Korean Journal of Environmental Biology (환경생물)

Korean Society of Environmental Biology (한국환경생물학회)
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Importance of Polar Phytoplankton for the Global Environmental Change

전 지구 환경변화에 대한 극지 식물플랑크톤의 중요성

  • 강성호 (한국해양연구소 극지연구센터) ;
  • 강재신 (한국해양연구소 극지연구센터) ;
  • 이상훈 (한국해양연구소 극지연구센터) ;
  • 김동선 (한국해양연구소 극지연구센터) ;
  • 김동엽 (한국해양연구소 극지연구센터)
  • Published : 2000.03.01
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Abstract

There are increasing evidences of climate change in the Antarctic and Arctic Oceans, especially elevated temperature due to the continuous burning of the fossil fuels and ultraviolet B(UV-B) flux within the ozone hole. Light-dependent, temperature-sensitive, and fast-growing organisms respond to these physical and biogeochemical changes. Polar marine phytoplankton, which are pioneer endemic species and important carbon contributors in the polar waters, are therefore highly suitable biological indicators of such changes. By virtue of light requirement, the primary producers are exposed to extreme seasonal fluctuations in temperature, photosynthetically active radiation, and UV radiation. Local environmental warming and increased UV-B radiation during ozone depletion may have profound effects on the primary producers that are primary carbon producers in the polar water. Small changes in climate temperature and solar radiation may have profound effects on the activity threshold of the polar phytoplanktion. To demonstrate biological response to the environmental changes, standardized representative natural and biological parameters are needed so that replicate samples (including controls) can be taken over extended periods of time. In this paper, we review general characteristics of polar phytoplankton, their environment, environmental changes in the polar waters, the effects on the environmental changes to the polar phytoplankton, and the importance of the polar phytoplankton to understand the global environmental changes. [Biological indicators, Global environmental change, Polar phytoplankton, UV].

최근 극지 해양 생태계는 화석연료 사용의 증가로 인한 지구 온난화, 오존층 파괴에 의한 자외선 증가 등과 같은 전 지구 환경변화에 영향을 받고 있다. 지구 온난화와 오존층 파괴에 의한 수온 상승, 빙하 후퇴, 해수면 상승, 해빙 분포 변화, 자외선 증가 등으로 인해 극지 해양 생물들의 성장 환경이 변화하는 등 여러 가지 증후들이 극지 해양 생태계에 나타나고 있다. 특히 빛을 에너지원으로 하고, 온도에 민감하며, 빠르게 성장하는 일차생산자들인 식물풀랑크톤들이 극지 해양의 물리적, 생지화학적 환경 변화에 가장 민감하게 영향을 받고 있다. 전체 극지 해양 생태계를 유지하기 위한 주요 탄소 공급원인 식물플랑크톤의 변화는 전체 극지 해양 생태계의 변화를 의미한다. 식물플랑크톤들은 오랜 기간 극한 환경에 적응하여 왔기 때문에 미세한 환경변화를 쉽게 감지하고 감시하기 위한 생물학적 환경 변화 지표종으로 이용될 수 있다. 전 지구 환경변화에 따른 극지 해양 생태계의 변화 양상을 이해하기 위해서는 환경 변화에 민감하게 반응하는 극지 식물플랑크톤에 대한 연구가 선행되어야 하며 표준화되고 대표적인 식물플랑크톤 지표종의 선정이 필요하다. 이 총설에서는 극지 식물풀랑크톤의 일반적인 특징, 서식환경, 극지 해양의 환경 변화, 환경 변화에 따른 식물플랑크톤의 영향, 전 지구 환경변화를 이해하기 위한 극지 식물플랑크톤의 중요성에 대한 최근 연구 동향이 정리되어 있다.

Keywords

References

  1. Polar Biol. v.17 Diatom composition and Biomass variability in near-shore waters of Maxwell Bay, Antarctica, during the 1992/1993 austral summer Ahn IY;H Chung;JS Kang;SH Kang
  2. Science v.232 Antarctic mesopelagic micronekton: Evidence from seabirds that pack ice affects community structure Ainley DG;WR Fraser;CW Sullivan;JJ Torres;TL Hopkins;WO Smith, Jr.
