43.新刊書「ワクチン学」

(社)予防衛生協会理事
東京大学名誉教授 山内一也

 私は1956年北里研究所で天然痘ワクチンの製造と改良研究に従事したのを初めとして、国立予防衛生研究所(予研)で麻疹ワクチンの国家検定、東大医科学研究所で天然痘ワクチンをベクターとした組み換え牛疫ワクチンの開発を行ってきました。ウイルスワクチンが私の研究人生の大きな柱だったのです。その経験を通してみてきたワクチンの世界を紹介する本をこの度、細菌ワクチンの専門家の三瀬勝利先生との共著で、岩波書店から学術一般書として出版しました。三瀬先生は1963年に予研での赤痢菌ワクチンの開発研究を初めとして、各種細菌ワクチンの問題に取り組み、現在なお、医薬品医療機器総合機構のワクチン等審査部・専門委員をつとめています。私とは予研時代からの長いつきあいです。

まえがき、目次と参考文献をご紹介させていただきます。なお、まえがきに書いたように、参考文献は単行本だけにしぼったため、ここでは、元のすべての参考文献を掲載します。

 

まえがき

1980年世界保健機関(WHO)は有史以来人類を苦しめてきた天然痘が根絶されたことを宣言した。この偉業は、18世紀終わりにジェンナーが始めたワクチン接種(種痘)により達成されたのである。この時代、細菌やウイルスは発見されていなかった。細菌が発見されたのは19世紀半ば、ウイルスの発見は19世紀終わりである。ジェンナーから100年後、パスツールは細菌ワクチンとして家禽コレラ・ワクチン、炭疽ワクチンを開発し、続いて狂犬病ワクチンを開発した。細菌やウイルスの存在が認識される以前から、古典的ワクチンの時代は始まっていた。

20世紀に入って細菌学、ウイルス学が進展しはじめ、それとともに近代的ワクチンの時代に入っていった。ワクチン学という新しい学問領域が誕生したのである。続々と開発されてきたワクチンにより、ジフテリア、百日咳、ポリオ、麻疹、風疹、B型肝炎など多くの感染症が制圧されてきた。現在、WHOは全世界で年間300万人の命がワクチンにより救われていると推定している。

ワクチンには、毒性の低い細菌やウイルスを用いる生ワクチンと、細菌やウイルスを死滅させた不活化ワクチンがある。このようなワクチンを接種することにより、いわば軽い病気にかかった状態を人為的に作り出して免疫を与えているのである。病原体の弱毒化または不活化というワクチン技術は、1980年代からは、組み換えDNA技術を中心とした遺伝子工学が加わったことで、めざましい進展を示し始めている。それとともに、新しいワクチン開発の動きは21世紀に入って急加速している。エイズ、新型インフルエンザをはじめ、デング熱、マラリアなど、公衆衛生面で重要な感染症のワクチンに加えて、癌、アルツハイマー病、糖尿病といった感染症以外の病気に対するワクチン開発も活発になっている。成人病や難病などで、病気の原因物質が見つかれば、それに対する免疫治療の手段としてワクチンが注目されているのである。

個々のワクチンが生まれてきた背景を眺めてみると、そこにはさまざまな歴史があり、多くの失敗と成功の物語が存在している。ワクチンの有効性や副作用の問題を正しく理解するためには、これらの背景を認識することが求められる。そのような視点にたったワクチンの一般的解説書は、欧米ではいくつも出版されているが、日本ではごく一部を除いて皆無といってよい。そこで、ウイルス学と細菌学それぞれの専門の立場から、本書をまとめることにした次第である。ワクチンの歴史を振り返り、今後の展望を眺めてみた結果、ワクチン学の領域が予想をはるかに超えて急速に進展してきたことに改めて驚かされている。巨大製薬企業がワクチン分野に進出してきた現在、ワクチン開発はさらに加速することが予想される。本書がワクチン専門家だけでなく、医学、生物学、バイオテクノロジーなど、色々な立場からワクチンに関心を持つ多くの読者に、広大かつ深遠なワクチンの世界を理解していただくのに役立つことを期待したい。

なお、参考文献は、当初は500編を超す文献を列記する予定であったが、紙数に制約があり、一般向け学術書という趣旨から単行本だけにしぼった。

 

目次

1章 古典的ワクチンの時代

1.1.ジェンナーの種痘

①天然痘接種による予防

②種痘(牛痘)による予防

コラム:ジェンナー以前に行われていた牛痘接種

③牛での天然痘ワクチン製造

コラム:牛痘ウイルスとワクチニアウイルス

コラム:日本への種痘の導入

④種痘がもたらした天然痘根絶

1.2.パスツールの弱毒細菌ワクチン

①家禽コレラワクチン

②炭疽ワクチン

1.3.二つの古典的狂犬病ワクチン

①パスツールの狂犬病ワクチン:生ワクチンか不活化ワクチンか?

