Библиография

ВВЕДЕНИЕ

Belcher G. A., Tarling C., Manno A., Atkinson A., Ward P., Skaret G., Fielding S., Henson S. A., Sanders R. The potential role of Antarctic krill faecal pellets in efficient carbon export at the marginal ice zone of the South Orkney Islands in spring // Polar Biology 40 (2017). P. 2001–2013.

Shackleton E. H. South: the Story of Shackleton’s Last Expedition, 1914–1917. London: William Heinemann, 1919. (Ch. 9: The boat journey.)

The Water Cycle. University Corporation for Atmospheric Research, Center for Science Education. https://scied.ucar.edu/learning-zone/how-weather-works/water-cycle.

ГЛАВА 1

ФИЗИКА МОРЯ

Morrison A. K., Frölicher T. L., Sarmiento J. L. Upwelling in the Southern Ocean // Physics Today 68 (2015).

Проект NELHA

Fujita R., Markham A. C., Diaz J. E., Martinez Garcia J. R., Scarborough C., Greenfield P., Black P., Aguilera S. E. Revisiting ocean thermal energy conversion // Marine Policy 36 (2012). P. 463–465.

Toyama G. Deep ocean water as a catalyst for economic development at NELHA (Natural Energy Laboratory of Hawai’i Authority) // Deep Ocean Water Research 11 (2010). P. 21–23.

War J. C. Land based temperate species mariculture in warm tropical Hawai’i // Oceans’11 MTS/IEEE KONA (2011). P. 1–8. https://doi.org/10.23919/OCEANS.2011.6107220.

Энергетический баланс

Kren A. C., Pilewskie P., Coddington O. Where does Earth’s atmosphere get its energy? // Journal of Space Weather, Space Climate 7 (2017). P. A10.

Lee Zh., Hu Ch., Shang Sh., Du K., Lewis M., Arnone R., Brewin R. Penetration of UV-visible solar radiation in the global oceans: insights from ocean color remote sensing // Journal of Geophysical Research: Oceans 118 (2013). P. 4241–4255.

Nuclear Power in the World Today. World Nuclear Association October 2022. https://www.world-nuclear.org/information-library/current-and-future-generation/nuclear-power-in-the-world-today.aspx.

Wild M., Folini D., Hakuba M. Z., Schär C., Seneviratne S. I., Kato S., Rutan D., Ammann C., Wood E. F., König-Langlo G. The energy balance over land, oceans: an assessment based on direct observations, CMIP5 climate models // Climate Dynamics 44 (2015). P. 3393–3429. https://doi.org/10.1007/s00382-014-2430-z.

Wong E. W., Minnett P. J. The response of the ocean thermal skin layer to variations in incident infra-red radiation // Journal of Geophysical Research: Oceans 123 (2018). P. 2475–2493. https://doi.org/10.1002/2017JC013351.

Гренландская полярная акула

Costantini D., Smith Sh., Killen Sh. S., Nielsen J., Steffensen J. F. The Greenland shark: a new challenge for the oxidative stress theory of ageing? // Comparative Biochemistry, Physiology Part A: Molecular & Integrative Physiology 203 (2017). P. 227–232.

Devine B. M., Wheeland L. J., Fisher J. A. D. First estimates of Greenland shark (Somniosus microcephalus) local abundances in Arctic waters // Scientific Reports 8 (2018). P. 1–10.

Ibrahim A., Olsen A., Lauvset S., Rey F. Seasonal variations of the surface nutrients, hydrography in the Norwegian Sea // International Journal of Environmental Science, Development 5 (2014). P. 496–505.

MacNeil M. A., McMeans B. C., Hussey N. E., Vecsei P., Svavarsson J., Kovacs K. M., Lydersen C., Treble M. A., Skomal G. B., Ramsey A., Fisk A. T. // Biology of the Greenland shark Somniosus microcephalus // Journal of Fish Biology 80 (2012). P. 991–1018.

Muller-Karger F. E., Smith J. P., Werner S., Chen R., Roffer M., Liu Y., Muhling B., Lindo-Atichati D., Lamkin J., Cerdiero-Estrada S., Enfield D. B. Natural variability of surface oceanographic conditions in the offshore Gulf of Mexico // Progress in Oceanography 134 (2015). P. 54–76.

Nielsen J., Hedeholm R. B., Heinemeier J., Bushnell P. G., Christiansen J. S., Olsen J., Bronk Ramsey C., Brill R. W., Simon M., Steffenson K. F., Steffenson J. F. Eye lens radiocarbon reveals centuries of longevity in the Greenland shark (Somniosus microcephalus) // Science 353 (2016). P. 702–704.

Nielsen J., Hedeholm R. B., Simon M., Steffensen J. F. Distribution, feeding ecology of the Greenland shark (Somniosus microcephalus) in Greenland waters // Polar Biology 37 (2014). P. 37–46. https://doi.org/10.1007/s00300-013-1408-3.

Nielsen J., Schou Christiansen J., Grønkjær P., Bushnell P., Steffensen J. F., Overgaard Kiilerich H., Præbel K., Hedeholm R. Greenland shark (Somniosus microcephalus) stomach contents, stable isotope values reveal an ontogenetic dietary shift // Frontiers in Marine Science 6 (2019). P. 125.

Pérez-Brunius P., Furey H., Bower A., Hamilton P., Candela J., García-Carrillo P., Leben R. Dominant circulation patterns of the deep Gulf of Mexico // Journal of Physical Oceanography 48 (2018). P. 511–529.

Rivas D., Badan A., Ochoa J. The ventilation of the deep Gulf of Mexico // Journal of Physical Oceanography 35 (2005). P. 1763–1781.

Слои океана

AFP, Peru mines new gold in guano // Independent, 9 October 2010. https://www.independent.co.uk/climate-change/news/peru-mines-new-gold-in-guano-2102574.html.

Barange M., Coetzee J., Takasuka A., Hill K., Gutierrez M., Oozeki Y., Lingen C. van der, Agostini V. Habitat expansion, contraction in anchovy, sardine populations // Progress in Oceanography 83 (2009). P. 251–260.

Bin W., Wu R., Lukas R. Annual adjustment of the thermocline in the tropical Pacific Ocean // Journal of Climate 13 (2000). P. 596–616.

Cashion T., Manach F. le, Zeller Dirk, Pauly D. Most fish destined for fishmeal production are food-grade fish // Fish, Fisheries 18 (2017). P. 837–844.

Checkley D. M. Jr., Asch R. G., Rykaczewski R. R. Climate, anchovy, sardine // Annual Review of Marine Science 9 (2017). P. 469–493.

Christensen V., Puente S. de la, Sueiro J. C., Steenbeek J., Majluf P. Valuing seafood: the Peruvian fisheries sector // Marine Policy 44 (2014). P. 302–311.

Espinoza P., Bertrand A. Ontogenetic, spatiotemporal variability in anchoveta Engraulis ringens diet off Peru // Journal of Fish Biology 84 (2014). P. 422–435.

Godley A. C., Williams B. The Chicken, the Factory Farm, the Supermarket: The Emergence of the Modern Poultry Industry in Britain. Reading: University of Reading Department of Economics, 2007.

Humboldt A. von. Cosmos: A Sketch of the Physical Description of the Universe. Vol. 1. Harper, 1858. https://www.gutenberg.org/cache/epub/14565/pg14565-images.html.

Montecino V., Lange C. B. The Humboldt Current system: ecosystem components, processes, fisheries, sediment studies // Progress in Oceanography 83 (2009). P. 65–79.

Oyarzún D. Brierley C. M. The future of coastal upwelling in the Humboldt Current from model projections // Climate Dynamics 52 (2019). P. 599–615.

Penven P., Echevin V., Pasapera J., Colas F., Tam J. Average circulation, seasonal cycle, mesoscale dynamics of the Peru Current System: a modeling approach // Journal of Geophysical Research: Oceans 110 (2005). P. 100–121.

Pietri A., Testor P., Echevin V., Chaigneau A., Mortier L., Eldin G., Grados C. Finescale vertical structure of the upwelling system off southern Peru as observed from glider data // Journal of Physical Oceanography 43 (2013). P. 631–646.

Ritchie H., Rosado P., Roser M. Meat, dairy production // Our World in Data, Aug. 2017.

Rooks T. How Humboldt Put South America on the Map // Deutsche Welle, 7 December 2019. https://www.dw.com/en/how-scientist-alexander-von-humboldt-put-spanish-south-america-on-the-global-map/a-46693502.

Shepherd C. J., Jackson A. J. Global fishmeal, fish-oil supply: inputs, outputs, markets // Journal of Fish Biology 83 (2013). P. 1046–1066.

UN Food, Agriculture Organization // The State of World Fisheries, Aquaculture 2018: Meeting the Sustainable Development Goals. Rome, 2018. Licence: CC BY-NC-SA 3.0 IGO.

Wintersteen K. Protein from the sea: the global rise of fishmeal, the industrialization of southeast Pacific fisheries, 1918–1973. DesiguAL-dades.net, working paper series no. 26 (Berlin: desiguALdades.net Research Network on Interdependent Inequalities in Latin America, 2012).

Wulf A. The Invention of Nature: The Adventures of Alexander von Humboldt, the Lost Hero of Science. Hachette, 2015.

Ленивцы и влияние океана на осадки

Abraham J. Warming oceans are changing the world’s rainfall // Guardian, 12 Sep. 2018. https://www.theguardian.com/environment/climate-consensus-97-per-cent/2018/sep/12/warming-oceans-are-changing-the-worlds-rainfall.

Faizal M., Ahmed M. R. On the ocean heat budget, ocean thermal energy conversion // International Journal of Energy Research 35 (2011). P. 1119–1144.

Gilmore D. P., Peres da Costa C., Duarte D. P. F. Sloth biology: an update on their physiological ecology, behavior, role as vectors of arthropods, arboviruses // Brazilian Journal of Medical, Biological Research 34 (2001). P. 9–25.

Kren A. C., Pilewskie P., Coddington O. Where does Earth’s atmosphere get its energy? // Journal of Space Weather, Space Climate 7 (2017). P. A10.

