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Catfish Temporal range: Campanian–Present PreꞒ Ꞓ O S D C P T J K Pg N Possible earlier Late Cretaceous records
Black bullhead
Scientific classification
Domain:	Eukaryota
Kingdom:	Animalia
Phylum:	Chordata
Class:	Actinopterygii
(unranked):	Otophysi
Order:	Siluriformes G. Cuvier, 1817
Type species
Silurus glanis Linnaeus, 1758
Families
Extant families: Ailiidae Akysidae Amblycipitidae Amphiliidae Anchariidae Ariidae Aspredinidae Astroblepidae Auchenipteridae Austroglanididae Bagridae Callichthyidae Cetopsidae Chacidae Clariidae Claroteidae Cranoglanididae Malapteruridae Mochokidae Nematogenyiidae Pangasiidae Pimelodidae Plotosidae Pseudopimelodidae Schilbeidae Scoloplacidae Siluridae Sisoridae Trichomycteridae incertae sedis: Conorhynchos Extinct family: Andinichthyidae† Bachmanniidae† Hypsidoridae

Catfish (or catfishes; order Siluriformes /sɪˈljʊərɪfɔːrmiːz/ or Nematognathi) are a diverse group of ray-finned fish. Named for their prominent barbels, which resemble a cat's whiskers, catfish range in size and behavior from the three largest species alive, the Mekong giant catfish from Southeast Asia, the wels catfish of Eurasia, and the piraíba of South America, to detritivores (species that eat dead material on the bottom), and even to a tiny parasitic species commonly called the candiru, Vandellia cirrhosa. Neither the armour-plated types nor the naked types have scales. Despite their name, not all catfish have prominent barbels or "whiskers". Members of the Siluriformes order are defined by features of the skull and swimbladder. Catfish are of considerable commercial importance; many of the larger species are farmed or fished for food. Many of the smaller species, particularly the genus Corydoras, are important in the aquarium hobby. Many catfish are nocturnal, but others (many Auchenipteridae) are crepuscular or diurnal (most Loricariidae or Callichthyidae, for example).

Taxonomy

Molecular evidence suggests that in spite of the great morphological diversity in the order, all catfish form a monophyletic group. Catfish belong to a superorder called the Ostariophysi, which also includes the Cypriniformes (carps and minnows), Characiformes (characins and tetras), Gonorynchiformes (milkfish and beaked salmons) and Gymnotiformes (South American knifefish), a superorder characterized by the Weberian apparatus. Some place Gymnotiformes as a sub-order of Siluriformes; however, this is not as widely accepted. Currently, the Siluriformes are said to be the sister group to the Gymnotiformes, though this has been debated due to more recent molecular evidence. As of 2007 there were about thirty-six extant catfish families, and about 3,093 extant species have been described. This makes the catfish order the second or third most diverse vertebrate order; in fact, one out of every twenty vertebrate species is a catfish.

Catfish are believed to have a Gondwanan origin primarily centered around South America, as the most basal living catfish groups are known from there. The earliest known definitive members lived in the Americas from the Campanian to Maastrichtian stages of the Late Cretaceous, including the Andinichthyidae, Vorhisia vulpes and possibly Arius. A potential fossil record is known from the earlier Coniacian-Santonian stages in Niger of West Africa, though this has been considered unreliable, and the putative earliest armored catfish known from the fossil record, Afrocascudo, lived during the Cenomanian age of the Late Cretaceous in Morocco of North Africa (Kem Kem Group). The describers of Afrocascudo claimed that the presence of a derived loricariid so early on would indicate the extensive diversification of catfish, or at least loricarioids, prior to the beginning of the Late Cretaceous. As extant loricariids are only known from South America, much of this diversification must have occurred on the supercontinent of West Gondwana prior to its fragmentation into South America and Africa. Britz and colleagues suggested that Afrocascudo instead represents a juvenile obaichthyid lepisosteiform, possibly a junior synonym of Obaichthys. The authors of the original study still stood by their original conclusion based on the absence of important holostean characters, and noted that it could not be a juvenile, since the bones were completely ossified.