  3. Limnol. Oceanogr. v.26 Oceanography of the eastern Bering Sea ice-edge in spring Alexander V;HJ Neibauer
  4. J. of Geophy. Res. v.103 Primary production in southern ocean waters Arriga KR;D Worthen;A Schnell;MP Lizotte
  5. J. Exp. Mar. Biol. Ecol. v.181 Seasonal variation in the feeding activity of four species of Antarctic bryozoan in relation to environmental factors Barnes DK;AA Clarke
  6. Nature v.329 Vostok ice core provides 160,000 year record of atmospheric CO₂ Barnola JM;D Raynaud;YS Korotkevich;C Lorius
  7. Nature v.329 Evidence for the climatic role of marine biogenic sulphur Bates TS;RJ Charlson;RH Gammon
  8. Particle Flux in the Ocean Abiotic and Biotic Forcing on Vertical Particle Flux in the Southern Ocean Bathmann UV;Ittekkot V(ed.);P Schafer(ed.);S Honjo(ed.);PJ Depetris(ed.)
  9. Productivity of the Ocean: Present and Past Ocean productivity and paleoproductivity-an overview Berger WH;VS Smetacek;G Wefer;Berger WH(ed.);VS Smetacek(ed.);G Wefer(ed.)
  10. Radiocarbon v.22 Information on the CO₂ cycle from ice core studies Berner W;H Oeschger;B Stauffer
  11. Antarc. Res. Ser. v.70 Phytoplankton: Quantitative and qualitative assesments, Foundation for ecological research of the Antartic Peninsula Bidigare RR;JL Iriarte;SH Kang;D Karentz;ME Ondrusek;GA Fryxell
  12. Deep-Sea Res. v.42 Water column and sea-ice primary production during austral spring in the Bellingshausen Sea Boyd PW;C Robinson;G Savidge;PJ le Williams
  13. Limnol. Oceanogr. v.28 Optical efficiency factors of some phytoplankton Bradstreet MSW;WE Cross
  14. Antarc. Sci. v.6 Wind field effect on hydrography and chlorophyll dynamics in the coastal pelagial of Admiralty Bay, King George Island, Antarctica Brandini FP;J Rebello
  15. Geochem. Cosmochem. Acta v.46 Ocean chemistry during glacial time Broecker WS
  16. Nature v.283 The ecological significance of solar UV radiation on aquatic organisms Calkins J;T Thordardottir
  17. Nature v.326 Oceanic phytoplankton, atmospheric sulphur, cloud albedo and climate Charlson RJ;IE Lovelock;MO Andreae;SG Warren
  18. Br. Antarct. Surv. Bull. v.80 The annual cycle of temperature, chlorophyll, and major nutrients at Signy Island, South Orkney Islands, 1969~82 Clarke A;LJ Holmes;MG White
  19. Limnol. Oceanogr. v.41 The seasonal cycle of phytoplankton, macronutrients, and the microbial community in a nearshore Antarctic marine ecosystem Clarke A;RJG Leaky
  20. J. Geophys. Res. v.95 Satellite ocean color studies of Antarctic ice edges in summer/autumn Comiso JC;NG Maynard;WO Smith Jr.;CW Sullivan
  21. Deep-Sea Res. v.37 Bacterioplankton in the marginal ice zone of the Weddell Sea: biomass, production and metabolic activities during austral autumn Cota GF;ST Kottmeier;DH Robinson;WO Smith Jr.;CW Sullivan
  22. Polar Biol. v.12 Protist interactions and carbon dynamics of a Phaeocystis-dominated bloom at an Antarctic coastal site Davidson AT;HJ Marchant
  23. Ultravioler Radiation and Biological Research in Antarcrica Antarctic Research Series 62 The impact of ultraviolet radiation on Phaeocystis and selected species of Antarctic marine diatoms Davidson AT;HJ Marchant;Weiler CS(ed.);Penhale PA(ed.)