Pauli J. N., Mendoza J. E., Steffan Sh. A., Carey C. C., Weimer P. J., Peery M. Z. A syndrome of mutualism reinforces the lifestyle of a sloth // Proceedings of the Royal Society B: Biological Sciences 281 (2014), 20133006. https://doi.org/10.1098/rspb.2013.3006.

Trenberth K. E., Fasullo J. T., Kiehl J. Earth’s global energy budget //Bulletin of the American Meteorological Society 90 (2009). P. 311–324.

Wang X.-Y., Li X., Zhu J., Tanajura C. A. S. The strengthening of Amazonian precipitation in the wet season driven by tropical sea surface temperature forcing // Environmental Research Letters 13 (2018). https://doi.org/10.1088/1748-9326/aadbb9.

Waylen P. R., Caviedes C. N., Quesada M. E. Interannual variability of monthly precipitation in Costa Rica // Journal of Climate 9 (1996). P. 2606–2613.

Гуано

Mathew W. M. Peru, the British guano market, 1840–1870 // Economic History Review 23 (1970). P. 112–128.

Schnug E., Jacobs F., Stöven K. Guano: the white gold of the seabirds // Seabirds (2018). P. 81–100. https://doi.org/10.5772/intechopen.79501.

Соль

Boyle R. The Saltiness of the Sea. 1674. https://digital.nmla.metoffice.gov.uk/IO_845a61a4-3988-4e0b-98ee-ed216651b3e5/.

Breck J. E. Body composition in fishes: body size matters // Aquaculture 433 (2014). P. 40–49. https://doi.org/10.1016/j.aquaculture.2014.05.049.

Hay W. W., Migdisov A., Balukhovsky A. N., Wold C. N., Flögel S., Söding E. Evaporites, the salinity of the ocean during the Phanerozoic: implications for climate, ocean circulation, life // Palaeogeography, Palaeoclimatology, Palaeoecology 240 (2006). P. 3–46.

Kurlansky M. Salt. Random House, 2011.

Vinogradova N., Lee T., Boutin J., Drushka K., Fournier S., Sabia R., Stammer D. et al. Satellite salinity observing system: Recent discoveries, the way forward // Frontiers in Marine Science (2019). P. 243.

Wright J. M., Colling A. Sea Water: Its Composition, Properties, Behaviour, Prepared by an Open University Course Team. Elsevier, 2013.

Экспедиция «Челленджера»

Buchanan J. Y. On the distribution of salt in the ocean, as indicated by the specific gravity of its waters // Journal of the Royal Geographical Society of London 47 (1877). P. 72–86.

Dierssen H. M., Theberge A. E., Wang Y. Bathymetry: history of sea floor mapping // Encyclopedia of Natural Resources 2 (2014). P. 564–568.

Hedgpeth J. W. The voyage of the Challenger // Scientific Monthly 63 (1946). P. 194–202.

Jones C. S., Cessi P. Size matters: another reason why the Atlantic is saltier than the Pacific // Journal of Physical Oceanography 47 (2017). P. 2843–2859.

Middelburg J. J., Soetaert K., Hagens M. Understanding alkalinity to quantify ocean buffering // Eos, 29 July 2020. https://eos.org/editors-vox/understanding-alkalinity-to-quantify-ocean-buffering.

Tizard T. H. Narrative of the Cruise of HMS Challenger: With a General Account of the Scientific Results of the Expedition. Vol. 2. HM Stationery Office, 1882.

Черепахи

Davenport J. Crying a river: how much salt-laden jelly can a leatherback turtle really eat? // Journal of Experimental Biology 220 (2017). P. 1737–1744.

Rash R., Lillywhite H. B. Drinking behaviors, water balance in marine vertebrates // Marine Biology 166 (2019). P. 1–21.

Китообразные

Bouchard B., Barnagaud J.-Y., Poupard M., Glotin H., Gauffier P., Torres Ortiz S., Lisney T. J., Campagna S., Rasmussen M., Célérier A. Behavioural responses of humpback whales to food-related chemical stimuli // PloS One 14 (2019). e0212515, https://doi.org/10.1371/journal.pone.0212515.

Bouchard B., Barnagaud J.-Y., Verborgh Ph., Gauffier P., Campagna S., Célérier A. A field study of chemical senses in bottlenose dolphins, pilot whales // Anatomical Record 305 (2022). P. 668–679.

Greenwell M. G., Sherrill J., Clayton L. A. Osmoregulation in fish: mechanisms, clinical implications // Veterinary Clinics: Exotic Animal Practice 6 (2003). P. 169–89.

Kenney R. How can sea mammals drink saltwater? // Scientific American, 30 April 2001. https://www.scientificamerican.com/article/how-can-sea-mammals-drink/.

Kishida T., Thewissen J. G. M., Hayakawa T., Imai H., Kiyokazu A. Aquatic adaptation, the evolution of smell, taste in whales // Zoological Letters 1 (2015). P. 1–10.

Kremers D., Célérier A., Schaal B., Campagna S., Trabalon M., Böye M., Hausberger M., Lemasson A. Sensory perception in cetaceans. Part I: current knowledge about dolphin senses as a representative species // Frontiers in Ecology, Evolution 4 (2016). Art. 49. https://doi.org/10.3389/fevo.2016.00049.

Rash R., Lillywhite H. B. Drinking behaviors, water balance in marine vertebrates // Marine Biology 166 (2019). P. 1–21.

Venton D. Highlight: a matter of taste – whales have abandoned their ability to taste food // Genome Biology, Evolution 6 (2014). P. 1266.

Zhu K., Zhou X., Xu Sh., Sun D., Ren W., Zhou K., Yang G. The loss of taste genes in cetaceans // BMC Evolutionary Biology 14 (2014). P. 1–10.

Улитки

Beu A. G. Evolution of Janthina, Recluzia (Mollusca: Gastropoda: Epitoniidae). Australian Museum, 2017.

Churchill C. K. C., Foighil D. Ó., Strong E. E., Gittenberger A. Females floated first in bubble-rafting snails // Current Biology 21 (2011). P. R802–803.

Rühs P. A., Bergfreund J., Bertsch P., Gstöhl S. J., Fischer P. Complex fluids in animal survival strategies // Soft Matter 17 (2021). P. 3022–3036.

Морской лед

Bludd E. K. On a groundbreaking 1893 expedition Nansen froze his ship in Arctic ice for a year – now MOSAiC is following his path // Journal of the North Atlantic, Arctic, 2022. https://www.jonaa.org/content/on-a-groundbreaking-1893-expedition-nansen-froze-his-ship-in-arctic-ice-for-a-year-now-mosaic-is-following-his-path.

Holland P. R., Feltham D. L. Frazil dynamics, precipitation in a water column with depth-dependent supercooling // Journal of Fluid Mechanics 530 (2005). P. 101–124.

Jochumsen K., Köllner M., Quadfasel D., Dye S., Rudels B., Valdimarsson H. On the origin, propagation of Denmark Strait overflow water anomalies in the Irminger Basin // Journal of Geophysical Research: Oceans 120 (2015). P. 1841–1855.

Rees Jones D. W., Wells A. J. Frazil-ice growth rate, dynamics in mixed layers, sub-ice-shelf plumes // The Cryosphere 12 (2018). P. 25–38.

Timmermans M.-L., Marshall J. Understanding Arctic Ocean circulation: a review of ocean dynamics in a changing climate // Journal of Geophysical Research: Oceans 125 (2020). e2018J-C014378, https://doi.org/10.1029/2018JC014378.

Webb P. Introduction to Oceanography. Pressbooks, 2021. https://rwu.pressbooks.pub/webboceanography/.

Подводный водопад в Датском проливе

World Waterfall Database // World’s Largest Waterfalls, 2002–2022. https://www.worldwaterfalldatabase.com/largest-waterfalls/volume.

Zhurbas V. M., Paka V. T., Rudels B., Quadfasel D. Estimates of entrainment in the Denmark Strait overflow plume from CTD/ LADCP data // Oceanology 56 (2016). P. 205–213.

Суточное вращение Земли

Brown E. Mankind launched the first object into the stratosphere in 1918 // Lessons from History, 6 December 2020. https://medium.com/lessons-from-history/mankind-launched-the-first-object-into-the-stratosphere-in-1918-39571ad1c092.

Ekman V. W. On the influence of the earth’s rotation on ocean-currents (1905). https://jscholarship.library.jhu.edu/bitstream/handle/1774.2/33989/31151027498728.pdf.

Hunkins K. Ekman drift currents in the Arctic Ocean // Deep Sea Research, Oceanographic Abstracts 13 (1966). P. 607–620.

Winter N. J. de, Goderis S., Malderen S. J. M. van, Sinnesael M., Vansteenberge S., Snoeck C., Belza J., Vanhaecke F., Claeys Ph. Subdaily-scale chemical variability in a Torreites sanchezi rudist shell: implications for rudist paleobiology, the Cretaceous day-night cycle // Paleoceanography, Paleoclimatology 35 (2020). e2019PA003723, https://doi.org/10.1029/2019PA003723.

Zabecki D. T. Paris under the gun // Historynet, 24 January 2017. https://www.historynet.com/paris-under-the-gun/?f.

ГЛАВА 2

КАКОЙ ФОРМЫ МОРСКАЯ ВОДА?

Hitzl D. E., Chen Y.-L., Nguyen H. van. Numerical simulations, observations of airflow through the Alenuihāhā Channel, Hawai’i // Monthly Weather Review 142 (2014). P. 4696–4718.

Уолтер Манк

Aldersey-Williams H. The Tide: The Science, Stories Behind the Greatest Force on Earth. Norton, 2016.

Garrett C., Wunsch C. Walter Heinrich Munk, 19 October 1917–1918 February 2019 // Biographical Memoirs of the Fellows of the Royal Society (2020). P. 393–424.

Liu G., He Y., Zhang Y., Shen H. Estimation of global wind energy input to the surface waves based on the scatterometer // IEEE Geoscience, Remote Sensing Letters 9 (2012). P. 1017–1120.

Liu P. C. Fifty years of wave growth curves // Proceedings of 25^th International Conference on Coastal Engineering (Orlando, FL, 2–6 September 1996). American Society of Civil Engineers, 1997. P. 457–464.

Lynch D. K., Dearborn D. S. P., Lock J. A. Glitter, glints on water // Applied Optics 50 (2011). P. F39–49.