The taxonomy of catfish is quickly changing. In a 2007 and 2008 paper, Horabagrus, Phreatobius, and Conorhynchos were not classified under any current catfish families. There is disagreement on the family status of certain groups; for example, Nelson (2006) lists Auchenoglanididae and Heteropneustidae as separate families, while the All Catfish Species Inventory (ACSI) includes them under other families. FishBase and the Integrated Taxonomic Information System lists Parakysidae as a separate family, while this group is included under Akysidae by both Nelson (2006) and ACSI. Many sources do not list the recently revised family Anchariidae. The family Horabagridae, including Horabagrus, Pseudeutropius, and Platytropius, is not shown by some authors but presented by others as a true group. Thus, the actual number of families differs between authors. The species count is in constant flux due to taxonomic work as well as description of new species. Between 2003 and 2005, over one hundred species were named, a rate three times faster than that of the past century. In June 2005, researchers named the newest family of catfish, Lacantuniidae, only the third new family of fish distinguished in the last seventy years, the others being the coelacanth in 1938 and the megamouth shark in 1983. The new species in Lacantuniidae, Lacantunia enigmatica, was found in the Lacantun river in the Mexican state of Chiapas.

The higher-level phylogeny of Siluriformes has gone through several recent changes, mainly due to molecular phylogenetic studies. While most studies, both morphological and molecular, agree that catfishes are arranged into three main lineages, the relationship among these lineages has been a contentious point in which these studies, performed for example by Rui Diogo, differ. The three main lineages in Siluriformes are the family Diplomystidae, the denticulate catfish suborder Loricarioidei (containing the Neotropical "suckermouth" catfishes), and the suborder Siluroidei, which contains the remaining families of the order. According to morphological data, Diplomystidae is usually considered to be the earliest branching catfish lineage and the sister group to the other two lineages, Loricarioidei and Siluroidei. Molecular evidence usually contrasts with this hypothesis, and shows the suborder Loricarioidei as the earliest branching catfish lineage, and sister to a clade that includes the Diplomystidae and Siluroidei; this phylogeny has been obtained in numerous studies based on genetic data. However, it has been suggested that these molecular results are errors as a result of long branch attraction, incorrectly placing Loricarioidei as the earliest-branching catfish lineage. When a data filtering method was used to reduce lineage rate heterogeneity (the potential source of bias) on their dataset, a final phylogeny was recovered which showed the Diplomystidae are the earliest-branching catfish, followed by Loricarioidei and Siluroidei as sister lineages, providing both morphological and molecular support for Diplomystidae being the earliest branching catfish.

Below is a list of family relationships by different authors. Lacantuniidae is included in the Sullivan scheme based on recent evidence that places it sister to Claroteidae.

Phylogeny

Phylogeny of living Siluriformes based on 2017 and extinct families based on Nelson, Grande & Wilson 2016.

Unassigned families:

• Bachmanniidae†
• Scoloplacidae (Loricarioidei)
• Akysidae (Sisoroidea)
• Amblycipitidae (Sisoroidea)
• Anchariidae (Arioidea)
• Ariidae (Arioidea)
• Amphiliidae (Big African catfishes)
• Austroglanididae (Arioidea)
• Chacidae (Siluroidei)
• Conorhynchos (Pimelodoidea)
• Cranoglanididae (Ictaluroidea)
• Heteropneustidae (Clarioidea)
• Horabagridae (Sisoroidea)
• Kryptoglanidae (Siluroidea)
• Lacantuniidae (Big African catfishes)
• Malapteruridae (Big African catfishes)
• Phreatobiidae (Pimelodoidea)
• Rita (Sisoroidea)
• Schilbeidae (Big African catfishes)

Ecology

Distribution and habitat

Extant catfish species live inland or in coastal waters of every continent except Antarctica. Catfish have inhabited all continents at one time or another. They are most diverse in tropical South America, Asia, and Africa, with one family native to North America and one family in Europe. More than half of all catfish species live in the Americas. They are the only ostariophysans that have entered freshwater habitats in Madagascar, Australia, and New Guinea.

