A huge subclass of mostly marine CRUSTACEA, containing over 14,000 species. The 10 orders comprise both planktonic and benthic organisms, and include both free-living and parasitic forms. Planktonic copepods form the principle link between PHYTOPLANKTON and the higher trophic levels of the marine food chains.
Infestations by PARASITES which live on, or burrow into, the surface of their host's EPIDERMIS. Most ectoparasites are ARTHROPODS.
A suborder of CRUSTACEA, order Diplostraca, comprising the water fleas. They are benthic filter feeders that consume PHYTOPLANKTON. The body is laterally compressed and enclosed in a bivalved carapace, from which the head extends.
Minute free-floating animal organisms which live in practically all natural waters.
A large subphylum of mostly marine ARTHROPODS containing over 42,000 species. They include familiar arthropods such as lobsters (NEPHROPIDAE), crabs (BRACHYURA), shrimp (PENAEIDAE), and barnacles (THORACICA).
A class of minute animals of the phylum Aschelminthes.
The species Balaenoptera physalus, in the family Balaenopteridae, characterized by a large, strongly curved, dorsal fin. It is the second largest of the WHALES, highly migratory, but rarely seen near the shore.
Water containing no significant amounts of salts, such as water from RIVERS and LAKES.
Diseases of freshwater, marine, hatchery or aquarium fish. This term includes diseases of both teleosts (true fish) and elasmobranchs (sharks, rays and skates).
Number of individuals in a population relative to space.
The pattern of any process, or the interrelationship of phenomena, which affects growth or change within a population.
I'm sorry for any confusion, but "Brazil" is not a medical term or concept, it is a country located in South America, known officially as the Federative Republic of Brazil. If you have any questions related to health, medicine, or science, I'd be happy to help answer those!
Divisions of the year according to some regularly recurrent phenomena usually astronomical or climatic. (From McGraw-Hill Dictionary of Scientific and Technical Terms, 6th ed)

Clinical efficacy of teflubenzuron (Calicide) for the treatment of Lepeophtheirus salmonis infestations of farmed Atlantic salmon Salmo salar at low water temperatures. (1/284)

The efficacy of teflubenzuron (Calicide) for the treatment of farmed Atlantic salmon Salmo salar L. infested with sea lice Lepeophtheirus salmonis (Kroyer, 1838), was investigated at low water temperatures in 2 commercial salmon farms. Calicide, coated on commercial feed pellets, was administered orally at 10 mg kg(-1) d(-1) for 7 consecutive days. Fish were randomly sampled and lice numbers recorded from both treated and control groups on 3 or 4 sampling occasions post-medication. Statistically significant reductions in the number of L. salmonis per fish were recorded. Maximum efficacy was observed toward chalimus and preadult stages of L. salmonis, and was achieved approximately 26 d post-medication. No adverse drug reactions or palatability problems were associated with the treatments.  (+info)

Laboratory evaluation of Mesocyclops annulatus (Wierzejski, 1892) (Copepoda: Cyclopidea) as a predator of container-breeding mosquitoes in Argentina. (2/284)

In laboratory bioassays we tested the predatory capacity of the copepod Mesocyclops annulatus on Aedes aegypti and Culex pipiens larvae. A single adult female of M. annulatus caused 51.6% and 52.3% mortality of 50 first instar larvae of Ae. aegypti and Cx. pipiens respectively, in a 72 h test period. When alternative food was added to the containers, mortality rates declined to 16% and 10.3% for Ae. aegypti and Cx. pipiens respectively. When 50 first instar larvae of each of the two mosquito species tested were placed together with a single adult female of M. annulatus, mortality rates were 75.5% for Ae. aegypti larvae and 23.5% for Cx. pipiens larvae in a three day test period. Different density of adult females of M. annulatus ranged from 5 to 25 females produced mortality rates of Ae. aegypti first instar larvae from 50% to 100% respectively. When a single adult female of M. annulatus was exposed to an increasing number of first-instar Ae. aegypti larvae ranging from 10 to 100, 100% mortality was recorded from 1 to 25 larvae, then mortality declined to 30% with 100 larvae. The average larvae killed per 24 h period by a single copepod were 29.  (+info)

Copepod feeding currents: flow patterns, filtration rates and energetics. (3/284)