Phillips O. M. On the generation of waves by turbulent wind // Journal of Fluid Mechanics 2 (1957). P. 417–445.

Pizzo N., Deike L., Ayet A. How does the wind generate waves? // Physics Today 74 (2021). https://doi.org/10.1063/PT.3.4880.

Storch H., Hasselmann K. Seventy Years of Exploration in Oceanography. Springer, 2010.

Уильям Биби

Beebe W. Half Mile Down. New York: Harcourt, Brace, Company, 1934.

Проект «Мохол»

Pinkerton B. Unexplainable // Episode 3. How an ill-fated undersea adventure in the 1960s changed the way scientists see the Earth // Vox, 17 March 2021. https://www.vox.com/unexplainable/22276597/project-mohole-deep-ocean-drilling-unexplainable-podcast.

Pratt S. E. Benchmarks: March 1961: Project Mohole undertakes the first deep-ocean drilling // Earth: the science behind the headlines, 6 July 2016. https://www.earthmagazine.org/article/benchmarks-march-1961-project-mohole-undertakes-first-deep-ocean-drilling.

Sönnichsen N. Distribution of global crude oil production onshore, offshore 2005–2025 // Statista, 28 January 2021. https://www.statista.com/statistics/624138/distribution-of-crude-oil-production-worldwide-onshore-and-offshore/.

Steinbeck J. High drama of bold thrust through ocean floor // Life, 14 April 1961. https://books.google.fr/books?id=9lEEAAAAMBAJ&lpg=PA110&ots=iFqfSHZdb0&dq=John+Steinbeck+1961+crust+pacific+life&pg=PA110%23v%3Dtwopage&q=&hl=fr#v=onepage&q&f=false.

Экспедиция «Челленджера»

Hanley J. How deep is the ocean? // Significance 11 (2014). P. 30–33.

Kunzig R. The Restless Sea. Norton, 1999.

Murray J. A Summary of the Scientific Results Obtained at the Sounding, Dredging, Trawling Stations of HMS Challenger. Vol. 1. HM Stationery Office, 1895.

The Voyage of HMS Challenger. Vol. 1. Johnson, 1885. https://archimer.ifremer.fr/doc/1885/publication-4746.pdf.

Океаническая обсерватория Regional Cabled Array

2015 Axial Seamount eruption // Ocean Data Labs. N. d. https://datalab.marine.rutgers.edu/ooi-nuggets/axial-eruption/.

Lilley M. D., Butterfield D. A., Lupton J. E., Eric J. O. Magmatic events can produce rapid changes in hydrothermal vent chemistry // Nature 422 (2003). P. 878–881.

Luther G. W., Rozan T. F., Taillefert M., Nuzzio D. B., Meo C. di, Shank T. M., Lutz R. A., Cary S. C. Chemical speciation drives hydrothermal vent ecology // Nature 410 (2001). P. 813–816.

Shore station // Interactive Oceans, University of Washington. N. d. https://io.ocean.washington.edu/story/Shore_Station; the live camera system is at https://interactiveoceans.washington.edu/instruments/high-definition-video-camera/.

Железомарганцевые конкреции

James R. H., Koschinsky A., Kuhn T. Deep-ocean polymetallic nodules as a resource for critical materials // Nature Reviews Earth & Environment 1 (2020). P. 158–169.

McKie R. Is deep-sea mining a cure for the climate crisis or a curse? // Guardian, 29 August 2021. https://www.theguardian.com/world/2021/aug/29/is-deep-sea-mining-a-cure-for-the-climate-crisis-or-a-curse.

Mineral resources // World Ocean Review (2014). https://worldoceanreview.com/en/wor-3/mineral-resources/manganese-nodules/.

Rogers A. The Deep. Headline Publishing Group, 2019.

Scales H. The Brilliant Abyss. Atlantic Monthly Press, 2021.

Угри

Als T. D., Hansen M. M., Maes G. E., Castonguay M., Riemann L., Aarestrup K. I. M., Munk P., Sparholt H., Hanel R., Bernatchez L. All roads lead to home: panmixia of European eel in the Sargasso Sea // Molecular Ecology 20 (2011). P. 1333–1346.

Burningham H., French J. Seabed dynamics in a large coastal embayment: 180 years of morphological change in the outer Thames estuary // Hydrobiologia 672 (2011). P. 105–119.

Cao Q., Gu J., Wang D., Liang F., Zhang H., Li X., Yin Sh. Physiological mechanism of osmoregulatory adaptation in anguillid eels // Fish Physiology, Biochemistry 44 (2018). P. 423–433.

Cresci A. A comprehensive hypothesis on the migration of European glass eels (Anguilla anguilla) // Biological Reviews 95 (2020). P. 1273–1286.

Dekker W. The history of commercial fisheries for European eel commenced only a century ago // Fisheries Management, Ecology 26 (2019). P. 6–19.

Durif C. M. F., Browman H. I., Phillips J. B., Skiftesvik A. B., Vøllestad L. A., Stockhausen H. H. Magnetic compass orientation in the European eel // PloS One 8 (2013). e59212, https://doi.org/10.1371/journal.pone.0059212.

Estuaries. Wetlands Conservation Programme. Zoological Society of London // The Thames European Eel Project Report, November 2018. https://www.zsl.org/sites/default/files/media/ 2018-12/ZSL%202018%20eel%20report_FINAL.pdf.

Ginneken V. J. T. van, Maes G. E. The European eel (Anguilla anguilla, Linnaeus), its lifecycle, evolution, reproduction: a literature review // Reviews in Fish Biology, Fisheries 15 (2005). P. 367–398.

Lennox R. J., Økland F., Mitamura H., Cooke S. J., Thorstad E. B. European eel Anguilla anguilla compromise speed for safety in the early marine spawning migration // ICES Journal of Marine Science 75 (2018). P. 1984–1991.

López-Olmeda J. F., López-García I., Sánchez-Muros M. J., Blanco-Vives B., Aparicio R., Sánchez-Vázquez F. J. Daily rhythms of digestive physiology, metabolism, behaviour in the European eel (Anguilla anguilla) // Aquaculture International 20 (2012). P. 1085–1096.

Mikhailov V. N., Mikhailova M. V. Tides, storm surges in the Thames River Estuary // Water Resources 39 (2012). P. 351–365.

Miller M. J., Westerberg H., Sparholt H., Wysujack K., Sørensen S. R., Marohn L., Jacobsen M. W. et al. Spawning by the European eel across 2000 km of the Sargasso Sea // Biology Letters 15 (2019), 20180835. https://doi.org/10.1098/rsbl.2018.0835.

Naisbett-Jones L. C., Putman N. F., Stephenson J. F., Ladak S., Young K. A. A magnetic map leads juvenile European eels to the Gulf Stream // Current Biology 27 (2017). P. 1236–1240.

Naismith I. A., Knights B. Migrations of elvers, juvenile European eels, Anguilla anguilla L., in the River Thames // Journal of Fish Biology 33 (1988). P. 161–175.

Palstra A. P., Thillart G. E. E. J. M. van den. Swimming physiology of European silver eels (Anguilla anguilla L.): energetic costs, effects on sexual maturation, reproduction // Fish Physiology, Biochemistry 36 3 (2010). P. 297–322.

Pelster B. Swimbladder function, the spawning migration of the European eel Anguilla anguilla // Frontiers in Physiology 5 (2015). Art. 486, https://doi.org/10.3389/fphys.2014.00486.

Port of London Authority // History of the Port of London pre 1908. N. d. https://pla.co.uk/Port-Trade/History-of-the-Port-of-London-pre-1908#18.

Quintella B. R., Mateus C. S., Costa J. L., Domingos I., Almeida P. R. Critical swimming speed of yellow-, silver-phase European eel (Anguilla anguilla, L.) // Journal of Applied Ichthyology 26 (2010). P. 432–435.

Righton D., Westerberg H., Feunteun E., Økland F., Gargan P., Amilhat E., Metcalfe J. et al. Empirical observations of the spawning migration of European eels: The long, dangerous road to the Sargasso Sea // Science Advances 2 (2016), e1501694. https://doi.org/10.1126/sciadv.1501694.

Schmidt J. The breeding places of the eel // Philosophical Transactions of the Royal Society of London, Series B, Containing Papers of a Biological Character 211 (1923). P. 179–208.

Водоросли

Kinley R. D., Martinez-Fernandez G., Matthews M. K., Nys R. de, Magnusson M., Tomkins N. W. Mitigating the carbon footprint, improving productivity of ruminant livestock agriculture using a red seaweed // Journal of Cleaner Production 259 (2020), 120836. https://doi.org/10.1016/j.jclepro.2020.120836.

Maynard G. Storm Tide Washes Away Resort Beach // Daily Express, 23 January 2015. https://www.express.co.uk/news/nature/553709/Storm-tide-swept-away-resort-beach-Porthleven.

«Водорослевый коридор»

Braje T. J., Dillehay T. D., Erlandson J. M., Klein R. G., Rick T. C. Finding the first Americans // Science 358 (2017). P. 592–594.

Davis L. G., Madsen D. B. The coastal migration theory: formulation, testable hypotheses // Quaternary Science Reviews 249 (2020), 106605. https://doi.org/10.1016/j.quascirev.2020.106605.

Dillehay T. D., Ocampo C., Saavedra J., Sawakuchi A. O., Vega R. M., Pino M., Collins M. B. et al. New archaeological evidence for an early human presence at Monte Verde, Chile // PloS One 10 (2015), e0141923. https://doi.org/10.1371/journal.pone.0141923.

Dillehay T. D., Ramírez C., Pino M., Collins M. B., Rossen J., Pino-Navarro J. D. Monte Verde: seaweed, food, medicine, the peopling of South America // Science 320 (2008). P. 784–786.

Erlandson J. M., Braje T. J., Gill K. M., Graham M. H. Ecology of the kelp highway: did marine resources facilitate human dispersal from northeast Asia to the Americas? // Journal of Island, Coastal Archaeology 10 (2015). P. 392–411.

Erlandson J. M., Graham M. H., Bourque B. J., Corbett D., Estes J. A., Steneck R. S. The kelp highway hypothesis: marine ecology, the coastal migration theory, the peopling of the Americas // Journal of Island, Coastal Archaeology 2 (2007). P. 161–174.