They are found in fresh water/brackish water environments, though most inhabit shallow, running water. Representatives of at least eight families are hypogean (live underground) with three families that are also troglobitic (inhabiting caves). One such species is Phreatobius cisternarum, known to live underground in phreatic habitats. Numerous species from the families Ariidae and Plotosidae, and a few species from among the Aspredinidae and Bagridae, are found in salt water.

In the Southern United States, catfish species may be known by a variety of slang names, such as "mud cat", "polliwogs", or "chuckleheads". These nicknames are not standardized, so one area may call a bullhead catfish by the nickname "chucklehead", while in another state or region, that nickname refers to the blue catfish.

As invasive species

Representatives of the genus Ictalurus have been introduced into European waters in the hope of obtaining a sporting and food resource, but the European stock of American catfishes has not achieved the dimensions of these fish in their native waters and have only increased the ecological pressure on native European fauna. Walking catfish have also been introduced in the freshwater areas of Florida, with the voracious catfish becoming a major alien pest there. Flathead catfish, Pylodictis olivaris, is also a North American pest on Atlantic slope drainages. Pterygoplichthys species, released by aquarium fishkeepers, have also established feral populations in many warm waters around the world.

Physical characteristics

External anatomy of catfish

Most catfish are bottom feeders. In general, they are negatively buoyant, which means that they usually sink rather than float due to a reduced gas bladder and a heavy, bony head. Catfish have a variety of body shapes, though most have a cylindrical body with a flattened ventrum to allow for benthic feeding.

A flattened head allows for digging through the substrate, as well as perhaps serving as a hydrofoil. Some have a mouth that can expand to a large size and contains no incisiform teeth; catfish generally feed through suction or gulping rather than biting and cutting prey. Some families, though, notably the Loricariidae and Astroblepidae, have a suckermouth that allows them to fasten themselves to objects in fast-moving water. Catfish also have a maxilla reduced to a support for barbels; this means that they are unable to protrude their mouths as other fish such as carp.

Catfish may have up to four pairs of barbels - nasal, maxillary (on each side of mouth), and two pairs of chin barbels, though pairs of barbels may be absent depending on the species. Catfish barbels always occur in pairs. Many larger catfish also have chemoreceptors across their entire bodies, which means they "taste" anything they touch and "smell" any chemicals in the water. "In catfish, gustation plays a primary role in the orientation and location of food". Because their barbels and chemoreception are more important in detecting food, the eyes on catfish are generally small. Like other ostariophysans, they are characterized by the presence of a Weberian apparatus. Their well-developed Weberian apparatus and reduced gas bladder allow for improved hearing and sound production.

Catfish do not have scales; their bodies are often naked. In some species, their mucus-covered skin is used in cutaneous respiration, where the fish breathes through its skin. In some catfish, the skin is covered in bony plates called scutes; some form of body armor appears in various ways within the order. In loricarioids and in the Asian genus Sisor, the armor is primarily made up of one or more rows of free dermal plates. Similar plates are found in large specimens of Lithodoras. These plates may be supported by vertebral processes, as in scoloplacids and in Sisor, but the processes never fuse to the plates or form any external armor. By contrast, in the subfamily Doumeinae (family Amphiliidae) and in hoplomyzontines (Aspredinidae), the armor is formed solely by expanded vertebral processes that form plates. Finally, the lateral armor of doradids, Sisor, and hoplomyzontines consists of hypertrophied lateral line ossicles with dorsal and ventral lamina.