Particle image velocimetry was used to construct a quasi 3-dimensional image of the flow generated by the feeding appendages of the calanoid copepod Temora longicornis. By scanning layers of flow, detailed information was obtained on flow velocity and velocity gradients. The flow around feeding T. longicornis was laminar, and was symmetrical viewed dorsally, but highly asymmetrical viewed laterally, with high levels of vorticity on the ventral side. The flow rate through the feeding appendages varied between 77 and 220 ml day(-1) per individual. The morphology of the flow field ensured that water was entrained over the full length of the first antennae. These were kept out of areas with high velocity gradients that could interfere with distant mechano- or chemoreception. The volume of influence, i.e. the volume of water around the foraging copepod, where shear rates were significantly higher than background levels, was calculated. Implications for encounter probability and mechanoreception are discussed. The average rate of energy dissipation within the copepod's volume of influence is several times higher than the levels of turbulent energy dissipation these animals are likely to encounter in their environment. Even in highly turbulent environments, adult T. longicornis will not experience very significant effects of turbulence. Within the volume of influence of the copepods the energy dissipation due to viscous friction varied between 6.6 x 10(-11) and 2.3 x 10(-10)W. Taking mechanical efficiency and muscle efficiency into account, this results in a total energetic cost of the feeding current of 1.6 x 10(-9)W per copepod. This value represents only a small percentage of the total energy budget of small calanoid copepods.  (+info)

Escape from viscosity: the kinematics and hydrodynamics of copepod foraging and escape swimming. (4/284)

Feeding and escape swimming in adult females of the calanoid copepod Temora longicornis Muller were investigated and compared. Swimming velocities were calculated using a 3-D filming setup. Foraging velocities ranged between 2 and 6 mm s(-1), while maximum velocities of up to 80 mm s(-1) were reached during escape responses. Foraging took place at Reynolds numbers between 2 and 6, indicating that viscous forces are considerable during this swimming mode. Inertial forces are much more important during escape responses, when Reynolds numbers of more than 100 are reached. High-speed film recordings at 500 frames s(-1) of the motion pattern of the feeding appendages and the escape movement of the swimming legs revealed that the two swimming modes are essentially very different. While foraging, the first three mouth appendages (antennae, mandibular palps and maxillules) create a backwards motion of water with a metachronal beating pattern. During escape movements the mouth appendages stop moving and the swimming legs beat in a very fast metachronal rhythm, accelerating a jet of water backwards. The large antennules are folded backwards, resulting in a streamlined body shape. Particle image velocimetry analysis of the flow around foraging and escaping copepods revealed that during foraging an asymmetrical vortex system is created on the ventral side of the animal. The feeding motion is steady over a long period of time. The rate of energy dissipation due to viscous friction relates directly to the energetic cost of the feeding current. During escape responses a vortex ring appears behind the animal, which dissipates over time. Several seconds after cessation of swimming leg movements, energy dissipation can still be measured. During escape responses the rate of energy dissipation due to viscous friction increases by up to two orders of magnitude compared to the rate when foraging.  (+info)

Spectral sensitivity of vertically migrating marine copepods. (5/284)

Light is a critical factor in the proximate basis of diel vertical migration (DVM) in zooplankton. A photobehavioral approach was used to examine the spectral sensitivity of four coastal species of calanoid copepod, representing a diversity of DVM patterns, to test whether species that migrate (nocturnal or reverse DVM) have response spectra that differ from non-migratory surface dwellers. The following species were given light stimuli at wavelengths from 350 to 740 nm, and their photoresponses were measured: Centropages typicus (nocturnal migrator), Calanopia americana (nocturnal migrator), Anomalocera ornata (reverse migrator), and Labidocera aestiva (non-migrator). Centropages typicus and A. ornata had peak responses at 500 and 520 nm, respectively, while Calanopia americana had maximum responses at 480 and 520 nm. Thus, the species that undergo DVM have peak photobehavioral responses at wavelengths corresponding to those available during twilight in coastal water, although the range of wavelengths to which they respond is variable. Non-migratory surface-dwelling L. aestiva had numerous response peaks over a broad spectral range, which may serve to maximize photon capture for vision in their broad-spectrum shallow-water habitat.  (+info)

Longitudinal processes in Salto Grande Reservoir (Americana, SP, Brazil) and its influence in the formation of compartment system. (6/284)