Graham M. H., Kinlan B. P., Grosberg R. K. Postglacial redistribution, shifts in productivity of giant kelp forests // Proceedings of the Royal Society B: Biological Sciences 277 (2010). P. 399–406.

Lamy T., Koenigs C., Holbrook S. J., Miller R. J., Stier A. C., Reed D. C. Foundation species promote community stability by increasing diversity in a giant kelp forest // Ecology 101 (2020), e02987. https://doi.org/10.1002/ecy.2987.

Rasmussen M., Anzick S. L., Waters M. R., Skoglund P., DeGiorgio M., Stafford T. W., Rasmussen S. et al. The genome of a Late Pleistocene human from a Clovis burial site in western Montana // Nature 506 (2014). P. 225–229.

Steneck R. S., Graham M. H., Bourque B. J., Corbett D., Erlandson J. M., Estes J. A., Tegner M. J. Kelp forest ecosystems: biodiversity, stability, resilience, future // Environmental Conservation 29 (2002). P. 436–459.

Рыбный садок на Мауи

Fishpond basics // Maui Fishpond. N. d. http://mauifishpond.com/koieie/fishpond-basics/, https://seagrant.soest.hawaii.edu/the-return-of-kuula/.

Keala G. Buddy, Hollyer J. R., Castro L. LOKO I’A: A Manual on Hawai’ian Fishpond Restoration, Management. College of Tropical Agriculture, Human Resources, 2017.

Möhlenkamp P., Beebe Ch. K., McManus M. A., Kawelo A. H., Kotubetey K., Lopez-Guzman M., Nelson C. E., Alegado R. Anolani. Kū hou kuapā: cultural restoration improves water budget, water quality dynamics in Heʻeia Fishpond // Sustainability 11 (2018). Art. 161. https://www.mdpi.com/2071-1050/11/1/161.

ГЛАВА 3

АНАТОМИЯ ОКЕАНА

Морские желуди

Doell S. A., Connolly R. M., Limpus C. J., Pearson R. M., Merwe J. P. van de. Using growth rates to estimate age of the sea turtle barnacle Chelonibia testudinaria // Marine Biology 164 (2017). P. 1–7.

Pearson R. M., Merwe J. P. van de, Connolly R. M. Global oxygen isoscapes for barnacle shells: application for tracing movement in oceans // Science of the Total Environment 705 (2020), 135782. https://doi.org/10.1016/j.scitotenv.2019.135782.

Pearson R. M., Merwe J. P. van de, Gagan M. K., Connolly R. M. Unique post-telemetry recapture enables development of multi-element isoscapes from barnacle shell for retracing host movement // Frontiers in Marine Science 7 (2020). Art. 596. https://www.frontiersin.org/articles/10.3389/fmars.2020.00596/full.

Pearson R. M., Merwe J. P. van de, Gagan M. K., Limpus C. J., Connolly R. M. Distinguishing between sea turtle foraging areas using stable isotopes from commensal barnacle shells // Scientific Reports 9 (2019). P. 1–11.

Zardus J. D. A global synthesis of the correspondence between epizoic barnacles, their sea turtle hosts // Integrative Organismal Biology 3 (2021). https://academic.oup.com/iob/article/3/1/obab002/6129261

Сражение при Акциуме

Calderone J. Elusive underwater waves hold an uncertain grip on the climate // Hakai Magazine, 30 April 2015. https://hakaimagazine.com/news/elusive-underwater-waves-hold-uncertain-grip-climate/.

Fourdrinoy J., Caplier C., Devaux Y., Rousseaux G., Gianni A. et al. The naval battle of Actium, the myth of the ship-holder: the effect of bathymetry // 5^th MASHCON: International Conference on Ship Manoeuvring in Shallow, Confined Water with non-exclusive focus on manoeuvring in waves, wind, current. Flanders Hydraulics Research, Maritime Technology Division, Ghent University, Ostend, Belgium, May 2019, WWC007. P. 104–133. hal-02139218, https://doi.org/10.48550/arXiv.1905.13024.

Fourdrinoy J., Dambrine J., Petcu M., Pierre M., Rousseaux G. The dual nature of the dead-water phenomenology: Nansen versus Ekman wave-making drags // Proceedings of the National Academy of Sciences 117 (2020). P. 16770–16775.

Marzano A. Fish, fishing in the Roman world // Journal of Maritime Archaeology 13 (2018). P. 437–447.

Walker J. M. Farthest north, dead water, the Ekman spiral. Part 2: Invisible waves, a new direction in current theory // Weather 46 (1991). P. 158–164.

Томас Миджли и ХФУ

Bullister J. L. Atmospheric Histories (1765–2015) for CFC-11, CFC-12, CFC-113, CCl4, SF6, N2O (NCEI Accession 0164584), NOAA National Centers for Environmental Information, 2017. Unpublished dataset. https://doi.org/10.3334/CDIAC/otg.CFC_ATM_Hist_2015.

Bullister J. L. Chlorofluorocarbons as time-dependent tracers in the ocean // Oceanography 2 (1989). P. 12–17.

Kovarik B. A century of tragedy: how the car, gas industry knew about the health risks of leaded fuel but sold it for 100 years anyway // The Conversation, 8 December 2021. https://theconversation.com/a-century-of-tragedy-how-the-car-and-gas-industry-knew-about-the-health-risks-of-leaded-fuel-but-sold-it-for-100-years-anyway-173395.

Lozier M. S., Li F., Bacon Sh., Bahr F., Bower A. S., Cunningham S. A., Femke de Jong M. et al. A sea change in our view of overturning in the subpolar North Atlantic // Science 363 (2019). P. 516–521.

Rhein M., Kieke D., Steinfeldt R. Advection of North Atlantic deep water from the Labrador Sea to the southern hemisphere // Journal of Geophysical Research: Oceans 120 (2015). P. 2471–2487.

Rhein M., Steinfeldt R., Kieke D., Stendardo I., Yashayaev I. Ventilation variability of Labrador Sea Water, its impact on oxygen, anthropogenic carbon: a review // Philosophical Transactions of the Royal Society A: Mathematical, Physical, Engineering Sciences 375 (2017), 20160321. https://doi.org/10.1098/rsta.2016.0321.

Schleien D. Meet Thomas Midgley Jr., arguably the most dangerous man of all time // Climate Conscious, 12 October 2020. https://medium.com/climate-conscious/meet-thomas-midgley-jr-arguably-the-most-dangerous-man-of-all-time-2ae66b1cc101.

Williams J. A. This 1920s inventor sped up climate change with his chemical creations // History, 23 August 2019. https://www.history.com/news/cfcs-leaded-gasoline-inventions-thomas-midgley.

«Титаник»

Ballard R. D., Hively W. The Eternal Darkness: A Personal History of Deep-Sea Exploration. Princeton University Press, 2017.

Full Titanic site mapped for 1^st time // New York Post, 8 March 2012. https://nypost.com/2012/03/08/full-titanic-site-mapped-for-1st-time/.

Lippsett L., Conservation M. The quest to map Titanic // Oceanus 49 (2012). P. 26–36.

Roach J. Titanic was found during secret Cold War navy mission // National Geographic, 23 December 2018. https://www.nationalgeographic.co.uk/history-and-civilisation/2018/11/titanic-was-found-during-secret-cold-war-navy-mission.

Vrana K. J., Nargeolet P.-H., Sauder W., Klingelhofer A., King R., Pasch L., AcMoody S. J. et al. Mapping RMS Titanic with GIS: implications for forensic investigations // Marine Technology Society Journal 46 (2012). P. 111–128.

Калянус (Calanus finmarchicus)

Bathmann U. V., Noji T. T., Voss M., Peinert R. Copepod fecal pellets: abundance, sedimentation, content at a permanent station in the Norwegian Sea in May / June 1986 // Marine Ecology Progress Series. Inter-Research Science Center, 1987. Vol. 38 (1). P. 45–51.

Baumgartner M. F., Lysiak N. S. J., Schuman C., Urban-Rich J., Wenzel Frederick W. Diel vertical migration behavior of Calanus finmarchicus, its influence on right, sei whale occurrence // Marine Ecology Progress Series. No. 423. Inter-Research Science Center, 2011. P. 167–184.

Bristow L. A., Mohr W., Ahmerkamp S., Kuypers M. M. Nutrients that limit growth in the ocean // Current Biology 27 (2017). P. R474–478.

Cohen J. H., Last K. S., Waldie J., Pond D. W. Loss of buoyancy control in the copepod Calanus finmarchicus // Journal of Plankton Research 41 (2019). P. 787–790.

Melle W., Runge J., Head E., Plourde S., Castellani C., Licandro P., Pierson J. et al. The North Atlantic Ocean as habitat for Calanus finmarchicus: environmental factors, life history traits // Progress in Oceanography 129 (2014). P. 244–284.

Pond D. W., Tarling G. A. Phase transitions of wax esters adjust buoyancy in diapausing Calanoides acutus // Limnology, Oceanography 56 (2011). P. 1310–1318.

Перемешивание

Aucan J., Merrifield M. Boundary mixing associated with tidal, near-inertial internal waves // Journal of Physical Oceanography 38 (2008). P. 1238–1252.

Garrett C. Internal tides, ocean mixing // Science 301 (2003). P. 1858–1859.

Garwood J. C., Musgrave R. C., Lucas A. J. Life in internal waves // Oceanography 33 (2020). P. 38–49.

Hasegawa D. Island mass effect // Kuroshio Current (AGU, 2019) / ed. by T. Nagai, H. Saito, K. Suzuki, M. Takahashi. https://doi.org/10.1002/9781119428428.ch10.

Kakani K. Biogenic inputs to ocean mixing // Journal of Experimental Biology 215 (2012). P. 1040–1049.

Klymak J. M., Pinkel R., Rainville L. Direct breaking of the internal tide near topography: Kaena Ridge, Hawai’i // Journal of Physical Oceanography 38 (2008). P. 380–399.

Martin J. P., Rudnick D. L. Inferences, observations of turbulent dissipation, mixing in the upper ocean at the Hawaiian Ridge // Journal of Physical Oceanography 37 (2007). P. 476–494.

Munk W., Wunsch C. Abyssal recipes II: energetics of tidal, wind mixing // Deep Sea Research. Part I: Oceanographic Research Papers 45 (1998). P. 1977–2010.

