生きものたちをつなぐ「かおり」～エコロジカルボラタイルズ～

出版社： フレグランスジャーナル社
著者：
発行日： 2016-04-15
分野： 基礎・関連科学  >  生命科学
ISBN： 9784894792685
電子書籍版： 2016-04-15 （第1版第1刷）
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「かおり」を軸にして生きものたちをつなげていくと地球上のほとんど全ての生きものたちをつなげるネットワークができます。この本では植物から動物まで生きものたちがどのようにかおりでつながっているのかを紹介しています。また、かおりが大気の中でどのように変化し、それが生きものたちのつながりにどういった影響を与えているのか、そして、このようなかおりを農業に役立てる試みについても紹介しています。

目次

  • 表紙
  • カラーグラビア
  • はじめに ～エコロジカルボラタイルズとは～
  • 目次
  • 第1章 植物が放出するかおりとそれを利用する生物たち
  • イントロダクション
  • 1. 植物はかおりを作り、放出し、吸収し、代謝する～生態系での植物のかおりの意味～
  • はじめに
  • 1. 植物がかおり分子を作るわけ
  • 2. 植物はどのようにしてかおりを作るのか
  • 3. 植物がかおり分子を感じる
  • 4. 植物がかおりを感じる仕組み
  • トピックスi 植物がかおりを受け取るしくみ～トマトの揮発性化合物配糖体化戦略～
  • トピックスii 生態系の炭素循環を駆動するC1微生物 - 植物間相互作用
  • 2. 植物のかおりが媒介する生物間相互作用・情報ネットワークシステムを紐解く
  • はじめに ～生物間相互作用・情報ネットワークシステムとは～
  • 1. 植物のかおりの情報性について
  • 2. かおり情報の生態系における機能
  • 3. 植食者成虫によって利用される植物のかおり情報
  • 4. 植食者幼虫によって利用される植物のかおり情報
  • 5. 捕食者成虫および幼虫によって利用される植物のかおり情報
  • 6. 植物のかおりを用いた防衛戦略と進化
  • 7. 植物群集におけるかおりの機能
  • 8. 植物間コミュニケーションに利用される被害植物のかおり情報
  • おわりに
  • トピックスiii 植物由来のかおりが寄生バチの光応答に影響する
  • トピックスiv 植物に方言 ?! ～植物 - 植物間シグナリングにおける血縁選択～
  • 3. 植物は揮発性シグナル分子をどのように受け取るのか ?
  • はじめに
  • 1. 除虫菊のかおり ～葉から放出されるVOCs～
  • 2. 除虫菊のかおりは混合物としてコミュニケーションに利用される
  • 3. 被害植物自身の受容
  • おわりに
  • トピックスv バラのかおりの人への効果
  • トピックスvi 海藻性フェロモン ～不活性化～
  • 第2章 動物が放出するかおりとそれを利用する生物たち
  • イントロダクション
  • 1. 昆虫間で機能する多様なエコロジカルボラタイルズ
  • はじめに
  • 1. ゴキブリの性フェロモン
  • 2. カイガラムシの性フェロモン
  • 3. ガの性フェロモン
  • 3.1. 化学構造上の特徴
  • 3.2. タイプIの性フェロモン
  • 3.3. タイプIIおよびその他の性フェロモン
  • 3.4. 化学構造の決定法
  • 3.5. 分子生物学的研究
  • 4. アロモンとカイロモン
  • おわりに
  • トピックスvii 昆虫性フェロモン撹乱剤
  • 2. 捕食者の "匂い物質" が湖沼のプランクトン群集を変える
  • はじめに
  • 1. 無脊椎捕食者が関わっていた
  • 2. 魚の影響
  • 3. 水中の生きものたちのケミカルコミュニケーション
  • 4. 捕食者の匂い物質の悪影響
  • 5. ミジンコの形態変化を誘導する殺虫剤