Studies on the longitudinal processes in reservoirs, involving physical, chemical and biological processes have been thoroughly appraised, suggesting the existence of a longitudinal organization controlled by the entrance and circulation of water which inserts modifications in the structuring of the system. To evaluate this effect, the Salto Grande reservoir (Americana, SP) was analyzed in 11 sampling stations in its longitudinal axis, in the rainy and dry seasons of 1997 considering the physical chemical and biological variables. Analyzing the results in agreement with the declining concentration degree of the river-barrage direction, a more significant correlation was verified in the dry period for total phosphorus (r2 = 0.86), dissolved total phosphate (r2 = 0.83), nitrite (r2 = 0.93), inorganic phosphate (r2 = 0.89), ammonium (r2 = 0.84) and suspended material (r2 = 0.85). In the rainy period, only nitrite (r2 = 0.90) and conductivity (r2 = 0.89) presented correlation with the distance of the dam, which demonstrates the effects of precipitation and the operational mechanism of the dam, as well as the distinction among the physical (sedimentation), chemical (oxidation) and biological (decomposition) processes in spatial heterogeneity of the system. These factors were decisive in the organization of these communities, with higher occurrence of rotifers and copepods in relation to cladocerans, the first ones being more abundant in the entrance of the Atibaia river, decreasing towards the dam direction, while copepods presented an inverse pattern. A distribution pattern similar to Copepoda was also verified for the Cladocera, evidencing a tendency to increase the density of organisms in the stations distant to the entrance of the Atibaia river, not being registered, however, a distribution gradient in the longitudinal axis, as observed for rotifers and copepods. In relation to the trophic degree a longitudinal gradient was also verified from eutrophic to oligotrophic depending on the location of the sampling station in relation to the longitudinal axis and period of analysis. The differences obtained, relating to the distribution of the environmental variables, demonstrate a characteristic pattern for reservoirs, with a longitudinal gradient in the sense river-barrage that inserts changes in the physical and chemical composition of the water, contributing to the differentiated establishing of biological communities.  (+info)

Susceptibility of rainbow trout Oncorhynchus mykiss, Atlantic salmon Salmo salar and coho salmon Oncorhynchus kisutch to experimental infection with sea lice Lepeophtheirus salmonis. (7/284)

Physiological, immunological and biochemical parameters of blood and mucus, as well as skin histology, were compared in 3 salmonid species (rainbow trout Oncorhynchus mykiss, Atlantic salmon Salmo salar and coho salmon O. kisutch) following experimental infection with sea lice Lepeophtheirus salmonis. The 3 salmonid species were cohabited in order to standardize initial infection conditions. Lice density was significantly reduced on coho salmon within 7 to 14 d, while lice persisted in higher numbers on rainbow trout and Atlantic salmon. Lice matured more slowly on coho salmon than on the other 2 species, and maturation was slightly slower on rainbow trout than on Atlantic salmon. Head kidney macrophages from infected Atlantic salmon had diminished respiratory burst and phagocytic capacity at 14 and 21 d post-infection (dpi), while infected rainbow trout macrophages had reduced respiratory burst and phagocytic capacities at 21 dpi, compared to controls. The slower development of lice, coupled with delayed suppression of immune parameters, suggests that rainbow trout are slightly more resistant to lice than Atlantic salmon. Infected rainbow trout and Atlantic salmon showed increases in mucus lysozyme activities at 1 dpi, which decreased over the rest of the study. Mucus lysozyme activities of infected rainbow trout, however, remained higher than controls over the entire period. Coho salmon lysozyme activities did not increase in infected fish until 21 dpi. Mucus alkaline phosphatase levels were also higher in infected Atlantic salmon compared to controls at 3 and 21 dpi. Low molecular weight (LMW) proteases increased in infected rainbow trout and Atlantic salmon between 14 and 21 dpi. Histological analysis of the outer epithelium revealed mucus cell hypertrophy in rainbow trout and Atlantic salmon following infection. Plasma cortisol, glucose, electrolyte and protein concentrations and hematocrit all remained within physiological limits for each species, with no differences occurring between infected and control fish. Our results demonstrate that significant differences in mucus biochemistry and numbers of L. salmonis occur between these species.  (+info)

Insights into fish host-parasite trophic relationships revealed by stable isotope analysis. (8/284)