Rainville L., Shaun Johnston T. M., Carter G. S., Merrifield M. A., Pinkel R., Worcester P. F., Dushaw B. D. Interference pattern, propagation of the M2 internal tide south of the Hawaiian Ridge // Journal of Physical Oceanography 40 (2010). P. 311–325.

Rudnick D. L., Boyd T. J., Brainard R. E., Carter G. S., Egbert G. D., Gregg M. C., Holloway P. E. et al. From tides to mixing along the Hawaiian Ridge // Science 301 (2003). P. 355–357.

Sarkar S., Scotti A. From topographic internal gravity waves to turbulence // Annual Review of Fluid Mechanics 49 (2017). P. 195–220.

Schiermeier Q. Oceanography: churn, churn, churn // Nature 447 (2007). P. 522–525.

Smith K. A., Rocheleau G., Merrifield M. A., Jaramillo S., Pawlak G. Temperature variability caused by internal tides in the coral reef ecosystem of Hanauma Bay, Hawai’i // Continental Shelf Research 116 (2016). P. 1–12.

Wunsch C., Ferrari R. Vertical mixing, energy, the general circulation of the oceans // Annual Review of Fluid Mechanics 36 (2004). P. 281–314.

Yang Ch.-F., Chi W.-Ch., Haren H. van, Lin Ch.-R., Kuo B.-Y. Tracking deep-sea internal wave propagation with a differential pressure gauge array // Scientific Reports 11 (2021). P. 1–9.

Залив Наррагансетт

Avenengo Ch. „Gulf Stream orphans“ make their way to the bay // Newport This Week, 12 November 2022. https://www.newportthisweek.com/articles/gulf-stream-orphans-make-their-way-to-the-bay/.

McLeish T. More tropical fish arriving in Narragansett Bay earlier // ecoRI News, 17 August 2016. https://ecori.org/2016-8-17-more-tropical-fish-arriving-in-narragansett-bay-earlier-1/.

Zhang W., McGillicuddy D. J. Jr. Warm spiral streamers over Gulf Stream warm-core rings // Journal of Physical Oceanography 50 (2020). P. 3331–3351.

Муссоны

Dreyer E. Zheng He: China, the Oceans in the Early Ming Dynasty, 1405–1433. Pearson, 2006.

Gadgil S. The Indian monsoon, its variability // Annual Review of Earth, Planetary Sciences 31 (2003). P. 429–467.

Geen R., Bordoni S., Battisti D. S., Hui K. Monsoons. ITCZs, the concept of the global monsoon // Reviews of Geophysics 58 (2020), e2020RG000700. https://doi.org/10.1029/2020RG000700.

Schott F. A., McCreary J. P. Jr. The monsoon circulation of the Indian Ocean // Progress in Oceanography 51 (2001). P. 1–123.

Shankar D., Vinayachandran P. N., Unnikrishnan A. S. The monsoon currents in the north Indian Ocean // Progress in Oceanography 52 (2002). P. 63–120.

Swapna P., Krishnan R., Wallace J. M. Indian Ocean, monsoon coupled interactions in a warming environment // Climate Dynamics 42 (2014). P. 2439–2454.

The Ming voyages. BBC Radio 4. In Our Time, 13 October 2011. https://www.bbc.co.uk/programmes/b015p8c2.

Северный и Южный полюсы

Carmack E. C. The alpha/beta ocean distinction: a perspective on freshwater fluxes, convection, nutrients, productivity in high-latitude seas // Deep Sea Research Part II: Topical Studies in Oceanography 54 (2007). P. 2578–2598.

Fraser C., Hulbe C., Stevens C., Griffiths H. An ocean like no other: the Southern Ocean’s ecological richness, significance for global climate // The Conversation, 6 December 2020. https://theconversation.com/an-ocean-like-no-other-the-southern-oceans-ecological-richness-and-significance-for-global-climate-151084.

Timmermans M.-L., Marshall J. Understanding Arctic Ocean circulation: a review of ocean dynamics in a changing climate // Journal of Geophysical Research: Oceans 125 (2020). e2018J-C014378, https://doi.org/10.1029/2018JC014378.

Woodgate R. Arctic Ocean circulation: going around at the top of the world // Nature Education Knowledge 4. No. 8 (2013).

ГЛАВА 4

ВЕСТНИКИ

Рассеяние

Pope R. M., Fry E. S. Absorption spectrum (380–700 nm) of pure water. II. Integrating cavity measurements // Applied Optics 36 (1997). P. 8710–8723.

Zhang X. Molecular light scattering by pure sea water // Light Scattering Reviews / ed. by A. A. Kokhanovsky. Vol. 7. Springer, 2013. P. 225–243. https://doi.org/10.1007/978-3-642-21907-8_7.

Zhang X., Hu L. Light scattering by pure water, sea water: recent development // Journal of Remote Sensing (2021). Art. 9753625. https://doi.org/10.34133/2021/9753625.

Морзе

Aldridge B. ELF History: Extremely Low Frequency Communication. Santa Clara, CA: Pacific Life Research Center, 18 February 2001. http://www.plrc.org/docs/941005B.pdf.

Butler L. Underwater radio communication // Amateur Radio, April 1987.

Morse S. F. B. Examination of the telegraphic apparatus, the processes in telegraphy. US Government Printing Office, 1869.

Murgod T. R., Sundaram S. M. Survey on underwater optical wireless communication: perspectives, challenges // Indonesian Journal of Electrical Engineering, Computer Science 13 (2019). P. 138–146.

Nickolaenko P., Shvets A. V., Hayakawa M. Extremely low frequency (ELF) radio wave propagation: a review // International Journal of Electronics, Applied Research 3 (2016). P. 1–91.

Pandit R. Navy gets new facility to communicate with nuclear submarines // Times of India, 31 July 2014. https://timesofindia.indiatimes.com/india/navy-gets-new-facility-to-communicate-with-nuclear-submarines-prowling-underwater/articleshow/39371121.cms.

Sending signals to submarines // New Scientist, 4 July 1985. https://books.google.co.uk/books?id=NOPpwVvNu44C&pg=PA39&redir_esc=y#v=onepage&q&f=false.

Silverman K. Lightning Man: The Accursed Life of Samuel F. B. Morse. Da Capo Press, 2003.

Stromberg J. Why the US Navy once wanted to turn Wisconsin into the world’s largest antenna // Vox, 10 April 2015. https://www. vox.com/2015/4/10/8381983/project-sanguine.

Sullivan W. How huge antenna can broadcast into the silence of the sea // New York Times, 13 October 1981. https://www.nytimes.com/1981/10/13/science/how-huge-antenna-can-broadcast-into-the-silence-of-the-sea.html?pagewanted=all.

Зрение китообразных

Friedlaender A. S., Tyson R. B., Stimpert A. K., Read A. J., Nowacek D. P. Extreme diel variation in the feeding behavior of humpback whales along the western Antarctic Peninsula during autumn // Marine Ecology Progress Series. No. 494. Inter-Research Science, 2013. P. 281–289.

Goldbogen J. A., Calambokidis J., Croll D. A., Harvey J. T., Newton K. M., Oleson E. M., Schorr G., Shadwick R. E. Foraging behavior of humpback whales: kinematic, respiratory patterns suggest a high cost for a lunge // Journal of Experimental Biology 211 (2008). P. 3712–3719.

Кальмар Гумбольдта

Burford B. P., Robison B. H. Bioluminescent backlighting illuminates the complex visual signals of a social squid in the deep sea // Proceedings of the National Academy of Sciences 117 (2020). P. 8524–8531.

Galeazzo G. A., Mirza J. D., Dorr F. A., Pinto E., Stevani C. V., Lohrmann K. B., Oliveira A. G. Characterizing the bioluminescence of the Humboldt squid, Dosidicus gigas (d’Orbigny, 1835): one of the largest luminescent animals in the world // Photochemistry, Photobiology 95 (2019). P. 1179–1185.

Haddock S. H. D., Moline M. A., Case J. F. Bioluminescence in the sea // Annual Review of Marine Science 2 (2010). P. 443–493.

Marshall J. Vision, lack of vision in the ocean // Current Biology 27 (2017). P. R494–502.

Martini S., Haddock S. H. D. Quantification of bioluminescence from the surface to the deep sea demonstrates its predominance as an ecological trait // Scientific reports 7 (2017). P. 1–11.

Oba Y., Stevani C. V., Oliveira A. G., Tsarkova A. S., Chepurnykh T. V., Yampolsky I. V. Selected least studied but not forgotten bioluminescent systems // Photochemistry, Photobiology 93 (2017). P. 405–415.

Schmitz L., Motani R., Oufiero C. E., Martin C. H., McGee M. D., Gamarra A. R., Lee J. J., Wainwright P. C. Allometry indicates giant eyes of giant squid are not exceptional // BMC Evolutionary Biology 13 (2013). P. 1–9.

Williams T. L., Senft S. L., Yeo J., Martín-Martínez F. J., Kuzirian A. M., Martin C. A., DiBona C. W. et al. Dynamic pigmentary, structural coloration within cephalopod chromatophore organs // Nature Communications 10 (2019). P. 1–15.

Акустическая коммуникация у рыб

Amorim M. C. P. Diversity of sound production in fish // Communication in Fishes 1 (2006). P. 71–104.

Nordeide J. T., Folstad I. Is cod lekking or a promiscuous group spawner? // Fish, Fisheries 1 (2000). P. 90–93.

Parmentier E., Lagardère J.-P., Braquegnier J.-B., Vandewalle P., Fine M. L. Sound production mechanism in carapid fish: first example with a slow sonic muscle // Journal of Experimental Biology 209 (2006). P. 2952–2960.

Rowe Sh., Hutchings J. A. Sound production by Atlantic cod during spawning // Transactions of the American Fisheries Society 135 (2006). P. 529–538.

Rowe Sh., Hutchings J. A. The function of sound production by Atlantic cod as inferred from patterns of variation in drumming muscle mass // Canadian Journal of Zoology 82 (2004). P. 1391–1398.

Костная проводимость у людей

Tchumatchenko T., Reichenbach T. A cochlear-bone wave can yield a hearing sensation as well as otoacoustic emission // Nature Communications 5 (2014). P. 1–10.