All catfish other than members of the Malapteruridae (electric catfish), possess a strong, hollow, bony, leading spine-like ray on their dorsal and pectoral fins. As a defense, these spines may be locked into place so that they stick outwards, enabling them to inflict severe wounds. In numerous catfish species, these fin rays can be used to deliver a stinging protein if the fish is irritated; as many as half of all catfish species may be venomous in this fashion, making the Siluriformes overwhelmingly the vertebrate order with the largest number of venomous species. This venom is produced by glandular cells in the epidermal tissue covering the spines. In members of the family Plotosidae and of the genus Heteropneustes, this protein is so strong it may hospitalize humans who receive a sting; in Plotosus lineatus, the stings can be lethal. The dorsal- and pectoral-fin spines are two of the most conspicuous features of siluriforms, and differ from those in other fish groups. Despite the widespread use of the spines for taxonomic and phylogenetic studies the fields have struggled to effectively use the information due to a lack of consistency in the nomenclature, with a general standard for the descriptive anatomy of catfish spines proposed in 2022 to try and resolve this problem.

Juvenile catfish, like most fish, have relatively large heads, eyes, and posterior median fins in comparison to larger, more mature individuals. These juveniles can be readily placed in their families, particularly those with highly derived fin or body shapes; in some cases, identification of the genus is possible. As far as known for most catfish, features that are often characteristic of species, such as mouth and fin positions, fin shapes, and barbel lengths, show little difference between juveniles and adults. For many species, pigmentation pattern is also similar in juveniles and adults. Thus, juvenile catfish generally resemble and develop smoothly into their adult form without distinct juvenile specializations. Exceptions to this are the ariid catfish, where the young retain yolk sacs late into juvenile stages, and many pimelodids, which may have elongated barbels and fin filaments or coloration patterns.

Sexual dimorphism is reported in about half of all families of catfish. The modification of the anal fin into an intromittent organ (in internal fertilizers) as well as accessory structures of the reproductive apparatus (in both internal and external fertilizers) have been described in species belonging to 11 different families.

Size

Catfish have one of the largest ranges in size within a single order of bony fish. Many catfish have a maximum length of under 12 cm (4.7 in). Some of the smallest species of the Aspredinidae and Trichomycteridae reach sexual maturity at only 1 cm (0.39 in).

The wels catfish, Silurus glanis, and the much smaller related Aristotle's catfish, are the only catfish indigenous to Europe; the former ranges throughout Europe, and the latter is restricted to Greece. Mythology and literature record wels catfish of astounding proportions yet are to be proven scientifically. The typical size of the species is about 1.2–1.6 m (3.9–5.2 ft), and fish more than 2 m (6.6 ft) are rare. However, they are known to exceed 2.5 m (8.2 ft) in length and 100 kg (220 lb) in weight. In July 2009, a catfish weighing 88 kilograms (194 lb) was caught in the River Ebro, Spain, by an 11-year-old British schoolgirl.

In North America, the largest Ictalurus furcatus (blue catfish) caught in the Missouri River on 20 July 2010, weighed 59 kg (130 lb). The largest flathead catfish, Pylodictis olivaris, ever caught was in Independence, Kansas, weighing 56 kg (123 lb).

These records pale in comparison to a Mekong giant catfish caught in northern Thailand on 1 May 2005, and reported to the press almost 2 months later, that weighed 293 kilograms (646 lb). This is the largest giant Mekong catfish caught since Thai officials started keeping records in 1981. Also in Asia, Jeremy Wade caught a 75.5-kilogram (166.4 lb) goonch following three fatal attacks on humans in the Kali River on the India-Nepal border. Wade was of the opinion that the offending fish must have been significantly larger than this to have taken an 18-year-old boy, as well as a water buffalo.

Piraíba (Brachyplatystoma filamentosum) can grow exceptionally large and are native to the Amazon Basin. They can occasionally grow to 200 kg (440 lb), as evidenced by numerous catches. Deaths from being swallowed by these fish have been reported in the region.

Internal anatomy

In many catfish, the "humeral process" is a bony process extending backward from the pectoral girdle immediately above the base of the pectoral fin. It lies beneath the skin, where its outline may be determined by dissecting the skin or probing with a needle.

