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Overview
Brief Summary
Biology
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Description
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Comprehensive Description
Biology
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Collette, B.B. and C.E. Nauen 1983 FAO Species Catalogue. Vol. 2. Scombrids of the world. An annotated and illustrated catalogue of tunas, mackerels, bonitos and related species known to date. Rome: FAO. FAO Fish. Synop. 125(2):137 p. (Ref. 168)
http://www.fishbase.org/references/FBRefSummary.php?id=168&speccode=89
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Description
Common names: tuna (English), albacora (Espanol), atún (Espanol)
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Distribution
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North-West Atlantic Ocean species (NWARMS)
http://www.marinespecies.org/aphia.php?p=sourcedetails&id=2901
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Anon. (1996). FishBase 96 [CD-ROM]. ICLARM: Los Baños, Philippines. 1 cd-rom pp.
http://www.marinespecies.org/aphia.php?p=sourcedetails&id=5909
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Anon. (2000). FishBase 2000 [CD-ROM]. ICLARM: Los Baños, Laguna, Philippines. 4 cd-roms pp.
http://www.marinespecies.org/aphia.php?p=sourcedetails&id=6542
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Gallagher, L.; Porteiro, F.; Dâmaso, C. (2006). Guia do consumidor dos peixes Açoreanos [Consumer's guide to Azorean fish]. Universidade dos Açores: Açores. ISBN 972-8612-27-3. 51, pictures pp.
http://www.marinespecies.org/aphia.php?p=sourcedetails&id=9218
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Collette, B.B., and C. E. Nauen 1983. FAO species catalogue.Vol. 2. Scombrids of the world. An annotated and illustrated catalogue of tunas, mackerels, bonitos and related species known to date. FAO Fish. Synop. No. 125: i-vii + 1-137.
http://www.marinespecies.org/aphia.php?p=sourcedetails&id=373
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Cuninghame, R.J. (1912). Notes on collecting sea fish at Mombasa. JEANHS 111(5) 4-13.
http://www.marinespecies.org/aphia.php?p=sourcedetails&id=6044
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Gordon, D. (Ed.) (2009). New Zealand Inventory of Biodiversity. Volume One: Kingdom Animalia. 584 pp
http://www.marinespecies.org/porifera/porifera.php?p=sourcedetails&id=145244
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Felder, D.L. and D.K. Camp (eds.), Gulf of Mexico–Origins, Waters, and Biota. Biodiversity. Texas A&M Press, College Station, Texas.
http://www.marinespecies.org/porifera/porifera.php?p=sourcedetails&id=145245
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van der Land, J.; Costello, M.J.; Zavodnik, D.; Santos, R.S.; Porteiro, F.M.; Bailly, N.; Eschmeyer, W.N.; Froese, R. (2001). Pisces, in: Costello, M.J. et al. (Ed.) (2001). European register of marine species: a check-list of the marine species in Europe and a bibliography of guides to their identification. Collection Patrimoines Naturels, 50: pp. 357-374
http://www.marbef.org/data/aphia.php?p=sourcedetails&id=1411
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MEDIN (2011). UK checklist of marine species derived from the applications Marine Recorder and UNICORN, version 1.0.
http://www.marinespecies.org/asteroidea/aphia.php?p=sourcedetails&id=149081
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Ramos, M. (ed.). 2010. IBERFAUNA. The Iberian Fauna Databank
http://www.marinespecies.org/aphia.php?p=sourcedetails&id=149024
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Koukouras, Athanasios. (2010). Check-list of marine species from Greece. Aristotle University of Thessaloniki. Assembled in the framework of the EU FP7 PESI project.
http://www.marinespecies.org/asteroidea/aphia.php?p=sourcedetails&id=142068
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Gillespie, G. E. 1993. An updated list of the fishes of British Columbia, and those of interest in adjacent waters, with numeric code designations. Can. Tech. Rep. Fish. Aquat. Sci. 1918: 116 p.
http://www.marinespecies.org/aphia.php?p=sourcedetails&id=155121
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Hart, J.L., 1973. Pacific Fishes of Canada. Fish. Res. Bd. Can. Bull 180. 740 pages.
http://www.marinespecies.org/aphia.php?p=sourcedetails&id=147633
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Collette, B.B. and C.E. Nauen 1983 FAO Species Catalogue. Vol. 2. Scombrids of the world. An annotated and illustrated catalogue of tunas, mackerels, bonitos and related species known to date. Rome: FAO. FAO Fish. Synop. 125(2):137 p. (Ref. 168)
http://www.fishbase.org/references/FBRefSummary.php?id=168&speccode=89
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Geographic Range
Albacore reside in the subtropical regions of the North Pacific Ocean, Indian Ocean, North Atlantic Ocean, and Mediterranean Sea. In the North Pacific, albacore are distributed throughout a region from 10 to 50 degrees north latitude, with migration towards the tropical waters during spring and summer spawning months. Albacore occupy similar latitudes in the Atlantic Ocean, but young albacore have been caught by fishermen between 40 to 50 degrees north latitude. In the Indian Ocean, albacore are distributed throughout a region from 50 degrees north latitude to 40 degrees south latitude. In the north, immature albacore occupy 25 to 35 degrees north latitude, mature albacore occupy the north equatorial current region, and spawning albacore occupy the area near 20 degrees north latitude. To the south, mature albacore occupy an area north of 10 degrees south latitude, immature albacore occupy the area south of 30 degrees south latitude, and spawning albacore occupy the area in between (10 to 30 degrees south latitude). Note that for these migratory tuna, April to September are the non-spawning months and October to March are the spawning months in the Indian Ocean, while in the Atlantic, April to September are the spawning months.
Biogeographic Regions: indian ocean (Native ); atlantic ocean (Native ); pacific ocean (Native ); mediterranean sea (Native )
- Watanabe, H., T. Kubodera, S. Masuda, S. Kawahara. 2004. Feeding habits of albacore Thunnus alalunga in the transition region of the central North Pacific. Fisheries Science, 70: 573-579.
- Chen, I., P. Lee, W. Tzeng. 2005. Distribution of albacore (Thunnus albacore) in the Indian Ocean and its relation to environmental factors. Fisheries Oceanography, 14/1: 70-80.
- Bard, F. 2001. Extension of Geographical and Vertical Habitat of Albacore (Thunnus alalunga) in the North Atlantic Possible Consequences on True Rate of Exploitation of this Stock. ICCAT, 52/4: 1447-1456.