Воздушные пузырьки

Deane G. B., Czerski H. A mechanism stimulating sound production from air bubbles released from a nozzle // Journal of the Acoustical Society of America 123 (2008). P. EL126–132.

Пикша

Ashokan M., Latha G., Ramesh R. Analysis of shallow water ambient noise due to rain, derivation of rain parameters // Applied Acoustics 88 (2015). P. 114–122.

Buscaino G., Picciulin M., Canale D. E., Papale E., Ceraulo M., Grammauta R., Mazzola S. Spatio-temporal distribution, acoustic characterization of haddock (Melanogrammus aeglefinus, Gadidae) calls in the Arctic fjord Kongsfjorden (Svalbard Islands) // Scientific Reports 10 (2020). P. 1–16.

Casaretto L., Picciulin M., Hawkins A. D. Mating behaviour by the haddock (Melanogrammus aeglefinus) // Environmental Biology of Fishes 98 (2015). P. 913–923.

Casaretto L., Picciulin M., Olsen K., Hawkins A. D. Locating spawning haddock (Melanogrammus aeglefinus, Linnaeus, 1758) at sea by means of sound // Fisheries Research 154 (2014). P. 127–134.

Gordon T. A. C., Radford A. N., Davidson I. K., Barnes K., McCloskey K., Nedelec S. L., Meekan M. G., McCormick M. I., Simpson S. D. Acoustic enrichment can enhance fish community development on degraded coral reef habitat // Nature Communications 10 (2019). P. 1–7.

Haddock sounds // Discovery of Sound in the Sea. N. d. https://dosits.org/galleries/audio-gallery/fishes/haddock/.

Hawkins A. D., Casaretto L., Picciulin M., Olsen K. Locating spawning haddock by means of sound // Bioacoustics 12 (2002). P. 284–286.

Hawkins A. D., Picciulin M. The importance of under-water sounds to gadoid fishes // Journal of the Acoustical Society of America 146 (2019). P. 3536–3551.

Pinsk N., Wagner A., Cohen L., Smalley C. J. H., Hughes C. E., Zhang G., Pavan M. J. et al. Biogenic guanine crystals are solid solutions of guanine, other purine metabolites // Journal of the American Chemical Society 144 (2022). P. 5180–5189.

Popper A. N., Hawkins A. D. The importance of particle motion to fishes, invertebrates // Journal of the Acoustical Society of America 143 (2018). P. 470–488.

Popper A. N., Hawkins A. D., Sand O., Sisneros J. A. Examining the hearing abilities of fishes // Journal of the Acoustical Society of America 146 (2019). P. 948–955.

Schulz-Mirbach T., Ladich F., Plath M., Heß M. Enigmatic ear stones: what we know about the functional role, evolution of fish otoliths // Biological Reviews 94 (2019). P. 457–482.

Светящиеся анчоусы

Bandara K., Varpe Ø., Wijewardene L., Tverberg V., Eiane K. Two hundred years of zooplankton vertical migration research // Biological Reviews 96 (2021). P. 1547–1589.

Catul V., Gauns M., Karuppasamy P. K. A review on mesopelagic fishes belonging to family Myctophidae // Reviews in Fish Biology, Fisheries 21 (2011). P. 339–354.

Dietz R. S. Deep scattering layer in the Pacific, Antarctic Oceans // Journal of Marine Research 7 (1948). P. 430–442.

Dietz R. S. The sea’s deep scattering layers // Scientific American 207, August 1962. P. 44–51.

Eyring C. F., Christensen R. J., Raitt R. W. Reverberation in the sea // Journal of the Acoustical Society of America 20 (1948). P. 462–475.

Johnson M. W. Sound as a tool in marine ecology, from data on biological noises, the deep scattering layer // Journal of Marine Research 7 (1948). P. 443–458.

Oceanographic research of deep scattering layer by sonar, hydrophone. N. d. https://www.youtube.com/watch?v=EQLupb3aK8Q.

Shor E. N. Scripps Institution of Oceanography: Probing the Oceans 1936 to 1976. Tofua, 1978. https://escholarship.org/uc/item/6nb9j3mt.

Ушная сера китов

Hunt K. E., Lysiak N. S., Moore M., Rolland R. M. Multi-year longitudinal profiles of cortisol, corticosterone recovered from baleen of North Atlantic right whales (Eubalaena glacialis) // General, Comparative Endocrinology 254 (2017). P. 50–59.

Trumble S. J., Norman S. A., Crain D. D., Mansouri F., Winfield Z. C., Sabin R., Potter Ch. W., Gabriele C. M., Usenko S. Baleen whale cortisol levels reveal a physiological response to 20^th century whaling // Nature Communications 9 (2018). P. 1–8.

Yong E. The history of the oceans is locked in whale earwax // The Atlantic, 21 November 2018.

Эксперимент HIFT («Проверка осуществимости акустических коммуникаций от острова Херд»)

Baggeroer A., Munk W. The Heard Island feasibility test // Physics Today 45 (1992). P. 22–30.

Boyer Montégut C. de, Madec G., Fischer A. S., Lazar A., Iudicone D. Mixed layer depth over the global ocean: an examination of profile data, a profile-based climatology // Journal of Geophysical Research: Oceans 109 (2004). https://doi.org/10.1029/2004JC002378.

Heard Island Science Daily, 5 January 1991. https://staff.washington.edu/dushaw/heard/experiment/docs/heard_island_science_daily.pdf.

History of the SOFAR channel // Discovery of Sound in the Sea. N. d. https://dosits.org/science/movement/sofar-channel/history-of-the-sofar-channel/.

Kaharl V. Sounding out the ocean’s secrets // Beyond Discovery. National Academy of Sciences, 1999. http://www.nasonline.org/publications/beyond-discovery/sounding-out-oceans-secrets.pdf.

Kahn B. A forgotten underwater sound experiment almost changed how we measure global warming // Gizmodo, 24 November 2017. https://gizmodo.com/a-forgotten-underwater-sound-experiment-almost-changed-1820659353.

Monastersky R. Climate test: hum heard round the world (worldwide sound wave experiment to test greenhouse effect) // Science News 139, 26 January 1991.

The Heard Island Feasibility Test. University of Washington, 2007. https://staff.washington.edu/dushaw/heard/index.shtml.

Wu W., Zhan Zh., Peng Sh., Ni S., Callies J. Seismic ocean thermometry // Science 369 (2020). P. 1510–1515.

Wunsch C. Advance in global ocean acoustics // Science 369 (2020). P. 1433–1434.

ГЛАВА 5

ПАССАЖИРЫ

Сухопутная черепаха

Caccone A., Gentile G., Gibbs J. P., Fritts T. H., Snell H. L., Betts J., Powell J. R. Phylogeography, history of giant Galápagos tortoises // Evolution 56 (2002). P. 2052–2066.

Cheke A. S., Pedrono M., Bour R., Anderson A., Griffiths C., Iverson J. B., Hume J. P., Walsh M. Giant tortoises spread to western Indian Ocean islands by sea drift in pre-Holocene times, not by later human agency – response to Wilmé et al. (2016a) // Journal of Biogeography 44 (2017). P. 1426–1429.

Gerlach J., Muir C., Richmond M. D. The first substantiated case of trans-oceanic tortoise dispersal // Journal of Natural History 40 (2006). P. 2403–2408.

Hansen D. M., Austin J. J., Baxter R. H., de Boer E. J., Falcón W., Norder S. J., Rijsdijk K. F., Thébaud C., Bunbury N. J., Warren B. H. Origins of endemic island tortoises in the western Indian Ocean: a critique of the human-translocation hypothesis // Journal of Biogeography 44 (2017). P. 1430–1435.

Poulakakis N., Russello M., Geist D., Caccone A. Unravelling the peculiarities of island life: vicariance, dispersal, the diversification of the extinct, extant giant Galápagos tortoises // Molecular Ecology 21 (2012). P. 160–173.

Фриц Габер

Koide M., Hodge V., Goldberg E. D., Bertine K. Gold in sea water: a conservative view // Applied Geochemistry 3 (1988). P. 237–241.

Large R. R., Gregory D. D., Steadman J. A., Tomkins A. G., Lounejeva E., Danyushevsky L. V., Halpin J. A., Maslennikov V., Sack P. J., Mukherjee I., Berry R., Hickman A. Gold in the oceans through time // Earth, Planetary Science Letters 428 (2015). P. 139–150.

Nielsen F. H. Evolutionary events culminating in specific minerals becoming essential for life // European Journal of Nutrition 39 (2000). P. 62–66.

Дрейфующие организмы

Hatton I. A., Heneghan R. F., Bar-On Y. M., Galbraith E. D. The global ocean size spectrum from bacteria to whales // Science Advances 7 (2021), eabh3732. https://doi.org/10.1126/sciadv.abh3732.

Humboldt A. von. Cosmos: A Sketch of the Physical Description of the Universe. Vol. 1. Quality Classics, 2010. Vol. 187703.

Фекалии синего кита

Alba-González P., Álvarez-Salgado X. A., Cobelo-García A., Kaal J., Teira E. Faeces of marine birds, mammals as substrates for microbial plankton communities // Marine Environmental Research 174 (2022), 105560. https://doi.org/10.1016/j.marenvres. 2022.105560.

Kean S. Caesar’s Last Breath: The Epic Story of the Air Around Us. Random House, 2017.

Miller E. J., Potts J. M., Cox M. J., Miller B. S., Calderan S., Leaper R., Olson P. A., O’Driscoll R. L., Double M. C. The characteristics of krill swarms in relation to aggregating Antarctic blue whales // Scientific Reports 9 (2019). P. 1–13.

Ratnarajah L., Bowie A. R. Nutrient cycling: are Antarctic krill a previously overlooked source in the marine iron cycle? // Current Biology 26 (2016). P. R884–887.

Ratnarajah L., Bowie A. R., Lannuzel D., Meiners K. M., Nicol S. The biogeochemical role of baleen whales, krill in Southern Ocean nutrient cycling // PloS One 9 (2014), e114067. https://doi.org/10.1371/journal.pone.0114067.

Ratnarajah L., Lannuzel D., Townsend A. T., Meiners K. M., Nicol S., Friedlaender A. S., Bowie A. R. Physical speciation, solubility of iron from baleen whale faecal material // Marine Chemistry 194 (2017). P. 79–88.