  24. Polar Biol. v.7 The in situ photobiology of Antarctic Phaeocystis and selected diatom species Davidson AT;HJ Marchant
  25. Polar Biol. v.6 Distribution patterns of benthic microalgal standing stock at McMurdo Sound, Antarctica Dayton PK;D Watson;A Palmisano;JP Barry;JS Oliver;D Rivera
  26. Deep-Sea Res. v.29 Physical and biological zonation in the Southern Ocean Deacon GER
  27. Antarctic Research Series 17, Biology of the Antarctic Seas Ⅳ Observations on phytoplankton bloom in the Weddell sea El-Sayed SZ;Llano GA(ed.);IE Wallen(ed.)
  28. Marine phytoplankton and productivity Productivity of the Antarctic waters - a reappraisal El-Sayed SZ;Holm-Hansen O(ed.);L Boris(ed.);R Gilles(ed.)
  29. Natur. Hist. v.10 Fragile life under the ozone hole El-Sayed SZ
  30. Deep-Sea Res. v.28 Primary production and standing crop of phytoplankton along the ice-edge in the Weddell Sea El-Sayed SZ;S Taguchi
  31. Hydrobiologia v.139 Observations of seasonal changes in diatoms at inshore localities near Davis Station, East Antarctica Everitt DA;DP Thomas
  32. Science v.241 Ultraviolet radiation levels during the Antarctic spring Frederick JE;HE Snell
  33. Deep-Sea Res. v.35 Austral spring microalgae across the Weddell Sea ice edge: spatial relation ships found along a northward transect during AMERIEZ 83 Fryxell GA;GA Kendrick
  34. Polar Biol. v.10 The biota of Antarctic pack ice in the Weddell Sea and Antarctic Peninsular regions Garrison DL;KR Buck
  35. Nature v.306 A physical mechanism for establishing algal populations in frazil ice Garrison DL;SF Ackley;KR Buck
  36. J. Phycol. v.23 Algal assemblages in the Antarctic pack ice and in ice-edge plankton Garrison DL;KR Buck;GA Fryxell
  37. Mar. Biol. v.104 Dimethylsulflde and the alga Phaeocystis pouchetii in Antarctic coastal waters Gibson JAE;RC Garrick;HR Burton;AR McTAggart
  38. BIOMASS Newsl. v.12 Transmission of ultraviolet light in the Weddell Sea: report of the first measurements made in the Antarctic Gieskes WWC;GW Kraay
  39. Estua., Coast. and Shelf Sci. v.33 Microphytobenthic seasonality in nearshore marine sediments at Signey Island, South Orkney Islands, Antarctica Gilbert NS
  40. J. Cons., Cons. Int. Explor. Mer. v.75 On the conditions for the production of plankton in the sea Gran HH
  41. Photochem. Photobiol. v.53 Effects of enhanced solar ultraviolet radiation on aquatic ecosystems Hader DP;RC Worrest
  42. Discovery Rep. v.8 On the phytoplankton of the south-west Atlantic and Bellingshausen Sea Hart TJ
  43. Hvalradets Skrifter. v.52 An analysis of the phytoplankton of the Pacific Southern Ocean: Abundance, composition, and distribution during the Brategg Expedition, 1947~1948 Hasle GR
  44. J. Exper. Mar. Biol. Ecol. v.204 Photoacclimatin of antarctic marine diatoms to solar ultraviolet radiation Helbling EW;BE Chalker;WC Dunlap;O Holm-Hansen;VE Villafa$\%{n}$e
  45. Ultraviolet Radiation and Biological Research in Antarcrica;Antarctic Research Series 62 Effects of ultraviolet radiation on Antarctic marine phytoplankton photosvnthesis with particular attention to the influences of mixing Helbling EW;V Villafa$\%{n}$e;O Holm-Hansen;Weiler CS(ed.);PA Penhale(ed.)
  46. Antarctic nutrient cycles and food webs Alternate carbon pathways at lower trophic levels in the Antarctic food web Hewes CD;O Holm-Hansen;E Sakshaug;Siegried WR(ed.);PR Condy(ed.);RM Laws(ed.)
  47. Deep-Sea Res. v.38 Spatial and temporal distribution of phytoplankton and primary production in the western Bransfield Strait region Holm-Hansen O;BG Mitchell
  48. Adaptations within Antarctic Ecosystems Primary production and the factors controlling phytoplankton growth in the Southern Ocean Holm-Hansen O;SZ El-Sayed;GA Franceschini;RL Cuhel;Llano GA(ed.)