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North-West Atlantic Ocean species (NWARMS)
http://www.marinespecies.org/aphia.php?p=sourcedetails&id=2901
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National Distribution
Canada
Origin: Native
Regularity: Regularly occurring
Currently: Present
Confidence: Confident
Type of Residency: Year-round
United States
Origin: Native
Regularity: Regularly occurring
Currently: Present
Confidence: Confident
Type of Residency: Year-round
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Range
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Zoogeography
See Map (including site records) of Distribution in the Tropical Eastern Pacific
Global Endemism: All species, TEP non-endemic, Circumtropical ( Indian + Pacific + Atlantic Oceans), "Transpacific" (East + Central &/or West Pacific), All Pacific (West + Central + East), East Pacific + Atlantic (East +/or West), East Pacific + all Atlantic (East+West)
Regional Endemism: All species, Eastern Pacific non-endemic, Tropical Eastern Pacific (TEP) non-endemic, Continent + Island (s), Continent, Island (s)
Residency: Vagrant
Climate Zone: North Temperate (Californian Province &/or Northern Gulf of California), Northern Subtropical (Cortez Province + Sinaloan Gap), Northern Tropical (Mexican Province to Nicaragua + Revillagigedos), Equatorial (Costa Rica to Ecuador + Galapagos, Clipperton, Cocos, Malpelo), South Temperate (Peruvian Province ), Antitropical (North and South temperate)
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Physical Description
Morphology
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Collette, B.B. and C.E. Nauen 1983 FAO Species Catalogue. Vol. 2. Scombrids of the world. An annotated and illustrated catalogue of tunas, mackerels, bonitos and related species known to date. Rome: FAO. FAO Fish. Synop. 125(2):137 p. (Ref. 168)
http://www.fishbase.org/references/FBRefSummary.php?id=168&speccode=89
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Physical Description
Albacore typically reach sexual maturity at a length of 90 cm. The maximum recorded size is 140 cm and 60.3 kg. Weight varies considerably within the species, with immature albacore weighing less than 14 kg and mature albacore weighing more than 14 kg. One of the most distinguishable traits of albacore are the extremely long pectoral fins. In individuals longer than 50 cm, the pectoral fin can be 30% of the fork length. Because the closely related bigeye tuna (Thunnus obesus) also have extremely long pectoral fins, albacore are often confused with juvenile bigeye tuna. Pectoral fins of bigeye tuna have rounded tips while pectoral fins of albacore have more pointed tips. Because bigeye tuna grow much larger than albacore, only juvenile bigeye tuna are misidentified as albacore. In addition to long pectoral fins, albacore have very small scales covering their body, 11 to 14 dorsal spines, 12 to 16 dorsal soft rays, 11 to 16 anal soft rays, and no anal spines. Because the anterior spines are longer than the posterior spines in the dorsal fin, the dorsal fin appears to have a concave outline pointing back toward the tail. Albacore have a faint blue iridescent band along the side of the body as well as yellow shades in the dorsal and anal fins. Males are similar to females in appearance and color, but begin to grow larger in size after sexual maturity due to different growth rates.
Range mass: 60.3 (high) kg.
Range length: 140 (high) cm.
Other Physical Features: ectothermic ; bilateral symmetry
Sexual Dimorphism: male larger
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Size
Max. size
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IGFA 2001 Database of IGFA angling records until 2001. IGFA, Fort Lauderdale, USA. (Ref. 40637)
http://www.fishbase.org/references/FBRefSummary.php?id=40637&speccode=943
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Altman, P.L. and D.S. Dittmer 1962 Growth, including reproduction and morphological development. Federation of American Societies for Experimental Biology. (Ref. 72462)
http://www.fishbase.org/references/FBRefSummary.php?id=72462&speccode=2600
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Torres, F.S.B. Jr. 1991 Tabular data on marine fishes from Southern Africa, Part II: Growth parameters. Fishbyte 9(2):37-38. (Ref. 3669)
http://www.fishbase.org/references/FBRefSummary.php?id=3669&speccode=142
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Diagnostic Description
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Collette, B.B. and C.E. Nauen 1983 FAO Species Catalogue. Vol. 2. Scombrids of the world. An annotated and illustrated catalogue of tunas, mackerels, bonitos and related species known to date. Rome: FAO. FAO Fish. Synop. 125(2):137 p. (Ref. 168)
http://www.fishbase.org/references/FBRefSummary.php?id=168&speccode=89
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Description
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Anon. (1996). FishBase 96 [CD-ROM]. ICLARM: Los Baños, Philippines. 1 cd-rom pp.
http://www.marinespecies.org/aphia.php?p=sourcedetails&id=5909
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Ecology
Habitat
Environment
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Riede, K. 2004 Global register of migratory species - from global to regional scales. Final Report of the R&D-Projekt 808 05 081. Federal Agency for Nature Conservation, Bonn, Germany. 329 p. (Ref. 51243)
http://www.fishbase.org/references/FBRefSummary.php?id=51243&speccode=4683
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Collette, B.B. and C.E. Nauen 1983 FAO Species Catalogue. Vol. 2. Scombrids of the world. An annotated and illustrated catalogue of tunas, mackerels, bonitos and related species known to date. Rome: FAO. FAO Fish. Synop. 125(2):137 p. (Ref. 168)
http://www.fishbase.org/references/FBRefSummary.php?id=168&speccode=89
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Habitat and Ecology
This species forms mixed schools with Skipjack Tuna (Katsuwonus pelamis), Yellowfin Tuna (Thunnus albacares) and Bluefin Tuna (Thunnus maccoyii). These schools may be associated with floating objects, including sargassum weeds (Collette and Nauen 1983). It feeds on fish, crustaceans and squid. In the Mediterranean Sea, this species feeds on paralepidids, Paralepis speciosa and P. coregonoides; crustaceans - hyperidean amphipods Phrosina semilunata; and cephalopods - Brachyscelus cruslculum (Consoli et al. 2008).
Use of combined Japanese and US tagging data confirm the frequent westward movement of young albacore and infrequent eastward movements in the North Pacific. This corresponds to albacore life history where immature fish recruit into fisheries in the western and eastern Pacific and then gradually move near their spawning grounds in the central and western Pacific before maturing (Ichinokawa et al. 2008).
Immature Albacore Tuna (<80 cm) generally have a sex ratio of 1:1 but males predominate in catches of mature fish. Maturity is attained at about 90–94 cm (FL) for females and 94–97 cm (FL) for males. Spawning occurs at sea surface temperatures of 24°C or higher. Fecundity increases with size but there is no clear correlation between fork length and ovary weight and number of eggs. A 20 kg female may produce between two and three million eggs per season, released in at least two batches (Collette 2010).
Longevity for this species may be as long as 13 years in the South Atlantic (Lee and Yeh 2007) and in the South Pacific (Labelle et al. 1993, Lee and Yeh 1993). Age of first maturity is estimated to be between five and seven years (Wu and Kuo 1993, Ramon and Bailey 1996). Based on age-structured data from the Atlantic and Pacific (Collette et al. 2011), generation length is conservatively estimated to be between 6–7 years.