Ratnarajah L., Melbourne-Thomas J., Marzloff M. P., Lannuzel D., Klaus M. Meiners, Chever F., Nicol S., Bowie A. R. A preliminary model of iron fertilisation by baleen whales, Antarctic krill in the Southern Ocean: sensitivity of primary productivity estimates to parameter uncertainty // Ecological Modelling 320 (2016). P. 203–212.

Roman J., Nevins J., Altabet M., Koopman H., McCarthy J. Endangered right whales enhance primary productivity in the Bay of Fundy // PLoS One 11 (2016), e0156553. https://doi.org/10.1371/journal.pone.0156553.

Savoca M. S., Czapanskiy M. F., Kahane-Rapport Sh. R., Gough W. T., Fahlbusch J. A., Bierlich K. C., Segre P. S. et al. Baleen whale prey consumption based on high-resolution foraging measurements // Nature 599 (2021). P. 85–90.

Smetacek V. A whale of an appetite revealed by analysis of prey consumption // Nature 599 (2021). P. 33–34.

Sparaventi E., Rodríguez-Romero A., Barbosa A., Ramajo L., Tovar-Sánchez A. Trace elements in Antarctic penguins, the potential role of guano as source of recycled metals in the Southern Ocean // Chemosphere 285 (2021), 131423. https://doi.org/10.1016/j.chemosphere.2021.131423.

Williams J. J., Papastamatiou Y. P., Caselle J. E., Bradley D., Jacoby D. M. P. Mobile marine predators: an understudied source of nutrients to coral reefs in an unfished atoll // Proceedings of the Royal Society B: Biological Sciences 285 (2018), 20172456. https://doi.org/10.1098/rspb.2017.2456.

Лондонская канализация

Ashton J., Ubido J. The healthy city, the ecological idea // Social History of Medicine 4 (1991). P. 173–180.

Бетон

Gagg C. R. Cement, concrete as an engineering material: an historic appraisal, case study analysis // Engineering Failure Analysis 40 (2014). P. 114–140.

Garside M. Cement production worldside from 1995 to 2021 // Statista, 1 April 2022. https://www.statista.com/statistics/1087115/global-cement-production-volume/.

Reilly A., Kinnane O. Construction is a cause of global warming, but is concrete really the problem? // Architects Journal, 1 March 2019.

Углерод

Boyd Ph. W., Claustre H., Levy M., Siegel D. A., Weber T. Multi-faceted particle pumps drive carbon sequestration in the ocean // Nature 568 (2019). P. 327–335. https://doi.org/10.1038/s41586-019-1098-2.

Brumer S. E., Zappa C. J., Blomquist B. W., Fairall C. W., Cifuentes-Lorenzen A., Edson J. B., Brooks I. M., Huebert B. J. Wave-related Reynolds number parameterizations of CO₂, DMS transfer velocities // Geophysical Research Letters 44 (2017). P. 9865–9875.

Claustre H., Legendre L., Boyd Ph., Levy M. The oceans’ biological carbon pumps: framework for a research observational community approach // Frontiers in Marine Science 8 (2021), 780052. https://doi.org/10.3389/fmars.2021.780052.

Falkowski P., Scholes R. J., Boyle E. E. A., Canadell J., Canfield D., Elser J., Gruber N. et al. The global carbon cycle: a test of our knowledge of Earth as a system // Science 290 (2000). P. 291–296.

Falkowski P. G., Laws E. A., Barber R. T., Murray J. W. Phytoplankton, their role in primary, new, export production // Ocean Biogeochemistry / ed. by M. J. R. Fasham. Springer, 2003. P. 99–121.

Friedlingstein P., Jones M. W., O’Sullivan M., Andrew R. M., Bakker D. C. E., Hauck J., Quéré C. le et al. Global carbon budget 2021 // Earth System Science Data 14 (2022). P. 1917–2005. https://doi.org/10.5194/essd-14-1917-2022.

Hunt B. P. V., Pakhomov E. A., Hosie G. W., Siegel V., Ward P., Bernard K. Pteropods in southern ocean ecosystems // Progress in Oceanography 78 (2008). P. 193–221.

Lehman C. What is the «true» nature of diamond? // Nuncius 31 (2016). P. 361–407.

Walters C. C. The origin of petroleum // Practical Advances in Petroleum Processing / ed. by Ch. S. Hsu, P. R. Robinson. Springer, 2006. P. 79–101.

Woolfson M. M. The Origin, Evolution of the Solar System. CRC Press, 2000.

ГЛАВА 6

ПУТЕШЕСТВЕННИКИ

Рамисиллис (Ramisyllis multicaudata)

Franke H.-D. Reproduction of the Syllidae (Annelida: Polychaeta) // Hydrobiologia 402 (1999). P. 39–55.

Frazer J. One head, 1,000 rear ends: the tale of a deeply weird worm // Scientific American, August 2021.

Glasby C. J., Schroeder P. C., Aguado M. T. Branching out: a remarkable new branching syllid (Annelida) living in a Petrosia sponge (Porifera: Demospongiae) // Zoological Journal of the Linnean Society 164 (2012). P. 481–497.

Ponz-Segrelles G., Glasby C. J., Helm C., Beckers P., Hammel J. U., Ribeiro R. P., Aguado M. T. Integrative anatomical study of the branched annelid Ramisyllis multicaudata (Annelida, Syllidae) // Journal of Morphology 282 (2021). P. 900–916.

Пингвины

Baudena A., Ser-Giacomi E., D’Onofrio D., Capet X., Cotté C., Cherel Y., D’Ovidio F. Fine-scale structures as spots of increased fish concentration in the open ocean // Scientific Reports 11 (2021). P. 1–13.

Belkin I. M. Remote sensing of ocean fronts in marine ecology, fisheries // Remote Sensing 13 (2021). Art. 883.

Block B. A., Jonsen I. D., Jorgensen S. J., Winship A. J., Shaffer S. A., Bograd S. J., Hazen E. L. et al. Tracking apex marine predator movements in a dynamic ocean // Nature 475 (2011). P. 86–90.

Bost Ch.-A., Cotté C., Bailleul F., Cherel Y., Charrassin J.-B., Guinet C., Ainley D. G., Weimerskirch H. The importance of oceanographic fronts to marine birds, mammals of the southern oceans // Journal of Marine Systems 78 (2009). P. 363–376.

Charrassin J.-B., Bost Ch.-A. Utilization of the oceanic habitat by king penguins over the annual cycle // Marine Ecology Progress Series. No. 221. Inter-Research Science Publisher, 2001. P. 285–298.

Cherel Y., Hobson K. A., Guinet C., Vanpe C. Stable isotopes document seasonal changes in trophic niches, winter foraging individual specialization in diving predators from the Southern Ocean // Journal of Animal Ecology 76 (2007). P. 826–836.

Freeman N. M., Lovenduski N. S., Gent P. R. Temporal variability in the Antarctic polar front (2002–2014) // Journal of Geophysical Research: Oceans 121 (2016). P. 7263–7276.

Giglio D., Johnson G. C. Subantarctic, polar fronts of the Antarctic Circumpolar Current, Southern Ocean heat, freshwater content variability: a view from Argo // Journal of Physical Oceanography 46 (2016). P. 749–768.

Halsey L. G., Butler P. J., Fahlman A., Bost Ch.-A., Handrich Y. Changes in the foraging dive behaviour, energetics of king penguins through summer, autumn: a month by month analysis // Marine Ecology Progress Series. No. 401. Inter-Research Science Publisher, 2010. P. 279–289.

Kahru M., Di Lorenzo E., Manzano-Sarabia M., Mitchell B. G. Spatial, temporal statistics of sea surface temperature, chlorophyll fronts in the California Current // Journal of Plankton Research 34 (2012). P. 749–760.

Meijers A. J. S., Meredith M. P., Murphy E. J., Chambers D. P., Belchier M., Young E. F. The role of ocean dynamics in king penguin range estimation // Nature Climate Change 9 (2019). P. 120–121.

Orsi A. H., Whitworth T. III, Nowlin W. D. Jr. On the meridional extent, fronts of the Antarctic Circumpolar Current // Deep Sea Research. Part I: Oceanographic Research Papers 42 (1995). P. 641–673.

Park Y.-H., Durand I., Kestenare É., Rougier G., Zhou M., d’Ovidio F., Cotté C., Lee J.-H. Polar Front around the Kerguelen Islands: an up-to-date determination, associated circulation of surface/subsurface waters // Journal of Geophysical Research: Oceans 119 (2014). P. 6575–6592.

Phillips H., Legresy B., Bindoff N. Explainer: how the Antarctic Circumpolar Current helps keep Antarctica frozen // The Conversation, 15 November 2018. https://theconversation.com/explainer-how-the-antarctic-circumpolar-current-helps-keep-antarctica-frozen-106164.

Prants S. V. Marine life at Lagrangian fronts // Progress in Oceanography 204 (2022), 102790. https://doi.org/10.1016/j.pocean.2022.102790.

Scheffer A., Trathan Ph. N., Edmonston J. G., Bost Ch.-A. Combined influence of meso-scale circulation, bathymetry on the foraging behaviour of a diving predator, the king penguin (Aptenodytes patagonicus) // Progress in Oceanography 141 (2016). P. 1–16.

Shiomi K., Sato K., Handrich Y., Bost Ch. A. Diel shift of king penguin swim speeds in relation to light intensity changes // Marine Ecology Progress Series. No. 561. Inter-Research Science Publisher, 2016. P. 233–243. https://doi.org/10.3354/meps11930.

Сельдь

Bandara K., Varpe Ø., Maps F., Ji R., Eiane K., Tverberg V. Timing of Calanus finmarchicus diapause in stochastic environments // Ecological Modelling 460 (2021), e109739. https://doi.org/ 10.1016/j.ecolmodel.2021.109739.

Broms C., Melle W., Kaartvedt S. Oceanic distribution, life cycle of Calanus species in the Norwegian Sea, adjacent waters // Deep Sea Research. Part II: Topical Studies in Oceanography 56 (2009). P. 1910–1921.

Corten A. A possible adaptation of herring feeding migrations to a change in timing of the Calanus finmarchicus season in the eastern North Sea // ICES Journal of Marine Science 57 (2000). P. 1270–2000.