  49. Particle Flux in the Ocean Fluxes of particles to the interior of the open oceans Honjo S;Ittekkot V(ed.);P Schafer(ed.);S Honjo(ed.);PJ Depetris(ed.)
  50. Nature v.281 Chlorophyll and nitrate fine structure in the southeastern Bering Sea shelf break front Iverson Rl;TE Whitledge;JJ Goering
  51. Korean J. Polar Res. v.8 Antartic micro- and nano-phytoplankton assemblages in the surface water of Maxwell Bay during the 1997 austral summer Kang JS;SH Kang;JH Lee;KH Chung;MY Lee
  52. Proceedings of the Ocean Drilling Program, Scientific Results Most abundant diatom species in water column assemblages from five ODP Leg 119 drill sites in Prydz Bay, Antarctica: Distributional patterns Kang SH;GA Fryxell
  53. Polar Biol. v.12 Fragilariopsis cylindrus(Grunow) Krieger: The most abundant diatom in water column assemblages of Antarctic marginal ice edge znes Kang SH;GA Fryxell
  54. Mar. Biol. v.116 Phytoplankton in the Weddell Sea, Antarctica: Composition, abundance and the distribution in water column assemblages of the marginal ice-edge zone during austral autumn Kang SH;GA Fryxell
  55. Korean J. Polar Res. v.9 Phaeocystis antarctica Karsten as an indicator species of environmental changes in the Antarctic Kang SH;JS Kang
  56. Mar. Ecol. Prog. Ser. v.129 Antarctic phytoplankton assemblage in the western Bransfield Strait region, February, 1993: composition, biomass, and mesoscale distributions Kang SH;SH Lee
  57. Nova Hedwigia v.106 Fragilriopsis cylindrus compared with other species of the diatom family Bacillariaceae in Antarctic marginal ice edge zones Kang SH;GA Fryxell;DL Roelke
  58. Korea J. Polar Res. v.4 Phytoplankton populations in the western Brans field Strait and the southern Drake Passage, Antarctica Kang SH;MS Suk;CS Chung;SY Nam;CY Kang
  59. Korea J. Polar Res. v.6 Antarctic phytoplankton in the eastern Bransfield Strait region and in the northwestern Weddell Sea marginal ice zone during austral summer Kang SH;DY Kim;JS Kang;MY Lee;SH Lee
  60. Korea J. Polar Res. v.8 Seasonal variation of environmental factors and nearshore microalgae in Marian Cove, King George Island, Antarctica Kang SH;JS Kang;KH Chung;MY Lee;BY Lee;H Chung;YD Kim;DY Kim
  61. Antarc. Sci. v.3 Ecological considerations of Antarctic ozone depletion Karentz D
  62. Ultraviolet Radiation and Biological Research in Antarcrica Antarcnx Research Senes 62 Ultraviolet tolerance mechanisms in Antarctic manne organisms Karentz D;Weiler CS(ed.);PA Penhale(ed.)
  63. J. Plan. Res. v.17 Response of a natural Phaeocystis population to ambient fluctuations of UVB radiation caused by Antarctic ozone depletion Karentz D;HJ Spero
  64. J. Phycol. v.27 Cell survival characteristics and molecular responses of Antarctic phytoplankton to ultraviolet-B radiation Karentz D;JE Cleaver;DL Mitchell
  65. Mar. Biol. v.108 Survey of mycosporine-like amino acid compounds in Antarctic marine organisms: Potential protection from ultraviolet exposure Karentz D;FS McEuen;MC Land;WC Dunlap
  66. J. Marine Systems v.4 Seasonal variation of algal growth conditions in sheltered Antarctic bays: the example of Potter Cove Kl$\"{o}$ser H;G Ferreyra;I Schloss;G Mercuri;F Laturnus;A Curtosi
  67. Mar. Ecol. Prog. Ser. v.30 Inorganic nitrogen metabolism by Antarctic phytoplankton with special reference to ammonium cycling Koike I;O Holm-Hansen;DC Biggs
  68. Nature v.378 Increased biological productivity and export production in the glacial southern ocean Kumar, N;RF Anderson;RA Mortlock;PN Froelich;P Kubik;B Dittrich-Hannen;M Suter
  69. Korea J. Polar Res. v.6 Distribution and biomass of phytoplankton and bacterioplankton: relationships to environmental parameters during an Antarctic austral summer in the Bransfield Strait Lee MY;SH Kang;S Lee;KH Chung;JK Choi
  70. Geophys. Res. Let. v.16 Measuremants of enhanced springtime ultraviolet radiation at Palmer Station, Antarctica Lubin D;JE Frederick;CR Booth;T Luck;D Neuschula
  71. Proceedings of the International Conference on the Role of Polar Regions in Global Change Possible impacts of ozone depletion on trophic interactions and biogenic vertical carbon flux in the Southern Ocean Marchant HJ;AT Davidson;Wdla G(ed.);CL Wilson(ed.);BAB Severin(ed.)