The all-tackle game fish record is of a 39.97 kg fish taken off of Gran Canaria, Canary Islands in 1977 (IGFA 2011).
Systems
- Marine
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Albacore have been found inhabiting depths of 0 to 600 m. Large albacore (~21 kg) typically occupy depths from 0 to 450 m, with a maximum abundance between 250 and 300 m. This 250 to 300 m depth has a water temperature of 25 to 15 degrees Celsius. While larger-bodied albacore tend to be active around cooler areas (some venture into deeper water ranging from 10 to 25 degrees Celsius), smaller-bodied albacore tend to occupy warmer layers. Being pelagic, they have no dependence on the sea floor.
Range depth: 0 to 600 m.
Habitat Regions: saltwater or marine
Aquatic Biomes: pelagic
- Collette, B., C. Nauen. 1983. Scombrids of the world. An annotated and illustrated catalogue of tunas, mackerels, bonitos and related species known to date. FAO species catalogue, 2: 137.
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North-West Atlantic Ocean species (NWARMS)
http://www.marinespecies.org/aphia.php?p=sourcedetails&id=2901
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North-West Atlantic Ocean species (NWARMS)
http://www.marinespecies.org/aphia.php?p=sourcedetails&id=2901
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Water temperature and chemistry ranges based on 27121 samples.
Environmental ranges
Depth range (m): 0 - 4550
Temperature range (°C): 1.323 - 27.841
Nitrate (umol/L): 0.060 - 33.676
Salinity (PPS): 31.060 - 37.360
Oxygen (ml/l): 2.521 - 7.276
Phosphate (umol/l): 0.022 - 2.359
Silicate (umol/l): 0.481 - 123.229
Graphical representation
Depth range (m): 0 - 4550
Temperature range (°C): 1.323 - 27.841
Nitrate (umol/L): 0.060 - 33.676
Salinity (PPS): 31.060 - 37.360
Oxygen (ml/l): 2.521 - 7.276
Phosphate (umol/l): 0.022 - 2.359
Silicate (umol/l): 0.481 - 123.229
Note: this information has not been validated. Check this *note*. Your feedback is most welcome.
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Inshore/Offshore: Offshore Only, Offshore
Water Column Position: Surface, Near Surface, Mid Water, Water column only
Habitat: Water column
FishBase Habitat: Pelagic
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Migration
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Riede, K. 2004 Global register of migratory species - from global to regional scales. Final Report of the R&D-Projekt 808 05 081. Federal Agency for Nature Conservation, Bonn, Germany. 329 p. (Ref. 51243)
http://www.fishbase.org/references/FBRefSummary.php?id=51243&speccode=4683
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Non-Migrant: No. All populations of this species make significant seasonal migrations.
Locally Migrant: No. No populations of this species make local extended movements (generally less than 200 km) at particular times of the year (e.g., to breeding or wintering grounds, to hibernation sites).
Locally Migrant: No. No populations of this species make annual migrations of over 200 km.
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Trophic Strategy
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Collette, B.B. and C.E. Nauen 1983 FAO Species Catalogue. Vol. 2. Scombrids of the world. An annotated and illustrated catalogue of tunas, mackerels, bonitos and related species known to date. Rome: FAO. FAO Fish. Synop. 125(2):137 p. (Ref. 168)
http://www.fishbase.org/references/FBRefSummary.php?id=168&speccode=89
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Food Habits
The primary diet of albacore includes pacific saury, northern anchovy, crustacean zooplankton, gonatid squid, and Japanese anchovy. Albacore are opportunistic piscivores and their diet varies seasonally depending on location. Anchovy typically constitutes up to 96% of the stomach contents of albacore at any given time. Some studied fish fed on other schools of fish when encountered due to the patchy distribution of anchovy, demonstrating the opportunistic feeding habits of albacore. Albacore also exhibit a diel vertical migration pattern, following their prey throughout the water column.
Animal Foods: fish; mollusks; aquatic crustaceans; zooplankton
Plant Foods: phytoplankton
Primary Diet: carnivore (Piscivore )
- Bernard, H., J. Hedgepeth, S. Reilly. 1985. Stomach Contents of Albacore, Skipjack, and Bonito Caught Off Southern California During Summer 1983. CaCOFL Rep, 26: 175-183.
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Feeding
Diet: octopus/squid/cuttlefish, Pelagic crustacea, bony fishes
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Associations
Ecosystem Roles
Albacore fall into the fourth trophic level in the oceanic ecosystem. Albacore are top predators that prey upon many aquatic species.
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Predation
Many sharks, rays, larger tunas, and billfishes are predators that prey upon albacore. Because albacore are valuable commercial fish, humans are also important predators.
