大量絶滅の引き金になった食物連鎖の崩壊(<特集2>白亜紀末の大量絶滅事変に残る謎)

白亜紀/古第三紀境界の大量絶滅は、地球史の中でも有数規模であった。絶滅は、特に光合成生物とそれを直接的な基盤とする生食連鎖に属する生物について顕著であるのに対し、いわゆる腐食連鎖に属していたと考えられる生物は大きな被害を受けていない。また、石灰質の殻を持つ海洋生物の絶滅率が突出して高いという特徴がある。絶滅を引き起こした原因として、直径10kmの小惑星の地球への衝突が引き金となり、その後に発生した複合的な環境変動が考えられる。具体的には、太陽光の遮断による光合成の停止と寒冷化、酸性雨や有毒物質による陸上・海洋の汚染、そして輻射熱による地表面の高温化などが、大量絶滅パターンを説明できる環境変動と...

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Published inNihon Seitai Gakkai shi Vol. 64; no. 1; pp. 39 - 46
Main Author 後藤, 和久
Format Journal Article
LanguageJapanese
Published 一般社団法人 日本生態学会 2014
The Ecological Society of Japan
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Online AccessGet full text
ISSN0021-5007
2424-127X
DOI10.18960/seitai.64.1_39

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Abstract 白亜紀/古第三紀境界の大量絶滅は、地球史の中でも有数規模であった。絶滅は、特に光合成生物とそれを直接的な基盤とする生食連鎖に属する生物について顕著であるのに対し、いわゆる腐食連鎖に属していたと考えられる生物は大きな被害を受けていない。また、石灰質の殻を持つ海洋生物の絶滅率が突出して高いという特徴がある。絶滅を引き起こした原因として、直径10kmの小惑星の地球への衝突が引き金となり、その後に発生した複合的な環境変動が考えられる。具体的には、太陽光の遮断による光合成の停止と寒冷化、酸性雨や有毒物質による陸上・海洋の汚染、そして輻射熱による地表面の高温化などが、大量絶滅パターンを説明できる環境変動として挙げられる。今後、生態学的研究により、観測されている絶滅パターンを再現するために必要な環境変動の規模や持続時間を解明することが望まれる。
AbstractList 白亜紀/古第三紀境界の大量絶滅は、地球史の中でも有数規模であった。絶滅は、特に光合成生物とそれを直接的な基盤とする生食連鎖に属する生物について顕著であるのに対し、いわゆる腐食連鎖に属していたと考えられる生物は大きな被害を受けていない。また、石灰質の殻を持つ海洋生物の絶滅率が突出して高いという特徴がある。絶滅を引き起こした原因として、直径10kmの小惑星の地球への衝突が引き金となり、その後に発生した複合的な環境変動が考えられる。具体的には、太陽光の遮断による光合成の停止と寒冷化、酸性雨や有毒物質による陸上・海洋の汚染、そして輻射熱による地表面の高温化などが、大量絶滅パターンを説明できる環境変動として挙げられる。今後、生態学的研究により、観測されている絶滅パターンを再現するために必要な環境変動の規模や持続時間を解明することが望まれる。
Author 後藤, 和久
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– reference: Orth CJ, Gilmore JS, Knight JD, Pillmore CL, Tschudy RH,Fassett JE (1981) An iridium abundance anomaly at thepalynological Cretaceous-Tertiary boundary in northern NewMexico. Science, 214:1341-1343
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– reference: 大野 宗祐 (2014) 天体衝突が引き起こす環境変動と大量絶滅. 日本生態学会誌, 64:55-62
– reference: D’Hondt S, Pilson MEQ, Sigurdsson H, Hanson A, Carey S(1994) Surface-water acidification and extinction at theCretaceous-Tertiary boundary. Geology, 22:983-986
– reference: D’Hondt S, Donaghay P, Zachos JC, Luttenberg D, LindingerM (1998) Organic Carbon Fluxes and Ecological Recoveryfrom the Cretaceous-Tertiary Mass Extinction. Science,282:276-289
– reference: Belcher CM, Finch P, Collinson ME, Scott AC, GrassineauNV (2009) Geochemical Evidence for Combustion ofHydrocarbons During the K-T Impact Event. Proceedings ofthe National Academy of Sciences, 106:4112-4117
– reference: 平野 弘道 (2006) 絶滅古生物学. 岩波書店, 東京
– reference: MacRae RA, Fensome RA, Williams GL (1996) FossilDinoflagellate diversity, originations, and extinctions andtheir significance. Canadian Journal of Botany, 74:1687-1694
– reference: Vajda V, McLoughlin S (2004) Fungal Proliferation at theCretaceous-Tertiary Boundary. Science, 303:1489
– reference: Pope KO, Baines KH, Ocampo AC, Ivanov B (1997) Energy,volatile production, and climatic effects of the ChicxulubCretaceous/Tertiary impact. Journal of Geophysical Research,102:21645-21664
– reference: D’Hondt S (2005) Consequences of the Cretaceous/Paleogenemass extinction for marine ecosystems. Annual Review ofEcology Evolution and Systematics, 36:295-317