Trophic relationships between 10 species of fish host and their associated nematode, cestode, and copepod parasites were investigated using stable isotopes of carbon and nitrogen. Nematodes and cestodes were consistently depleted in 15N with respect to their host, and such fractionation patterns are unlike those conventionally observed between consumers and their diets. Species of copepod parasite were sometimes depleted and sometimes enriched in 15N with respect to fish hosts, and this confirms earlier reports that the nature and magnitude of ectoparasite-host fractionations can vary. Significant differences in delta15N and delta13C were observed among fish tissues, and the isotopic signature of parasites did not always closely correspond to that of the tissue with which the parasite was found most closely associated, or on which the parasite was thought to be feeding. Several possible explanations are considered for such discrepancies, including selective feeding on specific amino acids or lipids, migration of the parasite among different fish tissues, changes in the metabolism of the parasite associated with life history and migration between different host animals.  (+info)

Copepoda is a subclass of small crustaceans found in various aquatic environments, including marine and freshwater. They are typically characterized by a segmented body with a distinct head and thorax, and they have a pair of antennae, mandibles, and maxillules used for feeding. Copepods are important members of the zooplankton community and serve as a significant food source for many larger aquatic organisms, such as fish and whales. Some copepod species can also be parasitic, infecting various marine animals, including fish, crustaceans, and mammals.

Ectoparasitic infestations refer to the invasion and multiplication of parasites, such as lice, fleas, ticks, or mites, on the outer surface of a host organism, typically causing irritation, itching, and other skin disorders. These parasites survive by feeding on the host's blood, skin cells, or other bodily substances, leading to various health issues if left untreated.

Ectoparasitic infestations can occur in humans as well as animals and may require medical intervention for proper diagnosis and treatment. Common symptoms include redness, rash, inflammation, and secondary bacterial or viral infections due to excessive scratching. Preventive measures such as personal hygiene, regular inspections, and avoiding contact with infested individuals or environments can help reduce the risk of ectoparasitic infestations.

Cladocera is a order of small, freshwater crustaceans that are characterized by their compound eyes and leaf-like appendages. They are also known as water fleas due to their jumping motion in the water. Cladocerans are an important part of the aquatic food chain, serving as a food source for larger animals such as fish. They are often used as bioindicators of water quality due to their sensitivity to environmental changes.

Zooplankton are not a medical term, but they are an important concept in biology and ecology. Zooplankton refer to small, drifting or floating animals that live in watery environments such as oceans, seas, and freshwater bodies. They include various organisms like tiny crustaceans (such as copepods and krill), jellyfish, arrow worms, and larvae of larger aquatic animals. Zooplankton play a crucial role in food chains and nutrient cycling within aquatic ecosystems.

Crustacea is a subphylum of Arthropoda, which is a phylum that includes animals without backbones and with jointed appendages. Crustaceans are characterized by their segmented bodies, usually covered with a hard exoskeleton made of chitin, and paired, jointed limbs.

Examples of crustaceans include crabs, lobsters, shrimps, crayfish, krill, barnacles, and copepods. Many crustaceans are aquatic, living in both freshwater and marine environments, while some are terrestrial. They can vary greatly in size, from tiny planktonic organisms to large crabs and lobsters.

Crustaceans have a complex life cycle that typically involves several distinct stages, including larval and adult forms. They are an important part of many aquatic ecosystems, serving as both predators and prey. Crustaceans also have economic importance as a source of food for humans, with crabs, lobsters, and shrimps being among the most commonly consumed.

Rotifera is a phylum of microscopic, mostly freshwater animals. They are characterized by having a ciliated corona or crown surrounding the mouth, which they use for capturing food particles. Rotifers have a diverse range of body forms, but most have a rotund or sac-like body. Some species have a protective shell called a lorica. The size of rotifers ranges from 50 to 2,000 micrometers in length. They are important members of the zooplankton community and play a significant role in the decomposition and nutrient cycling in aquatic ecosystems.

I'm sorry for any confusion, but "Fin Whale" is not a medical term. It is a species of whale, and it's the second largest mammal after the blue whale. The fin whale (Balaenoptera physalus) is a fast-swimming, long-bodied whale that's variously known as the finback, razorback, or common rorqual. Fin whales are cosmopolitan and can be found in all oceans of the world. They prefer deep offshore waters and migrate to tropical and subtropical waters in the winter to breed and give birth.