Known Predators:
- sharks and rays (Chondrichthyes)
- larger tunas (Scombridae)
- billfishes (Istiophoridae)
- humans (Homo sapiens)
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Diseases and Parasites
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Munday, B.L., Y. Sawada, T. Cribb and C.J. Hayward 2003 Diseases of tunas, Thunnus spp. J. Fish Dis. 26:187-206. (Ref. 47455)
http://www.fishbase.org/references/FBRefSummary.php?id=47455&speccode=142
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Munday, B.L., Y. Sawada, T. Cribb and C.J. Hayward 2003 Diseases of tunas, Thunnus spp. J. Fish Dis. 26:187-206. (Ref. 47455)
http://www.fishbase.org/references/FBRefSummary.php?id=47455&speccode=142
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Munday, B.L., Y. Sawada, T. Cribb and C.J. Hayward 2003 Diseases of tunas, Thunnus spp. J. Fish Dis. 26:187-206. (Ref. 47455)
http://www.fishbase.org/references/FBRefSummary.php?id=47455&speccode=142
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Munday, B.L., Y. Sawada, T. Cribb and C.J. Hayward 2003 Diseases of tunas, Thunnus spp. J. Fish Dis. 26:187-206. (Ref. 47455)
http://www.fishbase.org/references/FBRefSummary.php?id=47455&speccode=142
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Munday, B.L., Y. Sawada, T. Cribb and C.J. Hayward 2003 Diseases of tunas, Thunnus spp. J. Fish Dis. 26:187-206. (Ref. 47455)
http://www.fishbase.org/references/FBRefSummary.php?id=47455&speccode=142
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Munday, B.L., Y. Sawada, T. Cribb and C.J. Hayward 2003 Diseases of tunas, Thunnus spp. J. Fish Dis. 26:187-206. (Ref. 47455)
http://www.fishbase.org/references/FBRefSummary.php?id=47455&speccode=142
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Munday, B.L., Y. Sawada, T. Cribb and C.J. Hayward 2003 Diseases of tunas, Thunnus spp. J. Fish Dis. 26:187-206. (Ref. 47455)
http://www.fishbase.org/references/FBRefSummary.php?id=47455&speccode=142
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Munday, B.L., Y. Sawada, T. Cribb and C.J. Hayward 2003 Diseases of tunas, Thunnus spp. J. Fish Dis. 26:187-206. (Ref. 47455)
http://www.fishbase.org/references/FBRefSummary.php?id=47455&speccode=142
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Munday, B.L., Y. Sawada, T. Cribb and C.J. Hayward 2003 Diseases of tunas, Thunnus spp. J. Fish Dis. 26:187-206. (Ref. 47455)
http://www.fishbase.org/references/FBRefSummary.php?id=47455&speccode=142
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Munday, B.L., Y. Sawada, T. Cribb and C.J. Hayward 2003 Diseases of tunas, Thunnus spp. J. Fish Dis. 26:187-206. (Ref. 47455)
http://www.fishbase.org/references/FBRefSummary.php?id=47455&speccode=142
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Munday, B.L., Y. Sawada, T. Cribb and C.J. Hayward 2003 Diseases of tunas, Thunnus spp. J. Fish Dis. 26:187-206. (Ref. 47455)
http://www.fishbase.org/references/FBRefSummary.php?id=47455&speccode=142
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Munday, B.L., Y. Sawada, T. Cribb and C.J. Hayward 2003 Diseases of tunas, Thunnus spp. J. Fish Dis. 26:187-206. (Ref. 47455)
http://www.fishbase.org/references/FBRefSummary.php?id=47455&speccode=142
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Munday, B.L., Y. Sawada, T. Cribb and C.J. Hayward 2003 Diseases of tunas, Thunnus spp. J. Fish Dis. 26:187-206. (Ref. 47455)
http://www.fishbase.org/references/FBRefSummary.php?id=47455&speccode=142
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Munday, B.L., Y. Sawada, T. Cribb and C.J. Hayward 2003 Diseases of tunas, Thunnus spp. J. Fish Dis. 26:187-206. (Ref. 47455)
http://www.fishbase.org/references/FBRefSummary.php?id=47455&speccode=142
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Munday, B.L., Y. Sawada, T. Cribb and C.J. Hayward 2003 Diseases of tunas, Thunnus spp. J. Fish Dis. 26:187-206. (Ref. 47455)
http://www.fishbase.org/references/FBRefSummary.php?id=47455&speccode=142
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Munday, B.L., Y. Sawada, T. Cribb and C.J. Hayward 2003 Diseases of tunas, Thunnus spp. J. Fish Dis. 26:187-206. (Ref. 47455)
http://www.fishbase.org/references/FBRefSummary.php?id=47455&speccode=142
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Munday, B.L., Y. Sawada, T. Cribb and C.J. Hayward 2003 Diseases of tunas, Thunnus spp. J. Fish Dis. 26:187-206. (Ref. 47455)
http://www.fishbase.org/references/FBRefSummary.php?id=47455&speccode=142
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Munday, B.L., Y. Sawada, T. Cribb and C.J. Hayward 2003 Diseases of tunas, Thunnus spp. J. Fish Dis. 26:187-206. (Ref. 47455)
http://www.fishbase.org/references/FBRefSummary.php?id=47455&speccode=142
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Munday, B.L., Y. Sawada, T. Cribb and C.J. Hayward 2003 Diseases of tunas, Thunnus spp. J. Fish Dis. 26:187-206. (Ref. 47455)
http://www.fishbase.org/references/FBRefSummary.php?id=47455&speccode=142
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Munday, B.L., Y. Sawada, T. Cribb and C.J. Hayward 2003 Diseases of tunas, Thunnus spp. J. Fish Dis. 26:187-206. (Ref. 47455)
http://www.fishbase.org/references/FBRefSummary.php?id=47455&speccode=142
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Munday, B.L., Y. Sawada, T. Cribb and C.J. Hayward 2003 Diseases of tunas, Thunnus spp. J. Fish Dis. 26:187-206. (Ref. 47455)
http://www.fishbase.org/references/FBRefSummary.php?id=47455&speccode=142
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Munday, B.L., Y. Sawada, T. Cribb and C.J. Hayward 2003 Diseases of tunas, Thunnus spp. J. Fish Dis. 26:187-206. (Ref. 47455)
http://www.fishbase.org/references/FBRefSummary.php?id=47455&speccode=142
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Munday, B.L., Y. Sawada, T. Cribb and C.J. Hayward 2003 Diseases of tunas, Thunnus spp. J. Fish Dis. 26:187-206. (Ref. 47455)
http://www.fishbase.org/references/FBRefSummary.php?id=47455&speccode=142
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Munday, B.L., Y. Sawada, T. Cribb and C.J. Hayward 2003 Diseases of tunas, Thunnus spp. J. Fish Dis. 26:187-206. (Ref. 47455)
http://www.fishbase.org/references/FBRefSummary.php?id=47455&speccode=142
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Munday, B.L., Y. Sawada, T. Cribb and C.J. Hayward 2003 Diseases of tunas, Thunnus spp. J. Fish Dis. 26:187-206. (Ref. 47455)
http://www.fishbase.org/references/FBRefSummary.php?id=47455&speccode=142
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Munday, B.L., Y. Sawada, T. Cribb and C.J. Hayward 2003 Diseases of tunas, Thunnus spp. J. Fish Dis. 26:187-206. (Ref. 47455)
http://www.fishbase.org/references/FBRefSummary.php?id=47455&speccode=142
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Munday, B.L., Y. Sawada, T. Cribb and C.J. Hayward 2003 Diseases of tunas, Thunnus spp. J. Fish Dis. 26:187-206. (Ref. 47455)
http://www.fishbase.org/references/FBRefSummary.php?id=47455&speccode=142
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Munday, B.L., Y. Sawada, T. Cribb and C.J. Hayward 2003 Diseases of tunas, Thunnus spp. J. Fish Dis. 26:187-206. (Ref. 47455)
http://www.fishbase.org/references/FBRefSummary.php?id=47455&speccode=142
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Munday, B.L., Y. Sawada, T. Cribb and C.J. Hayward 2003 Diseases of tunas, Thunnus spp. J. Fish Dis. 26:187-206. (Ref. 47455)