– reference: Erickson DJ III, Dickson SM (1987) Global trace elementbiogeochemistry at the K/T boundary: The oceanic andbiotic response to a hypothetical meteorite impact. Geology,15:1014-1017
– reference: Maruoka T, Koeberl C (2003) Acid-neutralizing scenario afterthe Cretaceous-Tertiary impact event. Geology, 31:489-492
– reference: Robertson DS, McKenna MC, Toon OB, Hope S, LillegravenJA (2004) Survival in the first hours of the Cenozoic.Geological Society of America Bulletin, 116:760-768
– reference: Toon OB, Zahnle K, Morrison D, Turco RP, Covey C (1997)Environmental perturbations caused by the impacts ofasteroids and comets. Review of Geophysics, 35:41-78
– reference: 後藤, 和久 (2011) 決着!恐竜絶滅論争.岩波科学ライブラリー186巻. 岩波書店, 東京
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– reference: Belcher CM, Collinson ME, Scott AC (2005) Constraints on theThermal Power Released from the Chicxulub Impactor: NewEvidence from Multi-Method Charcoal Analysis. Journal ofthe Geological Society of London, 162:591-602
– reference: Jiang S, Bralower TJ, Patzkowsky ME, Kump LR, SchuethJD (2010) Geographic controls on nannoplankton extinctionacross the Cretaceous/Palaeogene boundary. NatureGeoscience, 3:280-285
– reference: Gupta SC, Ahrens TJ, Yang W (2001) Shock-inducedvaporization of anhydrite and global cooling from the K/Timpact. Earth and Planetary Science Letters, 188:399-412
– reference: Habib D, Moshkovitz S, Kramer C (1992) Dinoflagellateand calcareous nannofossil response to sea-level change inCretaceous-Tertiary boundary sections. Geology, 20:165-168
– reference: Toon OB, Pollack JP, Ackerman TP, Turco RP, McKay CP, LiuMS (1982) Evolution of an impact generated dust cloud andits effects on the atmosphere. Geological Society of AmericaSpecial Paper, 190:187-200
– reference: Sheehan PM, Coorough PJ, Fastovsky DE (1996) Bioticselectivity during the K/T and Late Ordovician extinctionevents. Geological Society of America Special Paper,307:477-489
– reference: Cavin I (2001) Effects of the Cretaceous-Tertiary boundaryevent on bony fishes. In: Buffetaut E, Koeberl G (eds),Geological and biological effects of impact events, 141-158.Springer Verlag, Berlin, Germany
– reference: Hildebrand AR, Penfield GT, Kring DA, Pilkington M, AntonioCZ, Jacobsen SB, Boynton WV (1991) Chicxulub crater: apossible Cretaceous/Tertiary boundary impact crater on theYucatán Peninsula, Mexico. Geology, 19:867-871
– reference: Kitchell JA, Clark DL, Gombos AM (1986) Biologicalselectivity of extinction: a link between background andmass extinction. Palaios, 1:504-511
– reference: Pospichal JJ (1994) Calcareous nannofossils at the K/Tboundary, El Kef: No evidence for stepwise, gradual orsequential extinctions. Geology, 22:99-102
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Snippet 白亜紀/古第三紀境界の大量絶滅は、地球史の中でも有数規模であった。絶滅は、特に光合成生物とそれを直接的な基盤とする生食連鎖に属する生物について顕著であるのに...
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SubjectTerms 光合成
大量絶滅
小惑星衝突
白亜紀/古第三紀境界
Title 大量絶滅の引き金になった食物連鎖の崩壊(<特集2>白亜紀末の大量絶滅事変に残る謎)
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