The retinae of catfish are composed of single cones and large rods. Many catfish have a tapetum lucidum, which may help enhance photon capture and increase low-light sensitivity. Double cones, though present in most teleosts, are absent from catfish.

The anatomical organization of the testis in catfish is variable among the families of catfish, but the majority of them present fringed testis: Ictaluridae, Claridae, Auchenipteridae, Doradidae, Pimelodidae, and Pseudopimelodidae. In the testes of some species of Siluriformes, organs and structures such as a spermatogenic cranial region and a secretory caudal region are observed, in addition to the presence of seminal vesicles in the caudal region. The total number of fringes and their length are different in the caudal and cranial portions between species. Fringes of the caudal region may present tubules, in which the lumen is filled by secretion and spermatozoa. Spermatocysts are formed from cytoplasmic extensions of Sertoli cells; the release of spermatozoa is allowed by breaking of the cyst walls.

The occurrence of seminal vesicles, in spite of their interspecific variability in size, gross morphology, and function, has not been related to the mode of fertilization. They are typically paired, multichambered, and connected with the sperm duct, and have been reported to play glandular and storage functions. Seminal vesicle secretion may include steroids and steroid glucuronides, with hormonal and pheromonal functions, but it appears to be primarily constituted of mucoproteins, acid mucopolysaccharides, and phospholipids.

Fish ovaries may be of two types - gymnovarian or cystovarian. In the first type, the oocytes are released directly into the coelomic cavity and then eliminated. In the second type, the oocytes are conveyed to the exterior through the oviduct. Many catfish are cystovarian in type, including Pseudoplatystoma corruscans, P. fasciatum, Lophiosilurus alexandri, and Loricaria lentiginosa.

Communication

Catfish can produce different types of sounds and also have well-developed auditory reception used to discriminate between sounds with different pitches and velocities. They are also able to determine the distance of the sound's origin and from what direction it originated. This is a very important fish communication mechanism, especially during agonistic and distress behaviors. Catfish are able to produce a variety of sounds for communication that can be classified into two groups: drumming sounds and stridulation sounds. The variability in catfish sound signals differs due to a few factors: the mechanism by which the sound is produced, the function of the resulting sound, and physiological differences such as size, sex, and age. To create a drumming sound, catfish use an indirect vibration mechanism using a swimbladder. In these fishes, sonic muscles insert on the ramus Mulleri, also known as the elastic spring. The sonic muscles pull the elastic spring forward and extend the swimbladder. When the muscles relax, the tension in the spring quickly returns the swimbladder to its original position, which produces the sound.

Catfish also have a sound-generating mechanism in their pectoral fins. Many species in the catfish family possess an enhanced first pectoral fin ray, called the spine, which can be moved by large abductor and adductor muscles. The base of the catfishes' spines has a sequence of ridges, and the spine normally slides within a groove on the fish's pelvic girdle during routine movement; but, pressing the ridges on the spine against the pelvic girdle groove creates a series of short pulses. The movement is analogous to a finger moving down the teeth of a comb, and consequently a series of sharp taps is produced.

Sound-generating mechanisms are often different between the sexes. In some catfish, pectoral fins are longer in males than in females of similar length, and differences in the characteristic of the sounds produced were also observed. Comparison between families of the same order of catfish demonstrated family and species-specific patterns of vocalization, according to a study by Maria Clara Amorim. During courtship behavior in three species of Corydoras catfish, all males actively produced stridulation sounds before egg fertilization, and the species' songs were different in pulse number and sound duration.