http://www.fishbase.org/references/FBRefSummary.php?id=47455&speccode=142
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Munday, B.L., Y. Sawada, T. Cribb and C.J. Hayward 2003 Diseases of tunas, Thunnus spp. J. Fish Dis. 26:187-206. (Ref. 47455)
http://www.fishbase.org/references/FBRefSummary.php?id=47455&speccode=142
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Munday, B.L., Y. Sawada, T. Cribb and C.J. Hayward 2003 Diseases of tunas, Thunnus spp. J. Fish Dis. 26:187-206. (Ref. 47455)
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Munday, B.L., Y. Sawada, T. Cribb and C.J. Hayward 2003 Diseases of tunas, Thunnus spp. J. Fish Dis. 26:187-206. (Ref. 47455)
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Munday, B.L., Y. Sawada, T. Cribb and C.J. Hayward 2003 Diseases of tunas, Thunnus spp. J. Fish Dis. 26:187-206. (Ref. 47455)
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Munday, B.L., Y. Sawada, T. Cribb and C.J. Hayward 2003 Diseases of tunas, Thunnus spp. J. Fish Dis. 26:187-206. (Ref. 47455)
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Munday, B.L., Y. Sawada, T. Cribb and C.J. Hayward 2003 Diseases of tunas, Thunnus spp. J. Fish Dis. 26:187-206. (Ref. 47455)
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Munday, B.L., Y. Sawada, T. Cribb and C.J. Hayward 2003 Diseases of tunas, Thunnus spp. J. Fish Dis. 26:187-206. (Ref. 47455)
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Munday, B.L., Y. Sawada, T. Cribb and C.J. Hayward 2003 Diseases of tunas, Thunnus spp. J. Fish Dis. 26:187-206. (Ref. 47455)
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Munday, B.L., Y. Sawada, T. Cribb and C.J. Hayward 2003 Diseases of tunas, Thunnus spp. J. Fish Dis. 26:187-206. (Ref. 47455)
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Munday, B.L., Y. Sawada, T. Cribb and C.J. Hayward 2003 Diseases of tunas, Thunnus spp. J. Fish Dis. 26:187-206. (Ref. 47455)
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Munday, B.L., Y. Sawada, T. Cribb and C.J. Hayward 2003 Diseases of tunas, Thunnus spp. J. Fish Dis. 26:187-206. (Ref. 47455)
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Munday, B.L., Y. Sawada, T. Cribb and C.J. Hayward 2003 Diseases of tunas, Thunnus spp. J. Fish Dis. 26:187-206. (Ref. 47455)
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Munday, B.L., Y. Sawada, T. Cribb and C.J. Hayward 2003 Diseases of tunas, Thunnus spp. J. Fish Dis. 26:187-206. (Ref. 47455)
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Munday, B.L., Y. Sawada, T. Cribb and C.J. Hayward 2003 Diseases of tunas, Thunnus spp. J. Fish Dis. 26:187-206. (Ref. 47455)
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Munday, B.L., Y. Sawada, T. Cribb and C.J. Hayward 2003 Diseases of tunas, Thunnus spp. J. Fish Dis. 26:187-206. (Ref. 47455)
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Munday, B.L., Y. Sawada, T. Cribb and C.J. Hayward 2003 Diseases of tunas, Thunnus spp. J. Fish Dis. 26:187-206. (Ref. 47455)
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Munday, B.L., Y. Sawada, T. Cribb and C.J. Hayward 2003 Diseases of tunas, Thunnus spp. J. Fish Dis. 26:187-206. (Ref. 47455)
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Munday, B.L., Y. Sawada, T. Cribb and C.J. Hayward 2003 Diseases of tunas, Thunnus spp. J. Fish Dis. 26:187-206. (Ref. 47455)
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Munday, B.L., Y. Sawada, T. Cribb and C.J. Hayward 2003 Diseases of tunas, Thunnus spp. J. Fish Dis. 26:187-206. (Ref. 47455)
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Munday, B.L., Y. Sawada, T. Cribb and C.J. Hayward 2003 Diseases of tunas, Thunnus spp. J. Fish Dis. 26:187-206. (Ref. 47455)
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Munday, B.L., Y. Sawada, T. Cribb and C.J. Hayward 2003 Diseases of tunas, Thunnus spp. J. Fish Dis. 26:187-206. (Ref. 47455)
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Munday, B.L., Y. Sawada, T. Cribb and C.J. Hayward 2003 Diseases of tunas, Thunnus spp. J. Fish Dis. 26:187-206. (Ref. 47455)
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Munday, B.L., Y. Sawada, T. Cribb and C.J. Hayward 2003 Diseases of tunas, Thunnus spp. J. Fish Dis. 26:187-206. (Ref. 47455)
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Munday, B.L., Y. Sawada, T. Cribb and C.J. Hayward 2003 Diseases of tunas, Thunnus spp. J. Fish Dis. 26:187-206. (Ref. 47455)
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Munday, B.L., Y. Sawada, T. Cribb and C.J. Hayward 2003 Diseases of tunas, Thunnus spp. J. Fish Dis. 26:187-206. (Ref. 47455)
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Munday, B.L., Y. Sawada, T. Cribb and C.J. Hayward 2003 Diseases of tunas, Thunnus spp. J. Fish Dis. 26:187-206. (Ref. 47455)
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Munday, B.L., Y. Sawada, T. Cribb and C.J. Hayward 2003 Diseases of tunas, Thunnus spp. J. Fish Dis. 26:187-206. (Ref. 47455)
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Munday, B.L., Y. Sawada, T. Cribb and C.J. Hayward 2003 Diseases of tunas, Thunnus spp. J. Fish Dis. 26:187-206. (Ref. 47455)
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Munday, B.L., Y. Sawada, T. Cribb and C.J. Hayward 2003 Diseases of tunas, Thunnus spp. J. Fish Dis. 26:187-206. (Ref. 47455)
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Munday, B.L., Y. Sawada, T. Cribb and C.J. Hayward 2003 Diseases of tunas, Thunnus spp. J. Fish Dis. 26:187-206. (Ref. 47455)
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Munday, B.L., Y. Sawada, T. Cribb and C.J. Hayward 2003 Diseases of tunas, Thunnus spp. J. Fish Dis. 26:187-206. (Ref. 47455)
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Munday, B.L., Y. Sawada, T. Cribb and C.J. Hayward 2003 Diseases of tunas, Thunnus spp. J. Fish Dis. 26:187-206. (Ref. 47455)
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Munday, B.L., Y. Sawada, T. Cribb and C.J. Hayward 2003 Diseases of tunas, Thunnus spp. J. Fish Dis. 26:187-206. (Ref. 47455)
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Munday, B.L., Y. Sawada, T. Cribb and C.J. Hayward 2003 Diseases of tunas, Thunnus spp. J. Fish Dis. 26:187-206. (Ref. 47455)
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Munday, B.L., Y. Sawada, T. Cribb and C.J. Hayward 2003 Diseases of tunas, Thunnus spp. J. Fish Dis. 26:187-206. (Ref. 47455)
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Munday, B.L., Y. Sawada, T. Cribb and C.J. Hayward 2003 Diseases of tunas, Thunnus spp. J. Fish Dis. 26:187-206. (Ref. 47455)
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Munday, B.L., Y. Sawada, T. Cribb and C.J. Hayward 2003 Diseases of tunas, Thunnus spp. J. Fish Dis. 26:187-206. (Ref. 47455)
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Munday, B.L., Y. Sawada, T. Cribb and C.J. Hayward 2003 Diseases of tunas, Thunnus spp. J. Fish Dis. 26:187-206. (Ref. 47455)
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Life History and Behavior
Behavior
Communication and Perception
Little specific information is available on how albacore perceive their environment or communicate with others. However, they most likely perceive their environment through visual, auditory, tactile, and chemical means, as do most fish.