  72. Mar. Biol. v.109 UV-B protecting pigments in the marine alga Phacocystis pouchetii from Antarctica Marhant HJ;AT Davidson;GJ Kelly
  73. J. Cons., Cons. Int. Explor. Mer. v.23 Primary production in the arctic Marshall PT
  74. J. Plankton Res. v.6 Daylight ultraviolet radiation and the photoinhibi-tion of phytoplankton carbon uptake Maske H
  75. Mar. Sci. Commun. v.2 Annual budget of primary production in the Bering Sea McRoy CP;JJ Goering
  76. Antarctic. J. US. v.24 Ultraviolet light attenuation in Antarctic waters in relation to particulate absorption and photosynthesis Mitchell BG;M Vernet;O Holm-Hansen
  77. J. Geophys. Res. v.92 Spring distributions of density, nutrients, and phytoplankton biomass in the ice edge zone of the WeddellScotia Sea Nelson DM;WO Smith JR;LI Gordon;LI Huber
  78. Deep-Sea Res. v.36 Particulate matter and nutrient distributions in the ice-edge zone of the Weddell Sea: Relationship to hydrography during late summer Nelson DM;WO Smith Jr;RD Muench;LI Gordon;CW Sullivan;DM Husby
  79. Polar Biol. v.21 Phytoplankton biomass and primary production in the marginal ice zone of the northwestern Weddell Sea during austral summer Park MK;SR Yang;SH Kang;KH Chung;JH Shim
  80. Hydrobiologia v.146 Seasonal variation in marine phytoplankton and ice algae at a shallow antarctic coastal site Perrin RA;P Lu;HJ Marchant
  81. Photosynthesis and productivity in different environment Primary production of marine microphytes Platt T;DV Subba Rao;Cooper JP(ed.)
  82. Marine Biology of Polar Regions and Effects of Stress on Marine Organisms The influence of ice and hydrographic conditions on the development of phytoplankton in the Barents Sea Rey F;H Loeng;Gray JS;ME Christiansen(ed.)
  83. Marine Phytoplankton and Productivity Factors governing pelagic production in polar oceans Sakshaug E;O Holm-Hansen;Holm-Hansen O(ed.);L Bolis(ed.);Gilles R(ed.)
  84. Southern Ocean ecology, the BIOMASS perspective Discussant, s report: Primary production in the Antarctic pelagial a view from the 4north Sakshaug E;El-Sayed SZ(ed.)
  85. Antarctic Ecosystems: Ecoloogical Change and Conservation Seasonal and Regional Variability in the Pelagial and its Relationship to the Life History of Krill Smetacek V;R Scharek;EM Nothig;Kerry KR(ed.);G Hempel(ed.)