Sound production in catfish may also be correlated with fighting and alarm calls. According to a study by Kaatz, sounds for disturbance (e.g. alarm) and agonistic behavior were not significantly different, which suggests distress sounds can be used to sample variation in agonistic sound production. However, in a comparison of a few different species of tropical catfish, some fish put under distress conditions produced a higher intensity of stridulatory sounds than drumming sounds. Differences in the proportion of drumming versus stridulation sounds depend on morphological constraints, such as different sizes of drumming muscles and pectoral spines. Due to these constraints, some fish may not even be able to produce a specific sound. In several different species of catfish, aggressive sound production occurs during cover site defense or during threats from other fish. More specifically, in long-whiskered catfish, drumming sounds are used as a threatening signal and stridulations are used as a defense signal. Kaatz investigated 83 species from 14 families of catfish, and determined that catfish produce more stridulatory sounds in disturbance situations and more swimbladder sounds in intraspecific conflicts.

Economic importance

Aquaculture

Catfish are easy to farm in warm climates, leading to inexpensive and safe food at local grocers. About 60% of U.S. farm-raised catfish are grown within a 65-mile (100-km) radius of Belzoni, Mississippi. Channel catfish (Ictalurus punctatus) supports a $450 million/yr aquaculture industry. The largest producers are located in the Southern United States, including Mississippi, Alabama, and Arkansas.

Catfish raised in inland tanks or channels are usually considered safe for the environment, since their waste and disease should be contained and not spread to the wild.

In Asia, many catfish species are important as food. Several airbreathing catfish (Clariidae) and shark catfish (Pangasiidae) species are heavily cultured in Africa and Asia. Exports of one particular shark catfish species from Vietnam, Pangasius bocourti, have met with pressures from the U.S. catfish industry. In 2003, The United States Congress passed a law preventing the imported fish from being labeled as catfish. As a result, the Vietnamese exporters of this fish now label their products sold in the U.S. as "basa fish." Trader Joe's has labeled frozen fillets of Vietnamese Pangasius hypophthalmus as "striper."

There is a large and growing ornamental fish trade, with hundreds of species of catfish, such as Corydoras and armored suckermouth catfish (often called plecos), being a popular component of many aquaria. Other catfish commonly found in the aquarium trade are banjo catfish, talking catfish, and long-whiskered catfish.

Catfish as food

Catfish have widely been caught and farmed for food for thousands of years in Africa, Asia, Europe, and North America. Judgments as to the quality and flavor vary, with some food critics considering catfish excellent to eat, while others dismiss them as watery and lacking in flavor. Catfish is high in vitamin D. Farm-raised catfish contains low levels of omega-3 fatty acids and a much higher proportion of omega-6 fatty acids.

In Central Europe, catfish were often viewed as a delicacy to be enjoyed on feast days and holidays. Migrants from Europe and Africa to the United States brought along this tradition, and in the Southern United States, catfish is an extremely popular food.

The most commonly eaten species in the United States are the channel catfish and the blue catfish, both of which are common in the wild and increasingly widely farmed. Farm-raised catfish became such a staple of the U.S. diet that President Ronald Reagan proclaimed National Catfish Day on June 25, 1987, to recognize "the value of farm-raised catfish."

Catfish is eaten in a variety of ways. In Europe, it is often cooked in similar ways to carp, but in the United States it is popularly crumbed with cornmeal and fried.

In Indonesia, catfish is usually served fried or grilled in street stalls called warung and eaten with vegetables, sambal (a spicy relish or sauce), and usually nasi uduk (traditional coconut rice). The dish is called pecel lele or pecak lele. Lele is the Indonesian word for catfish. The same dish can also be called as lele penyet (squashed catfish) if the fish is lightly squashed along with sambal with a stone mortar-and-pestle. The pecel or pecak version presents the fish in a separate plate while the mortar is solely for sambal.

In Malaysia, catfish is called ikan keli and is fried with spices or grilled and eaten with tamarind and Thai chili gravy and is also often eaten with steamed rice.

In Bangladesh and the Indian states of Odisha, West Bengal and Assam, catfish (locally known as magur) is eaten as a favored delicacy during the monsoons. In the Indian state of Kerala, the local catfish, known as thedu' or etta in Malayalam, is also popular.