Dickey-Collas M. The current state of knowledge on the ecology, interactions of North Sea herring within the North Sea ecosystem CVO. Report no. CVO 04.028. Stichting DLO-Centre for Fishery Research, 2004. https://library.wur.nl/WebQuery/wurpubs/fulltext/121078.

Gao Sh., Hjøllo S. S., Falkenhaug T., Strand E., Edwards M., Skogen M. D. Overwintering distribution, inflow patterns, sustainability of Calanus finmarchicus in the North Sea // Progress in Oceanography 194 (2021), 102567. https://doi.org/10.1016/ j.pocean.2021.102567.

Heddle D. Sharp tongues, sharp knives: the herring lassies // Orkney News, 20 December 2020.

Helaouët P., Beaugrand G. Macroecology of Calanus finmarchicus, C. helgolandicus in the North Atlantic Ocean, adjacent seas // Marine Ecology Progress Series. No. 345. Inter-Research Science Publisher, 2007. P. 147–165.

Kajaste-McCormack M. The Scottish Fisheries Museum: herring lasses, their silver darlings // Art UK, 20 October 2021. https://artuk.org/discover/stories/the-scottish-fisheries-museum-herring-lasses-and-their-silver-darlings.

King M. H. A partnership of equals: women in Scottish east coast fishing communities // Folk Life 31 (1992). P. 17–35.

Koul V., Schrum C., Düsterhus A., Baehr J. Atlantic inflow to the North Sea modulated by the subpolar gyre in a historical simulation with MPI-ESM // Journal of Geophysical Research: Oceans 124 (2019). P. 1807–1826.

Тунец

Block B. A., Teo S. L. H., Walli A., Boustany A., Stokesbury M. J. W., Farwell Ch. J., Weng K. C., Dewar H., Williams T. D. Electronic tagging, population structure of Atlantic bluefin tuna // Nature 434 (2005). P. 1121–1127.

Chelton D. B., Schlax M. G., Samelson R. M. Global observations of nonlinear mesoscale eddies // Progress in Oceanography 91 (2011). P. 167–216.

Collette B. B. The future of bluefin tunas: ecology, fisheries management, conservation // Reviews in Fisheries Science & Aquaculture 28, 2020. P. 136–137. https://doi.org/10.1080/23308249.2019.1665237.

Devine B., Fennell Sh., Themelis D., Fisher J. A. D. Influence of anticyclonic, warm-core eddies on mesopelagic fish assemblages in the northwest Atlantic Ocean // Deep Sea Research Part I: Oceanographic Research Papers 173 (2021), e103555. https://doi.org/10.1016/j.dsr.2021.103555.

Gaube P., Barcelo C., McGillicuddy D. J. Jr, Domingo A., Miller Ph., Giffoni B., Marcovaldi N., Swimmer Y. The use of mesoscale eddies by juvenile loggerhead sea turtles (Caretta caretta) in the southwestern Atlantic // PloS One 12 (2017), e0172839. https://doi.org/10.1371/journal.pone.0172839.

Golet W. J., Record N. R., Lehuta S., Lutcavage M., Galuardi B., Cooper A. B., Pershing A. J. The paradox of the pelagics: why bluefin tuna can go hungry in a sea of plenty // Marine Ecology Progress Series. No. 527. Inter-Research Science Publisher, 2015. P. 181–192.

Hsu A. C., Boustany A. M., Roberts J. J., Chang J.-H., Halpin P. N. Tuna, swordfish catch in the US northwest Atlantic longline fishery in relation to mesoscale eddies // Fisheries Oceanography 24 (2015). P. 508–520.

Reglero P., Ortega A., Balbín R., Abascal F. J., Medina A., Blanco E., Alvarez-Berastegui F., de la Gándara D., Hidalgo M., Rasmuson L., Alemany F., Fiksen Ø. Atlantic bluefin tuna spawn at suboptimal temperatures for their offspring // Proceedings of the Royal Society B: Biological Sciences 285 (2018), e20171405. https://doi.org/10.1098/rspb.2017.1405.

Richardson D. E., Marancik K. E., Guyon J. R., Lutcavage M. E., Galuardi B., Lam Ch. H., Walsh H. J., Wildes Sh., Yates D. A., Hare J. A. Discovery of a spawning ground reveals diverse migration strategies in Atlantic bluefin tuna (Thunnus thynnus) // Proceedings of the National Academy of Sciences 113 (2016). P. 3299–3304.

Rooker J. R., Fraile I., Liu H., Abid N., Dance M. A., Itoh T., Kimoto A., Tsukahara Y., Rodriguez-Marin E., Arrizabalaga H. Wide-ranging temporal variation in transoceanic movement, population mixing of bluefin tuna in the North Atlantic Ocean // Frontiers in Marine Science 6 (2019), art. 398. https://doi.org/10.3389/fmars.2019.00398.

Taray I. A., Mohd Rafie A. Sh., Zuber M., Ahmad K. A. Hydrodynamics of bluefin tuna: a review // Journal of Advanced Research in Fluid Mechanics, Thermal Sciences 64 (2019). P. 293–303.

«Хокулеа»

Low S. Hawaiki rising: Hōkūle’a, Nainoa Thompson, the Hawaiian renaissance. University of Hawai’i Press, 2018 [2013].

ГЛАВА 7

БУДУЩЕЕ

Anderson T. R., Fletcher Ch. H., Barbee M. M., Romine B. M., Lemmo S., Delevaux J. Modeling multiple sea level rise stresses reveals up to twice the land at risk compared to strictly passive flooding methods // Scientific Reports 8 (2018). P. 1–14.

Braesicke P., Elsner H., Grosfeld K., Gutt J., Hain S., Hellmer H. H., Herata H. et al. World Ocean Review: Living with the Oceans 6: The Arctic, Antarctic – Extreme, Climatically Crucial, in Crisis. Maribus, 2019.

Guancheng L., Cheng L., Zhu J., Trenberth K. E., Mann M. E., Abraham J. P. Increasing ocean stratification over the past half-century // Nature Climate Change 10 (2020). P. 1116–1123.

Hadfield C. An Astronaut’s Guide to Life on Earth. Pan Macmillan, 2013.

Halevy I., Bachan A. The geologic history of seawater pH // Science 355 (2017). P. 1069–1071. https://doi.org/10.1126/science.aal4151.

Holliday N. P., Bersch M., Berx B., Chafik L., Cunningham S., Florindo-López C., Hátún H. et al. Ocean circulation causes the largest freshening event for 120 years in eastern subpolar North Atlantic // Nature Communications 11 (2020). P. 1–15.

Levin L. A. Manifestation, drivers, emergence of open ocean deoxygenation // Annual Review of Marine Science 10 (2018). P. 229–260.

Loeb N. G., Johnson G. C., Thorsen T. J., Lyman J. M., Rose F. G., Kato S. Satellite, ocean data reveal marked increase in Earth’s heating rate // Geophysical Research Letters 48 (2021), e2021GL093047. https://doi.org/10.1029/2021GL093047.

Loomis R., Cooley S. R., Collins J. R., Engler S., Suatoni L. A code of conduct is imperative for ocean carbon dioxide removal research // Frontiers in Marine Science 9 (2022). https://doi.org/10.3389/fmars.2022.872800.

MacKenzie B. R., Payne M. R., Boje J., Høyer J. L., Siegstad H. A cascade of warming impacts brings bluefin tuna to Greenland waters // Global Change Biology 20 (2014). P. 2484–2491.

Monteiro F. M., Bach L. T., Brownlee C., Bown P., Rickaby R. E. M., Poulton A. J., Tyrrell T. et al. Why marine phytoplankton calcify // Science Advances 2 (2016), e1501822. https://doi.org/10.1126/sciadv.1501822.

Oschlies A. A committed fourfold increase in ocean oxygen loss // Nature Communications 12 (2021). P. 1–8.

Poulsen R. W. Cutting the food chain? The controversial plan to turn zooplankton into fish oil // Guardian, 19 January 2022. https://www.theguardian.com/environment/2022/jan/19/cutting-food-chain-faroe-islands-controversial-plan-to-turn-zooplankton-into-fish-oil-health-supplements.

Purkiss D., Allison A. L., Lorencatto F., Michie S., Miodownik M. The big compost experiment: using citizen science to assess the impact, effectiveness of biodegradable, compostable plastics in UK home composting // Frontiers in Sustainability, 3 November 2022, art. 132. https://doi.org/10.3389/frsus.2022.942724.

Romine B. M., Fletcher Ch. H., Barbee M. M., Anderson T. R., Frazer L. N. Are beach erosion rates, sealevel rise related in Hawai’i? // Global, Planetary Change 108 (2013). P. 149–157.

Schmidtko S., Stramma L., Visbeck M. Decline in global oceanic oxygen content during the past five decades // Nature 542 (2017). P. 335–339.

Shigeki W., Agostini S., Harvey B. P., Omori Y., Hall-Spencer J. M. Ocean acidification increases phytobenthic carbon fixation, export in a warm-temperate system // Estuarine, Coastal, Shelf Science 250 (2021), 107113. https://doi.org/10.1016/j.ecss.2020.107113.

Skákala J., Bruggeman J., Ford D., Wakelin S., Akpınar A., Hull T., Kaiser J. et al. The impact of ocean biogeochemistry on physics, its consequences for modelling shelf seas // Ocean Modelling 172 (2022), 101976. https://doi.org/10.1016/j.ocemod.2022.101976.

Stanley S. Capturing how fast the Arctic Ocean is gaining fresh water // Eos 102, 8 December 2021. https://doi.org/10.1029/2021EO210652.

Taylor A. R., Chrachri A., Wheeler G., Goddard H., Brownlee C. A voltage-gated H+ channel underlying pH homeostasis in calcifying coccolithophores // PLoS Biology 9 (2011), e1001085. https://doi.org/10.1371/journal.pbio.1001085.

Voosen P. Climate change spurs global speedup of ocean currents // Science 367 (2020). P. 612–613. https://doi.org/10.1126/science.367.6478.612.

Wayman Ch., Niemann H. The fate of plastic in the ocean environment: a minireview // Environmental Science: Processes & Impacts 23 (2021). P. 198–212.