  86. Deep-Sea Res. v.44 Ecology and biogeochemistry of the Antarctic Circumpolar Current during austral spring: a summary of Southern Ocean JGOFS cruise ANT X/6 of R. V. Polarstern Smetacek V;HJW Baar;UV Bathmann;K Lochte;MM Rutgers van der Loeff
  87. Photochem. Photobiol. v.50 Ozone, middle ultraviolet radiation and the aquatic environment Smith RC
  88. Oceanography v.2 Stratospheric ozone, middle ultraviolet radiation and phytoplankton productivity Smith RC;KS Baker
  89. J. Mar. Res. v.43 Biological observations in the marginal ice zone of the East Greenland Sea Smith SL;WO Smith Jr;LA Codispoti;DL Wilson
  90. Annual Review of Oceanography and Marine Biology v.25 Phytoplankton dynamics in marginal ice zones Smith WO Jr
  91. Science v.227 Phytoplankton bloom produced by a receding ice edge in the Ross Sea: Spatial coherence with the density field Smith WO Jr;DM Nelson
  92. BioScience v.36 Importance of ice-edge phytoplankton production in the Southern Ocean Smith WO Jr;DM Nelson
  93. Limnol. Oceanogr. v.35 Phytoplankton growth and new production in the Weddell Sea marginal ice zone in the austral spring and autumn Smith WO Jr;DM Nelson
  94. Polar Oceaongraphy Part B Chemistriy, Biology, and Geology Polar Phytoplankton Smith WO Jr;E Sakshaug;Smith WO Jr.(ed.)
  95. J. Geophys. Res. v.92 Phytoplankton biomass and productivity in the marginal ice zone of the Fram Strait during summer 1984 Smith Wo Jr;MEM Baumann;DL Wilson;L Aletsee
  96. Science v.255 Ozone depletion: Ultraviolet radiation and phytoplankton biology in Antarctic waters Smith RC;BB Prezelin;KS Baker;RR Bidigare;NP Boucher;T Coley;D Karentz;S Macintyre;HA Matlick;D Menzies;M Ondrusek;Z Wan;KJ Waters
  97. Report for 1992~93. The reports of JGOFS meetings held in Carqueiranne, France, September 1993 JGOFS(Joint Global Ocean Flux Study) Southern Ocean Planning Group Southern Ocean JGOFS
  98. Nature v.322 Nimbus 7 satellite measurements of the springtime Antarctic ozone decrease Stolarski RS;AJ Krueger;MR Schoeberl;RD McPeters;PA Newman;JC Alpert
  99. Polar Biol. v.3 Primary production of Arctic waters Subba Rao DV;T Platt
  100. J. Geophys. Res. v.93 Phytoplankton standing crops within an Antarctic ice edge assessed by satellite remote sensing Sullivan CW;CR McClain;JC Comiso;WO Smith JR
  101. Mar. Eco. Prog. Ser. v.63 Distribution and activity of bacterioplankton in the marginal ice zone of the Weddell-Scotia Sea during austral spring Sullivan CW;GF Cota;DW Krempin;WO Smith Jr
  102. DOEE Technical Report MRETTA 19X-89675C Seasonal and geographic variability of carbon dioxide sink/source in the oceanic areas: observations in the North and Equatorial Pacific Ocean, 1984~1986 and global summary Takahashi T;J Goddard;S Sutherland;DW Chipman;CC Breeze
  103. Deep-Sea Res. v.42 A biogeochemical study in the Bellingshausen Sea: overview of the STERNA 1992 expedition Turner DR;NJP Owens
  104. Ultraviolet radiation in Antarctica: Measurements and biological effects The response of Antarctic phytoplankton to ultraviolet radiation: absorption, photosynthesis, and taxonomic composition Vernet M;EA Brody;O Holm-Hansen;BG Mitchell;Weiler CS(ed.);PA Penhale(ed.)
  105. J. Plankton Res. v.17 Acclimatization of Antarctic natural phytoplankton assemblages when exposed to solar ultraviolet radiation Villafa$\%{n}$e V;EW Helbling;O Holm-Hansen;BG Mitchell
  106. Def. Fund Ominous future under the ozone hole: Assessing biological impacts in Antarctica, report, Environ Voytek MA
  107. Ambio v.19 Addressing the biological effects of decreased ozone on the Antarctic environment Voytek MA
  108. Korean J. Polar Res. v.9 Carbon and nitrogen productivities in the Weddell Sea and the Bransfield Strait, Antarctica, The 5th International symposium on Antarctic Science Yang SR;SH Kang;S Lee
  109. J. Geophys. Res. v.84 Interannual atmospheric variability and associated fluctuation in the Arctic Sea ice extent Walsh JE;CM Johnson
  110. Natl. Aeronaut. and Space Admin. Antarctic sea ice, 1973~1976: Satellite passive-microwave observations Zwally HJ;JC Comiso;CL Parkinson;WJ Campbell;FD CArsey;P Gloersen