Perception Channels: visual ; acoustic
- von der Emde, G., J. Mogdans, B. Kapoor. 2004. The senses of fish : adaptations for the reception of natural stimuli. Boston: Kluwer.
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Life Cycle
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Collette, B.B. and C.E. Nauen 1983 FAO Species Catalogue. Vol. 2. Scombrids of the world. An annotated and illustrated catalogue of tunas, mackerels, bonitos and related species known to date. Rome: FAO. FAO Fish. Synop. 125(2):137 p. (Ref. 168)
http://www.fishbase.org/references/FBRefSummary.php?id=168&speccode=89
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Development
Although albacore are closely related and quite similar to skipjack tuna and yellowfin tuna, they have different life history strategies. Skipjack tuna and yellowfin tuna are characterized by rapid growth and development, early maturation, and high energy input into gonad production. Albacore on the other hand, grow slow, mature late, and put relatively little energy into gonad production. The life stages of albacore include immature juveniles, non-spawning mature adults, and spawning mature adults. The eggs and larvae are planktonic, floating around the water column freely. The typical age of sexual maturity is five years. Up until the age of four, differences between males and females are negligible, but after that, males become increasingly larger than females. When captured, sex is determined by gonad analysis.
- Santiago, J., H. Arrizabalaga. 2005. An integrated growth study for North Atlantic albacore (Thunnus alalunga Bonn. 1788). Journal of Marine Science, 62: 740-749.
- Essington, T. 2003. Development and Sensitivity Analysis of Bioenergetics Models for Skipjack Tuna and Albacore: A Comparison of Alternative Life Histories. Transactions of the American Fisheries Society, 132: 759-770.
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Life Expectancy
Lifespan/Longevity
Males grow larger and to a later age in the Atlantic and Mediterranean. Maximum lifespan of albacore in the Atlantic is 13 years, while it is only 9 years in the Mediterranean. Before sexual maturity, the population sex ratio is 1:1. After maturity, males predominate due to differences in mortality and growth rate.
Range lifespan
Status: wild: 13 (high) years.
- Megalofonou, P. 2000. Age and growth of Mediterranean albacore. Journal of Fish Biology, 57: 700-715.
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Reproduction
Albacore are polygynandrous. They spawn as a group by simply releasing their eggs and sperm into the water.
Mating System: polygynandrous (promiscuous)
Albacore are an iteroparous species that breed seasonally. Adults make a spawning migration toward more tropical waters during the summer months (April to September in the Northern Hemisphere, October to March in the Southern Hemisphere). Females lay eggs that are fertilized externally (oviparous). Albacore tend to scatter their eggs throughout the ocean. A 20 kg female can produce 2 to 3 million eggs in two batches. However, this varies by size. Albacore reach sexual maturity at about five years of age.
Breeding interval: Albacore breed once yearly
Breeding season: Albacore breed July to September in the Northern Hemisphere, October to March in the Southern Hemisphere
Average number of offspring: 2 million.
Average age at sexual or reproductive maturity (female): 5 years.
Average age at sexual or reproductive maturity (male): 5 years.
Key Reproductive Features: iteroparous ; seasonal breeding ; gonochoric/gonochoristic/dioecious (sexes separate); sexual ; fertilization (External ); broadcast (group) spawning; oviparous
Besides the contribution of their gametes and the energy expended migrating to spawning grounds, there is no parental investment by albacore.
Parental Investment: no parental involvement
- Collette, B., C. Nauen. 1983. Scombrids of the world. An annotated and illustrated catalogue of tunas, mackerels, bonitos and related species known to date. FAO species catalogue, 2: 137.
- Santiago, J., H. Arrizabalaga. 2005. An integrated growth study for North Atlantic albacore (Thunnus alalunga Bonn. 1788). Journal of Marine Science, 62: 740-749.
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Molecular Biology and Genetics
Molecular Biology
Barcode data: Thunnus alalunga
There are 24 barcode sequences available from BOLD and GenBank. Below is a sequence of the barcode region Cytochrome oxidase subunit 1 (COI or COX1) from a member of the species. See the BOLD taxonomy browser for more complete information about this specimen and other sequences.
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Download FASTA File
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Statistics of barcoding coverage: Thunnus alalunga
Public Records: 39
Specimens with Barcodes: 76
Species With Barcodes: 1
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Conservation
Conservation Status
IUCN Red List Assessment
Red List Category
Red List Criteria
Version
Year Assessed
Assessor/s
Reviewer/s
Contributor/s
Justification
History
- 1996Data Deficient
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As a whole, albacore are not cited as endangered by any major organizations, but not enough information is available for a definitive classification. This is due to lack of fishing for albacore past certain depths. However, the north Atlantic stock of albacore is listed as vulnerable by the IUCN, and the south Atlantic stock is listed as critically endangered.
US Federal List: no special status
CITES: no special status
IUCN Red List of Threatened Species: critically endangered
- Uozumi, Y. 2004. "Thunnus alalunga" (On-line). 2004 IUCN Red List of Threatened Species. Accessed December 16, 2005 at www.redlist.org.
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National NatureServe Conservation Status
Canada
Rounded National Status Rank: NNR - Unranked
United States
Rounded National Status Rank: NNR - Unranked
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Status
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Trends
Population
North Pacific Ocean
An assessment for the North Pacific stock conducted in 2006 (Stocker 2006, ISC 2008) found that spawning stock biomass (SSB) has experienced slight fluctuations since 1960s, but has remained relatively stable at ~90,000 mt over the last two decades. Linear regression of SSB over the past 20 years (1987–2005), shows only a very small decline of approximately 6%. The total catch increased substantially in 2007, to a level typical of the catches occurring during the 1996–2004 period, while preliminary catch for 2008 decreased to a level more consistent with catches after 2004. Even though current fishing mortality is projected to be above FMSY, recent changes in the distribution of the fishery need to be appropriately standardized before relative abundance can be accurately reflected (Holmes 2009). A new stock assessment planned for 2011.
South Pacific Ocean
Based on Multifan-CL stock assessment conducted in 2008 (Hoyle et al. 2008), SSB has decreased approximately 36–40% over the past 20 years (1987–2007). However, the conclusion is that this species is not in an overfished state, with current catch levels being sustainable (Hoyle and Davies 2009). Although estimates are highly variable between model configurations, 2004–2006 mortality is estimated to be below FMSY, and 2004–2006 biomass is estimated to be above BMSY, and spawning stock biomass between 2004–2006 is estimated to be above SSBMSY (Hoyle and Davies 2009).
Indian Ocean
The only stock assessment available for this species in the Indian Ocean, conducted in 2008, may be unreliable (Hilary 2008). In terms of predicted stock-status, the model predicted that the stock biomass in the Indian Ocean was very close to MSY but that the current harvest rate was above the MSY level indicating that over-fishing may be occurring. The 2007 catch level (31,226 tonnes) was predicted to be above the MSY level (27,022 tonnes) with high probability. This assessment is very preliminary and it should be recommended that a more realistic fully age/length structured model be developed for the future to assess this stock (Hilary 2008).
Based on this exploratory stock assessment, estimated SSB in the Indian Ocean has declined approximately 55% over the past 20 years (1987–2007), even though in the past four years (2002–2006) estimated SSB has increased from 20,000 to 40,000 tonnes. Standardized CPUE has also declined over the past 25 years, but has been relatively stable since 1990 (IOTC 2008). Current mortality is below FMSY. Although results of these analyses are considered preliminary and indicative only, it was concluded that this stock is not presently overfished (IOTC 2008).
North Atlantic Ocean
Catches of this species in the north Atlantic peaked at 65,000 tonnes in the mid-1960s, then declined to a low of 20,000 tonnes in 2008. This decline is partly due to reduced fishing effort by some surface and longline fisheries. The most recent stock assessment in 2009 indicated that recruitment in the fishery is highly variable, and that biomass since 1993 has been less than biomass at MSY. Currently, the stock is about 40% below the MSY level and spawning stock biomass is currently only 25% of the original biomass (ICCAT 2009). The MSY from the last stock assessment was estimated at 29,000 tonnes, and catches in four of the last ten years have exceeded this value. This species stock in the North Atlantic was recently considered to be in an overfished state (ISSF 2010, Joseph 2009). However, in 2009 catch quotas were adopted in line with scientific advice to end overfishing.
In the 2009 stock assessment for the north Atlantic (ICCAT 2009), several models were used to evaluated the status of the stock. Based on linear regression of the Multifan base case, estimated spawning stock biomass has decreased approximately 33% over the past 20 years (1987–2007).
South Atlantic Ocean
In the South Atlantic, catches have varied from a high of 41,000 tonnes in 1987 to a low of 15,000 tonnes in 1984. Catches were stable from 1988 to 2001 at ca. 30,000 tonnes, and the average in the last five years has been 21,000 tonnes (ISSF 2010). The current estimate of MSY is 33,000 tonnes, ranging between 29,000 and 36,700 tonnes. In the last ten years only one year had a catch exceeding the MSY estimate. It is likely that the stock is below the maximum sustainable yield (MSY) level as it was estimated to about 90% of BMSY in 2005, while the 2005 fishing mortality rate was about 60% of FMSY (SCRS ICCAT 2010). The stock is considered to be in a slightly overfished state, but is not currently being fished above MSY (ISSF 2010).
In the 2007 stock assessment for the South Atlantic (ICCAT 2007), several models were used to evaluated the status of the stock. Based on linear regression of the ASPM age structured production model base case, estimated SSB has decreased approximately 32% over the past 20 years (1987–2007).
Mediterranean
A stock assessment for the Mediterranean is planned for 2011. The Mediterranean albacore fisheries are characterized by high spatio-temporal variability in landings and fishing patterns. Albacore fishing is a traditional activity for a number of fleets including those of Cyprus, Greece, Italy, Spain, and Malta. ICCAT statistics, however, are considered quite incomplete due to unreported catches from several countries and the lack of data in some years from other countries. Fishing effort is not possible to estimate due to short time series and inadequate coverage of artisanal gears. Even though catches of Mediterranean albacore have been increasing for the past few years, there is a lack of general information on this stock and biological information is also limited (ICCAT 2010). Although many countries are not yet reporting any catch for this species, the Mediterranean stock does not show any general trend, and the mixing rate with the Atlantic stock appears to be insignificant (STECF 2007).
Population Trend
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Threats
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IUCN 2006 2006 IUCN red list of threatened species. www.iucnredlist.org. Downloaded July 2006.
http://www.fishbase.org/references/FBRefSummary.php?id=57073
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Catches of northern Atlantic Albacore Tuna are primarily made by pole-and-line (35%), trolling (28%), trawlers (17%) and longline (17%). The main fisheries are Spain, France, and Chinese Taipei. Surface fisheries concentrate mainly in the Bay of Biscay and the Azores and Canary Islands during summer and fall, taking young fish while longline vessels operate throughout the Atlantic year-round and target larger fish (ISSF 2010). For the south Atlantic stock, the main fisheries are longliners from Chinese Taipei (56%), pole-and-line from South Africa (18%) and from Namibia (13%). Surface fisheries operate mainly between October and May capturing juvenile and subadult fish (ISSF 2010).
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Management
Conservation Actions
In the north Atlantic, a total allowable catch (TAC) of 28,000 tonnes was established for 2010 and 2011 for the northern stock. TACs are also in place for the southern Atlantic albacore fishery. For the south Atlantic, the TAC for 2009–2011 is 29,900 and adjustments are made to reduce the TACs in the following year if the actual catch exceeds the TAC in a given year (ICCAT 2009). The driftnet fishery for albacore has been banned since January 1st 2002 in the European Union countries and from 2004 in all the ICCAT Mediterranean countries, but it is known that illegal fishing activity still occurs in some areas (STEFC 2007).
In the North Pacific, the International Scientific Committee-Albacore Working Group strongly recommends that all countries support precautionary-based fishing practices (e.g., limits on current levels of fishing effort) given the current level of fishing mortality (ISC 2008). In the Indian Ocean, there are no conservation measures in place, but a new assessment for this species is recommended by 2010.
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Conservation
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Relevance to Humans and Ecosystems
Benefits
Importance
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International Game Fish Association 1991 World record game fishes. International Game Fish Association, Florida, USA. (Ref. 4699)
http://www.fishbase.org/references/FBRefSummary.php?id=4699&speccode=2590
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Food and Agriculture Organization of the United Nations 1992 FAO yearbook 1990. Fishery statistics. Catches and landings. FAO Fish. Ser. (38). FAO Stat. Ser. 70:(105):647 p. (Ref. 4931)
http://www.fishbase.org/references/FBRefSummary.php?id=4931&speccode=228
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Economic Importance for Humans: Negative
Current research is beginning to show that some tuna consumed by humans may exceed the Food and Drug Administration's original action level of 0.5 ppm mercury. Tuna marketed in stores as white tuna, such as albacore, contains twice as much mercury as skipjack tuna, which is typically marketed as light or chunk light tuna. This is not a major health issue right now, but it may be wise to perform further research on this inorganic metal contaminant in tuna.
- Burger, J., M. Gochfeld. 2004. Mercury in canned tuna: white versus light and temporal variation. Environmental Research, 96: 239-259.
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Economic Importance for Humans: Positive
Albacore are important commercially and are highly targeted by fisheries around the world, especially by Taiwan, Japan, and Korea. They are caught and sold fresh, frozen, or canned.
Positive Impacts: food
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Wikipedia
Albacore
The albacore, Thunnus alalunga, is a type of tuna in the family Scombridae. This species is also called albacore fish, albacore tuna, albicore, albie, pigfish, tombo ahi, binnaga, Pacific albacore, German bonito (but see bonito), longfin, longfin tuna, longfin tunny, or even just tuna. It is the only tuna species which may be marketed as "white meat tuna" in the United States. It is found in the open waters of all tropical and temperate oceans, and the Mediterranean Sea. Lengths range up to 140 cm (4.6 ft) and weights up to 60.3 kg (133 lb).
Albacore is a prized food, and the albacore fishery is economically significant. Methods of fishing include pole and line, long-line fishing, trolling, and some purse seining. It is also sought after by sport fishers.
The pectoral fins of the albacore are very long, as much as 50% of the total length. The dorsal spines are 8 to 10 in number, and well forward of the rays of the dorsal fin. The anterior spines are much longer, giving a concave outline to the spiny part of the dorsal fin.
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Other species called albacore
In some parts of the world, other species may be called "albacore":
- Blackfin tuna Thunnus atlanticus (albacore)
- Yellowfin tuna Thunnus albacares (albacore, autumn albacore, yellowfinned albacore)
- Yellowtail amberjack Seriola lalandi (albacore)
- Kawakawa Euthynnus affinis (false albacore)
- Little tunny Euthynnus alletteratus (false albacore)
Consumers, albacore, and sustainable fisheries
A number of programs have been developed to help consumers identify and support responsible and sustainable fisheries. Perhaps the most widely accepted of these programs is that of the Marine Stewardship Council (MSC). Several albacore fisheries have been certified as sustainable according to MSC standards, including the U.S. North and South Pacific albacore pole & line and troll/jig fisheries ("pole & troll"), Canadian North Pacific troll fishery, and the New Zealand South Pacific troll fishery.[2]
The United States government's "Fishwatch" program seeks to provide consumers with accurate and timely information on U.S. seafood fisheries.[3]
In 2010, Greenpeace International added the Albacore to its "seafood red list". "The Greenpeace International seafood red list is a list of fish that are commonly sold in supermarkets around the world, and which have a very high risk of being sourced from unsustainable fisheries."[4]
Mercury levels
Like other fish, albacore accumulates methylmercury in body tissue over time. Methylmercury is removed from the body naturally, but it may take over a year for the levels to drop significantly. Thus, it may remain in a woman from before she becomes pregnant. The average canned albacore "white" or "solid" tuna is 0.35 ppm of methylmercury.[5][6] Some groups[who?] have urged testing and recall of older canned albacore that may have high mercury levels.[citation needed]
Recent studies from the U.S. and Canada show that the albacore caught by the American albacore fishing fleet off the coasts of Washington, Oregon, and California have far lower mercury levels than in previous years.[7] The U.S. Food and Drug Administration (FDA) advises women of childbearing age and children to limit their consumption of albacore tuna ("chunk white" or "solid white" ) and tuna steaks to 6 ounces (170 g) per week or less. However, the FDA advisory does not distinguish the albacore caught off the West Coast from albacore caught in other parts of the world.[citation needed]
Lightly cooked albacore steak
Supply
Management and stock assessment are applied to separate stocks of albacore believed to occur in the North Pacific, South Pacific, Indian Ocean, North Atlantic and South Atlantic.
SeaChoice ranks albacore as a "best choice" for consumers, although notes some "moderate concerns" regarding the management effectiveness (in particular, no definitive assessment of the albacore stock of the Indian Ocean fishery has taken place), and "moderate concern" over the fishing stock, especially regarding the North Atlantic albacore population, which the National Marine Fisheries Service (NMFS) considers overfished with overfishing still occurring. The southern Atlantic stock is also considered (in 2007) overfished but not currently experiencing overfishing. The North Pacific and South Pacific albacore stocks are not overfished and are not experiencing overfishing.[8]
Notes
- ^ Collette B and 34 others (2011). "Thunnus alalunga". IUCN Red List of Threatened Species. Version 2011.2. International Union for Conservation of Nature. http://www.iucnredlist.org/apps/redlist/details/21856. Retrieved 13 January 2012.
- ^ Marine Stewardship Council. "List of all certified fisheries". MSC.org. http://www.msc.org/track-a-fishery/certified/all-certified-fisheries. Retrieved 15 February 2012.
- ^ NOAA Fishwatch - Pacific albacore
- ^ "Greenpeace International Seafood Red list". Greenpeace. http://www.greenpeace.org/international/en/campaigns/oceans/seafood/red-list-of-species/. Retrieved 3 November 2012.
- ^ "What You Need to Know about Mercury in Fish and Shellfish". US EPA. Archived from the original on 5 October 2009. http://www.epa.gov/waterscience/fish/advice/. Retrieved 2009-10-15.
- ^ "Draft Risk and Benefit Report: Section II, Exposure to Methylmercury in the United States". FDA. Archived from the original on 3 November 2009. http://www.fda.gov/Food/FoodSafety/Product-SpecificInformation/Seafood/FoodbornePathogensContaminants/Methylmercury/ucm173271.htm. Retrieved 2009-10-15.
- ^ http://www.nmfs.noaa.gov/fishwatch/docs/OSU_Mercury_Study.pdf
- ^ "Tuna: Albacore". SeaChoice. http://www.seachoice.org/profile/70/view. Retrieved 2007-02-21.
Other references
- North Atlantic albacore tuna NOAA FishWatch. Retrieved 5 November 2012.
- Pacific albacore tuna NOAA FishWatch. Retrieved 5 November 2012.
Unreviewed