コラム:パスツールの実験ノート

コラム:狂犬病ウイルスの発見

②センプルの不活化狂犬病ワクチン

コラム:日本での狂犬病ワクチン

 

2章 近代的ウイルス・ワクチンの時代

2.1.ウイルス・ワクチンの近代化をもたらしたウイルス増殖の技術

①動物接種法

②孵化鶏卵接種法

③細胞培養法

③組み換えDNA技術

2.2.現在の主なウイルス・ワクチン

①最初の弱毒生ウイルス・ワクチン:黄熱ワクチン

②純国産の不活化日本脳炎ワクチン

コラム:米軍兵士用の不活化ワクチンの開発

③細胞培養ワクチンの黄金時代

i)ポリオワクチン

コラム:ポリオワクチン開発が提起したサル由来致死的Bウイルス感染

コラム:カッター事件

コラム:ヴェーロ細胞

ii) 麻疹ワクチン

コラム:麻疹ウイルスによる小児の神経難病・亜急性硬化性全脳炎(SSPE)

コラム:麻疹ウイルスのタイピングに貢献したB95細胞

iii) 風疹ワクチン

コラム:人2倍体細胞をめぐる問題

iv) ムンプスワクチン

コラム:MMRワクチンと自閉症の関連についてのねつ造論文が巻き起こした国際的波紋

v) 弱毒天然痘ワクチン

vi) 細胞培養狂犬病ワクチン

vii)水痘・帯状疱疹ワクチン

viii) A型肝炎ワクチン

④組み換えDNA技術または遺伝子再集合技術によるワクチン

i) 最初の組み換えワクチン・B型肝炎ワクチン

ii) 癌予防のヒトパピローマワクチン

iii)ロタワクチン:組み換えワクチン(ロタテック)と遺伝子再集合ワクチン(ロタリックス)

iv) E型肝炎ワクチン

⑤半世紀を超える改良が続くインフルエンザワクチン

コラム:リバース・ジェネティックス

 

3章 細菌学の進展と細菌ワクチン

3.1.寒天を用いた細菌の純粋培養法の導入と病原細菌学の確立

3.2.現在の主な細菌ワクチン

①最初の弱毒生ワクチンBCG

コラム:リューベック事件

コラム:結核の排除

②多種混合ワクチンの基本形・DPT3種混合ワクチン

i)トキソイドワクチンの代表・ジフテリアワクチン

コラム:トキソイドと京都・島根ジフテリア事件

コラム:ジフテリアの排除

ii)日本で生まれた最初の成分ワクチン・百日咳ワクチン

コラム:アジュバント(免疫強化補助剤))

コラム:百日咳の排除

コラム:グラム染色

iii)酸素があると増えない嫌気性菌・破傷風菌と破傷風ワクチン

コラム;芽胞

コラム:嫌気性菌

iv)DPT(ジフテリア・百日咳・破傷風)3種混合ワクチンから不活化ポリオワクチンを加えたDPT+IP4種混合ワクチンへ

③莢膜を使う成分ワクチン

i)抗生物質が効かなくなったために注目されている肺炎球菌ワクチン

ii)結合ワクチンの先駆けヒブワクチン(インフルエンザb型菌)

コラム:結合ワクチン

iii)流行性髄膜炎ワクチン(髄膜炎菌性髄膜炎ワクチン)

④レプトスピラ症ワクチン

 

4章 新しいワクチン開発

4.1.世界的規模のウイルス感染症に対するワクチン

①エイズワクチン

コラム:HIVの増殖様式

コラム:ベクターワクチン

②ノロウイルスワクチン

③C型肝炎ワクチン

④RSウイルスワクチン

4.2.一定地域に常在する感染症に対するワクチン

①デング熱ワクチン

②西ナイルウイルスワクチン

③マラリアワクチン

4.3.エマージング(新規出現)ウイルスに対するワクチン

①サーズワクチン

②ヘンドラ・ニパワクチン

4.4.主な細菌感染に対するワクチン

①コレラワクチン

②腸チフスワクチン

③胃がんと胃潰瘍予防のためのピロリ菌ワクチン

④腸管出血性大腸菌・志賀型赤痢菌予防ワクチン

⑤その他の開発中の細菌性ワクチン

4.5.感染症以外に対するワクチン

①癌ワクチン

②アルツハイマー病ワクチン

③高血圧ワクチン

④糖尿病ワクチン

⑤避妊ワクチン

⑥アレルギーワクチン

⑦その他のワクチン

 

5章 動物用ワクチン

5.1.動物用ワクチンの特徴

5.2.代表的家畜伝染病ワクチン

①口蹄疫ワクチン

②鳥インフルエンザワクチン

5.3.人の健康保護のための動物用ワクチン

①野生動物用の経口狂犬病ワクチン

②牛用のO157ワクチンと鶏用のサルモネラワクチン

 

6章 日本における予防接種の現状とワクチン行政の欠陥

 

 

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4章

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