If you have any medical terms that you would like me to define, please let me know!

I'm sorry for any confusion, but "Fresh Water" is not a medical term. It is a term used to describe water that contains low concentrations of dissolved salts and other dissolved minerals. It is distinguished from saline water, which includes saltwater found in the ocean and brackish water found in estuaries. Fresh water is essential for many biological processes and is the primary source of water for human consumption, agriculture, and industrial use.

"Fish diseases" is a broad term that refers to various health conditions and infections affecting fish populations in aquaculture, ornamental fish tanks, or wild aquatic environments. These diseases can be caused by bacteria, viruses, fungi, parasites, or environmental factors such as water quality, temperature, and stress.

Some common examples of fish diseases include:

1. Bacterial diseases: Examples include furunculosis (caused by Aeromonas salmonicida), columnaris disease (caused by Flavobacterium columnare), and enteric septicemia of catfish (caused by Edwardsiella ictaluri).

2. Viral diseases: Examples include infectious pancreatic necrosis virus (IPNV) in salmonids, viral hemorrhagic septicemia virus (VHSV), and koi herpesvirus (KHV).

3. Fungal diseases: Examples include saprolegniasis (caused by Saprolegnia spp.) and cotton wool disease (caused by Aphanomyces spp.).

4. Parasitic diseases: Examples include ichthyophthirius multifiliis (Ich), costia, trichodina, and various worm infestations such as anchor worms (Lernaea spp.) and tapeworms (Diphyllobothrium spp.).

5. Environmental diseases: These are caused by poor water quality, temperature stress, or other environmental factors that weaken the fish's immune system and make them more susceptible to infections. Examples include osmoregulatory disorders, ammonia toxicity, and low dissolved oxygen levels.

It is essential to diagnose and treat fish diseases promptly to prevent their spread among fish populations and maintain healthy aquatic ecosystems. Preventative measures such as proper sanitation, water quality management, biosecurity practices, and vaccination can help reduce the risk of fish diseases in both farmed and ornamental fish settings.

I'm sorry for any confusion, but "population density" is actually a term used in population geography and epidemiology, rather than medical terminology. It refers to the number of people living in a specific area or region, usually measured as the number of people per square mile or square kilometer.

However, understanding population density can be important in public health and medicine because it can influence various factors related to health outcomes and healthcare delivery, such as:

1. Disease transmission rates: Higher population densities can facilitate the spread of infectious diseases, particularly those that are transmitted through close contact between individuals.
2. Access to healthcare services: Areas with lower population density might have fewer healthcare resources and providers available, making it more challenging for residents to access necessary medical care.
3. Health disparities: Population density can contribute to health inequities, as urban areas often have better access to healthcare, education, and economic opportunities than rural areas, leading to differences in health outcomes between these populations.
4. Environmental factors: Higher population densities might lead to increased pollution, noise, and other environmental hazards that can negatively impact health.

Therefore, while "population density" is not a medical definition per se, it remains an essential concept for understanding various public health and healthcare issues.

Population dynamics, in the context of public health and epidemiology, refers to the study of the changes in size and structure of a population over time, as well as the factors that contribute to those changes. This can include birth rates, death rates, migration patterns, aging, and other demographic characteristics. Understanding population dynamics is crucial for planning and implementing public health interventions, such as vaccination programs or disease prevention strategies, as they allow researchers and policymakers to identify vulnerable populations, predict future health trends, and evaluate the impact of public health initiatives.

I apologize, but "Brazil" is not a medical term or condition. It is the largest country in both South America and Latin America by land area and population. If you have any questions related to medical terminology or health concerns, please provide more information and I will do my best to help.

I'm sorry for any confusion, but "seasons" is not a term that has a medical definition. Seasons refer to the four divisions of the year (spring, summer, autumn or fall, and winter) based on the position of the earth in its orbit around the sun. If you have any questions related to health or medicine, I'd be happy to try to help answer those!

