIBUNTOSURUKONCHUJUINZAI

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