  • 6. 殺虫剤によるケミカルコミュニケーションの撹乱
  • 3. 個体間相互作用による線虫の匂いや味の嗜好性の変化
  • はじめに
  • 1. モデル生物C. エレガンスの利用
  • 2. C. エレガンスの嗅覚可塑性
  • 3. 個体群密度に依存した分散行動
  • 4. フェロモンによる個体群密度の認識
  • 5. フェロモンが嗅覚可塑性を変化させるメカニズム
  • 6. フェロモンによる異性間のコミュニケーション
  • 7. 異性間コミュニケーションによる味の学習 : 異性学習
  • おわりに
  • 4. 哺乳類の行動を制御するエコロジカルボラタイルズと化学感覚受容体
  • はじめに
  • 1. エコロジカルボラタイルズの探索研究
  • 1.1. 哺乳類における異性誘引物質
  • 1.2. 性の情報を担い、受け手の内分泌状態に影響を与えうる物質
  • 1.3. 縄張り争いやオス同士の攻撃行動に関わる物質
  • 1.4. 母子間コミュニケーションに関わる物質
  • 1.5. 捕食者の察知に関わる物質
  • 1.6. 食物嗜好性を伝達する揮発性物質
  • 2. エコロジカルボラタイルズの受容
  • 2.1. 哺乳類の嗅覚器官
  • 2.2. 化学感覚受容体
  • 2.3. マウスが認識するエコロジカルボラタイルズと化学感覚受容体との対応付け
  • 2.4. 受容体との対応付けに基づくエコロジカルボラタイルズの探索
  • おわりに
  • 第3章 エコロジカルボラタイルズと大気化学
  • イントロダクション
  • 1. 植物起源揮発性有機化合物の大気化学
  • はじめに
  • 1. 植物起源揮発性有機化合物の大気への放出
  • 2. 植物起源揮発性有機化合物の大気中での消失
  • 2.1. 酸化開始反応
  • 2.2. BVOCの大気寿命
  • 3. BVOCの大気酸化反応
  • 3.1. OHラジカルによる酸化反応と光化学オゾン生成
  • 3.2. オゾンによるアルケン類の酸化反応
  • 4. 大気中での化学反応によるエアロゾル生成
  • おわりに
  • トピックスviii 陽子移動反応質量分析計を用いたリアルタイム計測
  • 2. 大気科学的視点から考える植物の微量ガス交換
  • はじめに ～植物によるテルペン類の放出～
  • 1. テルペン類の大気化学
  • 1.1. オゾン生成
  • 1.2. 二次有機エアロゾル生成
  • 1.3. 炭素収支への影響
  • 2. 植物の放出特性と環境要因
  • 3. 植物の微量ガス吸収機能
  • 4. 植物アロマ由来物質の吸収
  • 5. 植物のVOC交換経路
  • おわりに
  • 第4章 エコロジカルボラタイルズを応用に生かす
  • イントロダクション
  • 1. かおり成分計測による植物診断
  • はじめに
  • 1. ストレスがかおり成分放出に及ぼす影響
  • 2. 太陽光利用型植物工場におけるトマトを対象とした植物診断の例
  • 2.1. 携帯型かおり成分分析装置の概略
  • 2.2. トマトサビダニ害の検知
  • 2.3. 水ストレスの早期検知
  • 2.4. 現場での植物診断に利用可能な指標「かおりの強さ」or「かおりの質」
  • 3. 展望 ～植物診断ロボットへのかおり成分計測装置の搭載～
  • 2. かおりの生態学から害虫管理へ
  • はじめに ～動物の世界と植物の世界～
  • 1. 生態免疫系の鍛え方
  • 2. 植物を鍛える
  • 2.1 植物の選抜
  • 2.2. 植物の操作
  • 2.3. 植物の作出
  • 3. 天敵を鍛える
  • 3.1 天敵の選抜
  • 3.2. 天敵の操作
  • 3.3. 合成天敵誘引物質の使用
  • 4. 周辺環境の保全管理
  • おわりに
  • 文献
  • 索引
  • 執筆者一覧
  • 編著者紹介
  • 奥付

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