In Hungary, catfish is often cooked in paprika sauce (Harcsapaprikás) typical of Hungarian cuisine. It is traditionally served with pasta smothered with curd cheese (túrós csusza).

In Myanmar (formally Burma), catfish is usually used in mohinga, a traditional noodle fish soup cooked with lemon grass, ginger, garlic, pepper, banana stem, onions, and other local ingredients.

Vietnamese catfish, of the genus Pangasius, cannot be legally marketed as catfish in the United States, and so is referred to as swai or basa. Only fish of the family Ictaluridae may be marketed as catfish in the United States. In the UK, Vietnamese catfish is sometimes sold as "Vietnamese river cobbler", although more commonly as Basa.

In Nigeria, catfish is often cooked in a variety of stews. It is particularly cooked in a delicacy popularly known as "catfish pepper soup" which is enjoyed throughout the nation.

In Jewish dietary law, known as kashrut, fish must have fins and scales to be kosher. Since catfish lack scales, they are not kosher.

Mythology

In the mythology of the Japanese Shinto religion natural phenomenon are caused by kami. Earthquakes are caused by a giant catfish called Namazu. There are other kami associated with earthquakes. In Kyoto it's usually an eel, but after the 1855 Edo earthquake Namazu-e (鯰絵, "catfish prints") were printed giving more popularity to the catfish kami that has been known since the 16th century Otsu-e. In one catfish print the divine white horse of Amaterasu is depicted knocking down the earthquake-causing catfish.

Dangers to humans

While the vast majority of catfish are harmless to humans, a few species are known to present some risk. Many catfish species have "stings" (actually non-venomous in most cases) embedded behind their fins; thus precautions must be taken when handling them. Stings by the venomous striped eel catfish have killed people in rare cases.

Catfish fishing records

By information from International Game Fish Association IGFA the most outstanding record:

• The biggest flathead catfish caught was by Ken Paulie in the Elk City Reservoir in Kansas, US on 19 May 1998 that weighed 55.79 kg (123 lb 0 oz)

See also

• Lotidae

References

1. ^ Near, Thomas J; Thacker, Christine E (18 April 2024). "Phylogenetic classification of living and fossil ray-finned fishes (Actinopterygii)". Bulletin of the Peabody Museum of Natural History. 65. doi:10.3374/014.065.0101.
2. ^ Patterson, C. (1993). "Osteichthyes: Teleostei". In Benton, M.J. (ed.). The Fossil Record 2. London: Chapman & Hall. pp. 621–656.
3. ^ Brito, P. M.; Dutheil, D. B.; Gueriau, P.; Keith, P.; Carnevale, G.; Britto, M.; Meunier, F. J.; Khalloufi, B.; King, A.; de Amorim, P. F.; Costa, W. J. E. M. (2024). "A saharan fossil and the dawn of Neotropical armoured catfishes in Gondwana". Gondwana Research. 132: 103–112. Bibcode:2024GondR.132..103B. doi:10.1016/j.gr.2024.04.008.
4. Wang, Jing; Lu, Bin; Zan, Ruiguang; Chai, Jing; Ma, Wei; Jin, Wei; Duan, Rongyao; Luo, Jing; Murphy, Robert W.; Xiao, Heng; Chen, Ziming (2016). "Phylogenetic Relationships of Five Asian Schilbid Genera Including Clupisoma (Siluriformes: Schilbeidae)". PLOS ONE. 11 (1): e0145675. Bibcode:2016PLoSO..1145675W. doi:10.1371/journal.pone.0145675. PMC 4713424. PMID 26751688.
5. Froese, Rainer; Pauly, Daniel (eds.). "Order Siluriformes". FishBase. December 2011 version.
6. Catfish Varieties Archived 17 April 2012 at the Wayback Machine. animal-world.com
7. Wong, Kate (6 June 2001) "How Nocturnal Catfish Stalk Their Prey" Archived 20 March 2011 at the Wayback Machine. Scientific American.
8. ^ Sullivan, JP; