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Original Articles

Early stages of Lepeophtheirus salmonis (Copepoda, Caligidae)

Pages 169-176 | Received 08 Jul 1977, Published online: 21 Dec 2011

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Read on this site (4)

OLIVER TULLY. (1992) Predicting infestation parameters and impacts of caligid copepods in wild and cultured fish populations. Invertebrate Reproduction & Development 22:1-3, pages 91-102.
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D. JACKSON & D. MINCHIN. (1992) Aspects of the reproductive output of two caligid copepod species parasitic on cultivated salmon. Invertebrate Reproduction & Development 22:1-3, pages 87-90.
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Articles from other publishers (63)

C Thompson, S Bui, S Dalvin & R Skern-Mauritzen. (2023) Disentangling the key drivers of salmon louse Lepeophtheirus salmonis fecundity using multiyear field samples. Aquaculture Environment Interactions 15, pages 161-178.
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Wojciech Piasecki, Balu Alagar Venmathi Maran & Susumu Ohtsuka. (2023) Are We Ready to Get Rid of the Terms “Chalimus” and ”Preadult” in the Caligid (Crustacea: Copepoda: Caligidae) Life Cycle Nomenclature?. Pathogens 12:3, pages 460.
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Fletcher Warren-Myers, Tone Vågseth, Ole Folkedal, Lars Helge Stien, Jan Olav Fosse, Tim Dempster & Frode Oppedal. (2022) Full production cycle, commercial scale culture of salmon in submerged sea-cages with air domes reduces lice infestation, but creates production and welfare challenges. Aquaculture 548, pages 737570.
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. (2022) Caligidae. CABI Compendium CABI Compendium.
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Jaewoon Jeong, Gregor F. McEwan, Gabriel Arriagada, Cristian Gallardo‐Escárate & Crawford W. Revie. (2021) Quantifying key parameters related to the life cycle of Caligus rogercresseyi . Journal of Fish Diseases 45:1, pages 219-224.
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LC Stige, KO Helgesen, H Viljugrein & L Qviller. (2021) A statistical mechanistic approach including temperature and salinity effects to improve salmon lice modelling of infestation pressure. Aquaculture Environment Interactions 13, pages 339-361.
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Andrew Coates, Ben L. Phillips, Samantha Bui, Frode Oppedal, Nick A. Robinson & Tim Dempster. (2021) Evolution of salmon lice in response to management strategies: a review. Reviews in Aquaculture 13:3, pages 1397-1422.
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A Szetey, DW Wright, F Oppedal & T Dempster. (2021) Salmon lice nauplii and copepodids display different vertical migration patterns in response to light. Aquaculture Environment Interactions 13, pages 121-131.
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Ian R. Bricknell, Sean D. Birkel, Susan H. Brawley, Tyler Van Kirk, Heather J. Hamlin, Kyle Capistrant‐Fossa, Kimberly Huguenard, G. Peter Van Walsum, Zhilong L. Liu, Longhuan H. Zhu, Gretchen Grebe, Emma Taccardi, Molly Miller, Brian M. Preziosi, Kevin Duffy, Carrie J. Byron, Charlotte T.C. Quigley, Timothy J. Bowden, Damian Brady, Brian F. Beal, Praveen K. Sappati, Teresa R. Johnson & Shane Moeykens. (2020) Resilience of cold water aquaculture: a review of likely scenarios as climate changes in the Gulf of Maine. Reviews in Aquaculture 13:1, pages 460-503.
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Andrew Coates, Ben L. Phillips, Frode Oppedal, Samantha Bui, Kathy Overton & Tim Dempster. (2020) Parasites under pressure: salmon lice have the capacity to adapt to depth-based preventions in aquaculture. International Journal for Parasitology 50:10-11, pages 865-872.
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F. Oppedal, O. Folkedal, L.H. Stien, T. Vågseth, J.O. Fosse, T. Dempster & F. Warren-Myers. (2020) Atlantic salmon cope in submerged cages when given access to an air dome that enables fish to maintain neutral buoyancy. Aquaculture 525, pages 735286.
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T Crosbie, DW Wright, F Oppedal, S Dalvin, MS Myksvoll & T Dempster. (2020) Impact of thermoclines on the vertical distribution of salmon lice larvae. Aquaculture Environment Interactions 12, pages 1-10.
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F Oppedal, S Bui, LH Stien, K Overton & T Dempster. (2019) Snorkel technology to reduce sea lice infestations: efficacy depends on salinity at the farm site, but snorkels have minimal effects on salmon production and welfare. Aquaculture Environment Interactions 11, pages 445-457.
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LA Hamre, S Bui, F Oppedal, R Skern-Mauritzen & S Dalvin. (2019) Development of the salmon louse Lepeophtheirus salmonis parasitic stages in temperatures ranging from 3 to 24°C. Aquaculture Environment Interactions 11, pages 429-443.
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Paul C. Sikkel & Rachel L. Welicky. 2019. Parasitic Crustacea. Parasitic Crustacea 421 477 .
A J Brooker, R Skern-Mauritzen & J E Bron. (2018) Production, mortality, and infectivity of planktonic larval sea lice, Lepeophtheirus salmonis (Krøyer, 1837): current knowledge and implications for epidemiological modelling. ICES Journal of Marine Science 75:4, pages 1214-1234.
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E J Nelson, S M C Robinson, N Feindel, A Sterling, A Byrne & K Pee Ang. (2018) Horizontal and vertical distribution of sea lice larvae ( Lepeophtheirus salmonis ) in and around salmon farms in the Bay of Fundy, Canada . Journal of Fish Diseases 41:6, pages 885-899.
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Torfinn Solvang & Andreas Hagemann. (2018) A machine vision system for zooplankton behavioural studies: a case study on the phototactic behaviour of sea lice ( Lepeophtheirus salmonis Krøyer, 1837) during sound and ultrasound stimulus . Journal of Experimental Biology.
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Lina Eva Robin Ljungfeldt, María Quintela, François Besnier, Frank Nilsen & Kevin Alan Glover. (2017) A pedigree-based experiment reveals variation in salinity and thermal tolerance in the salmon louse, Lepeophtheirus salmonis . Evolutionary Applications 10:10, pages 1007-1019.
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Francisca SamsingFrode OppedalSussie DalvinIngrid JohnsenTone VågsethTim Dempster. (2016) Salmon lice ( Lepeophtheirus salmonis ) development times, body size, and reproductive outputs follow universal models of temperature dependence . Canadian Journal of Fisheries and Aquatic Sciences 73:12, pages 1841-1851.
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Maya L. GronerGregor F. McEwanErin E. ReesGeorge GettinbyCrawford W. Revie. (2016) Quantifying the influence of salinity and temperature on the population dynamics of a marine ectoparasite. Canadian Journal of Fisheries and Aquatic Sciences 73:8, pages 1281-1291.
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Lars Helge Stien, Tim Dempster, Samantha Bui, Alexis Glaropoulos, Jan Erik Fosseidengen, Daniel W. Wright & Frode Oppedal. (2016) ‘Snorkel’ sea lice barrier technology reduces sea lice loads on harvest-sized Atlantic salmon with minimal welfare impacts. Aquaculture 458, pages 29-37.
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IA Johnsen, LC Asplin, AD Sandvik & RM Serra-Llinares. (2016) Salmon lice dispersion in a northern Norwegian fjord system and the impact of vertical movements. Aquaculture Environment Interactions 8, pages 99-116.
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Lars H. Stien, Jan Erik Fosseidengen, Morten E. Malm, Harald Sveier, Thomas Torgersen, Daniel William Wright & Frode Oppedal. (2014) Low intensity light of different colours modifies Atlantic salmon depth use. Aquacultural Engineering 62, pages 42-48.
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CC Pert, RJ Fryer, P Cook, R Kilburn, S McBeath, A McBeath, I Matejusova, K Urquhart, SJ Weir, U McCarthy, C Collins, T Amundrud & IR Bricknell. (2014) Using sentinel cages to estimate infestation pressure on salmonids from sea lice in Loch Shieldaig, Scotland. Aquaculture Environment Interactions 5:1, pages 49-59.
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B. Frenzl, L.H. Stien, D. Cockerill, F. Oppedal, R.H. Richards, A.P. Shinn, J.E. Bron & H. Migaud. (2014) Manipulation of farmed Atlantic salmon swimming behaviour through the adjustment of lighting and feeding regimes as a tool for salmon lice control. Aquaculture 424-425, pages 183-188.
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Maya L. Groner, George Gettinby, Marit Stormoen, Crawford W. Revie & Ruth Cox. (2014) Modelling the Impact of Temperature-Induced Life History Plasticity and Mate Limitation on the Epidemic Potential of a Marine Ectoparasite. PLoS ONE 9:2, pages e88465.
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O Torrissen, S Jones, F Asche, A Guttormsen, O T Skilbrei, F Nilsen, T E Horsberg & D Jackson. (2013) Salmon lice - impact on wild salmonids and salmon aquaculture. Journal of Fish Diseases 36:3, pages 171-194.
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Lars H. Stien, Jonatan Nilsson, Ernst M. Hevrøy, Frode Oppedal, Tore S. Kristiansen, Andreas M. Lien & Ole Folkedal. (2012) Skirt around a salmon sea cage to reduce infestation of salmon lice resulted in low oxygen levels. Aquacultural Engineering 51, pages 21-25.
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Ole Folkedal, Lars Helge Stien, Jonatan Nilsson, Thomas Torgersen, Jan Erik Fosseidengen & Frode Oppedal. (2012) Sea caged Atlantic salmon display size-dependent swimming depth. Aquatic Living Resources 25:2, pages 143-149.
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Craig J. Hayward, Melanie Andrews & Barbara F. Nowak. 2011. Salmon Lice. Salmon Lice 1 28 .
Sally D. Molloy, Michael R. Pietrak, Deborah A. Bouchard & Ian Bricknell. (2011) Ingestion of Lepeophtheirus salmonis by the blue mussel Mytilus edulis. Aquaculture 311:1-4, pages 61-64.
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Frode Oppedal, Tim Dempster & Lars H. Stien. (2011) Environmental drivers of Atlantic salmon behaviour in sea-cages: A review. Aquaculture 311:1-4, pages 1-18.
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Lars A. Hamre, Kevin A. Glover & Frank Nilsen. (2009) Establishment and characterisation of salmon louse (Lepeophtheirus salmonis (Krøyer 1837)) laboratory strains. Parasitology International 58:4, pages 451-460.
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Tim Dempster, Øyvind Korsøen, Ole Folkedal, Jon-Erik Juell & Frode Oppedal. (2009) Submergence of Atlantic salmon (Salmo salar L.) in commercial scale sea-cages: A potential short-term solution to poor surface conditions. Aquaculture 288:3-4, pages 254-263.
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S Bravo, F Erranz & C Lagos. (2009) A comparison of sea lice, Caligus rogercresseyi , fecundity in four areas in southern Chile . Journal of Fish Diseases 32:1, pages 107-113.
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T L Amundrud & A G Murray. (2009) Modelling sea lice dispersion under varying environmental forcing in a Scottish sea loch. Journal of Fish Diseases 32:1, pages 27-44.
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Pål A Olsvik, Kai K Lie, Eva Mykkeltvedt, Ole B Samuelsen, Kjell Petersen, Anne-Kristin Stavrum & Bjørn T Lunestad. (2008) Pharmacokinetics and transcriptional effects of the anti-salmon lice drug emamectin benzoate in Atlantic salmon (Salmo salar L.). BMC Pharmacology 8:1.
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M J Penston, C P Millar, A Zuur & I M Davies. (2008) Spatial and temporal distribution of Lepeophtheirus salmonis (Krøyer) larvae in a sea loch containing Atlantic salmon, Salmo salar L., farms on the north-west coast of Scotland. Journal of Fish Diseases 31:5, pages 361-371.
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Tim Dempster, Jon-Erik Juell, Jan Erik Fosseidengen, Arne Fredheim & Pål Lader. (2008) Behaviour and growth of Atlantic salmon (Salmo salar L.) subjected to short-term submergence in commercial scale sea-cages. Aquaculture 276:1-4, pages 103-111.
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Michael J Penston, Margaret A McKibben, David W Hay & Philip A Gillibrand. (2004) Observations on open-water densities of sea lice larvae in Loch Shieldaig, Western Scotland. Aquaculture Research 35:8, pages 793-805.
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Alexandra Morton, Richard Routledge, Corey Peet & Aleria Ladwig. (2004) Sea lice ( Lepeophtheirus salmonis ) infection rates on juvenile pink ( Oncorhynchus gorbuscha ) and chum ( Oncorhynchus keta ) salmon in the nearshore marine environment of British Columbia, Canada . Canadian Journal of Fisheries and Aquatic Sciences 61:2, pages 147-157.
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P A Heuch, C W Revie & G Gettinby. (2003) A comparison of epidemiological patterns of salmon lice, Lepeophtheirus salmonis, infections on farmed Atlantic salmon, Salmo salar L., in Norway and Scotland. Journal of Fish Diseases 26:9, pages 539-551.
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E.M Hevrøy, K Boxaspen, F Oppedal, G.L Taranger & J.C Holm. (2003) The effect of artificial light treatment and depth on the infestation of the sea louse Lepeophtheirus salmonis on Atlantic salmon (Salmo salar L.) culture. Aquaculture 220:1-4, pages 1-14.
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Sandra L Marı́n, Fabiola Sepúlveda, Juan Carvajal & Mario George-Nascimento. (2002) The feasibility of using Udonella sp. (Platyhelminthes: Udonellidae) as a biological control for the sea louse Caligus rogercresseyi, Boxshall and Bravo 2000, (Copepoda: Caligidae) in southern Chile. Aquaculture 208:1-2, pages 11-21.
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A R Lyndon & J P G Toovey. (2000) Does the Aquasmart TM feeding system reduce sea louse [ Lepeophtheirus salmonis (Krøyer)] infestation on farmed Atlantic salmon ( Salmo salar L.) in winter? . Aquaculture Research 31:11, pages 843-847.
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C S Tucker, C Sommerville & R Wootten. (2001) The effect of temperature and salinity on the settlement and survival of copepodids of Lepeophtheirus salmonis (Krøyer, 1837) on Atlantic salmon, Salmo salar L. . Journal of Fish Diseases 23:5, pages 309-320.
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S.M Bennett. (1999) Egg development, hatching and early life-history of Dissonus manteri (Copepoda),parasitic on the gills of coral trout, Plectropomus leopardus. International Journal for Parasitology 29:2, pages 267-274.
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