Wikimedia Commons has media related to Copepoda. Wikispecies has information related to Copepoda. Copepod fact sheet - Guide to ... Bernot, James P.; Boxshall, Geoffrey A.; Crandall, Keith A. (2021-08-18). "A synthesis tree of the Copepoda: integrating ... Walter, T.C.; Boxshall, G. (eds.). "Copepoda". World Register of Marine Species. Retrieved 22 January 2023. "WoRMS - World ... Bernot, J.; Boxshall, G.; Crandall, L. (August 18, 2021). "A synthesis tree of the Copepoda: integrating phylogenetic and ...
Copepoda. I. Gymnoplea, Berlin 1898 (with Wilhelm Giesbrecht) - The animal kingdom. Copepoda. I. Gymnoplea. In 1901 Schmeil's ...
Crustacea: Copepoda". Transactions of the Linnean Society of London. 3rd series. 1 (3): 219-247. doi:10.1111/j.1096-3642.1955. ... Ian A. E. Bayly (1992). "Fusion of the genera Boeckella and Pseudoboeckella (Copepoda) and revision of their species from South ... T. Chad Walter (2010). T. C. Walter; G. Boxshall (eds.). "Boeckella palustris (Harding, 1955)". World Copepoda database. World ... Copepoda: Centropagidae): a track analysis". Journal of Crustacean Biology. 20 (2): 262-272. doi:10.1651/0278-0372(2000)020[ ...
Geoff Boxshall (2005). "Copepoda: copepods". In Klaus Rohde (ed.). Marine Parasitology. CSIRO Publishing. pp. 121-133. ISBN 978 ... Copepoda, Siphonostomatoida, Lernaeopodidae) from Peninsular Malaysia, with relegation of two genera Charopinopsis and ...
Boxshall, G. (2001). Copepoda (excl. Harpacticoida), in: Costello, M.J. et al. (Ed.) (2001). European register of marine ... 1895 A monograph of the free and semi-parasitic Copepoda of the British Islands. GS Brady - 1880 WoRMS. "Artotrogidae Brady, ...
Luiz E. R. Tavares & José L. Luque (2003). "A New Species of Acantholochus (Copepoda: Bomolochidae) Parasitic on Centropomus ... Ju-shey Ho (2010). T. Chad Walter & Geoff Boxshall (ed.). "Hamaticolax unisagittatus (Tavares & Luque, 2003)". World Copepoda ...
World Copepoda database. World Register of Marine Species. Retrieved May 16, 2010. v t e (Articles with short description, ...
J. B. Jones (1998). "Distant water sailors: parasitic Copepoda of the open ocean". Journal of Marine Systems. 15 (1-4): 207-214 ... ISBN 978-0-313-33922-6. Z. Kabata (1979). Parasitic Copepoda of British Fishes. London: Ray Society. ISBN 978-0-903874-05-2. ... Geoff Boxshall (2011). T. Chad Walter & Geoff Boxshall (ed.). "Lernaeocera branchialis (Linnaeus, 1767)". World Copepoda ... Copepoda : Pennellidae) (PDF) (PhD thesis). University of Stirling.[permanent dead link] Bernard E. Matthews (1998). "From host ...
T. Chad Walter (2018). T. Chad Walter; Geoff Boxshall (eds.). "Mesocyclops Sars G.O., 1914". World Copepoda database. World ... January 2005). "Elimination of dengue by community programs using Mesocyclops (Copepoda) against Aedes aegypti in central ...
World Copepoda database. World Register of Marine Species. Retrieved October 3, 2010. v t e (Articles with short description, ...
T. Chad Walter (2010). T. Chad Walter; Geoff Boxshall (eds.). "Notodiaptomus Kiefer, 1936". World Copepoda database. World ...
T. Chad Walter (July 15, 2008). T. Chad Walter; Geoff Boxshall (eds.). "Dipteropeltis hirundo Calman, 1912". World Copepoda ...
copepodite Copepoda fam. gen. sp. copepodite Copepoda - adults Acanthochondria soleae Caligus curtus Caligus diaphanus Caligus ... adults Calliobdella nodulifera Johanssonia arctica Copepoda - larval forms Caligus sp. ...
T. Chad Walter (2009). T. C. Walter & G. Boxshall (ed.). "Mastigodiaptomus Light, 1939". World Copepoda database. World ... Copepoda, Diaptomidae) from southeastern Mexico, with a key for the identification of the known species of the genus" (PDF). ...
Copepoda: Harpacticoida: Darcythompsoniidae)". Journal of the Marine Biological Association of the United Kingdom. 92 (5): 1-9 ... T. Chad Walter & Rony Huys (2009). T. C. Walter & G. Boxshall (eds.). "Leptocaris Scott T., 1899". World Copepoda database. ...
T. Chad Walter & Geoff Boxshall (2011). T. C. Walter & G. Boxshall (ed.). "Pontella Dana, 1846". World Copepoda database. World ...
World Copepoda database. World Register of Marine Species. Retrieved May 16, 2010. Reid, J.W. (1996). "Tropodiaptomus ...
Geoff Boxshall (December 11, 2022). T. Chad Walter; Geoff Boxshall (eds.). "Argulus O. F. Müller, 1785". World Copepoda ... T. Chad Walter (December 11, 2022). T. Chad Walter; Geoff Boxshall (eds.). "Dolops Audouin, 1837". World Copepoda database. ... T. Chad Walter (December 11, 2022). T. Chad Walter; Geoff Boxshall (eds.). "Chonopeltis Thiele, 1900". World Copepoda database ... T. Chad Walter (December 11, 2022). T. Chad Walter; Geoff Boxshall (eds.). "Dipteropeltis Callman, 1912". World Copepoda ...
J. Kouwenberg & G. Boxshall (2009). "Calocalanus pavo (Dana, 1852)". World Copepoda database. Retrieved March 3, 2009. Accessed ...
Geoff Boxshall (August 20, 2008). T. Chad Walter & Geoff Boxshall (ed.). "Basipodellidae". World Copepoda database. World ... Geoff Boxshall (August 20, 2008). T. Chad Walter & Geoff Boxshall (ed.). "Doryphallophoridae". World Copepoda database. World ... Geoff Boxshall (August 20, 2008). T. Chad Walter & Geoff Boxshall (ed.). "Microdajidae". World Copepoda database. World ...
World Copepoda database. World Register of Marine Species. Retrieved June 24, 2011. William S. Johnson, Dennis M. Allen & Marni ...
World Copepoda database. World Register of Marine Species. Retrieved June 19, 2018. Reid, J.W. (1996). "Metacyclops campestris ...
T. Chad Walter (2009). T. Chad Walter & Geoff Boxshall (ed.). "Gelyella Rouch & Lescher-Moutoue, 1977". World Copepoda database ... Pascal Moeschler & Raymond Rouch (1988). "Découverte d'un nouveau représentant de la famille des Gelyellidae (Copepoda, ... Copepoda: Developments in Ecology, Biology and Systematics. Hydrobiologia 453/454. pp. 227-253. doi:10.1023/A:1013100924948. ...
2013). Argulus foliaceus (Linnaeus, 1758). World Copepoda Database. Accessed through World Register of Marine Species 28 August ...
World Copepoda database. World Register of Marine Species. Retrieved February 24, 2011. Herring, Peter J. (1987). "Systematic ...
T. Chad Walter (July 15, 2008). T. Chad Walter; Geoff Boxshall (eds.). "Dussartius Kiefer, 1978". World Copepoda database. ... Copepoda, Calanoida)". Crustaceana. 76 (11): 1399-1407. doi:10.1163/156854003323009876. JSTOR 20105677. v t e (Articles with ...
"Cyclops Müller, 1785". World Copepoda database. G. G. Marten (1986). "Issues in the development of Cyclops for mosquito control ...
T. Chad Walter & Geoff Boxshall (2021). T. C. Walter & G. Boxshall (ed.). "Bomolochidae". World Copepoda database. World ...
Geoff Boxshall, & T. Chad Walter (2019). T. Chad Walter & Geoff Boxshall (ed.). "Poecilostomatoida". World Copepoda database. ... Masahiro Dojiri & Roger F. Cressey (1987). "Revision of the Taeniacanthidae (Copepoda: Poecilostomatoida) parasitic on fishes ... Copepoda: Poecilostomatoida), with the recognition of six new families". Journal of Natural History. 30 (2): 175-227. doi: ... Copepoda)". Scientific Reports. 7 (1): 9164. Bibcode:2017NatSR...7.9164K. doi:10.1038/s41598-017-06656-4. PMC 5567239. PMID ...
T. C. Walter & G. Boxshall (ed.). "Copilia Dana, 1849". World Copepoda database. World Register of Marine Species. Retrieved ...

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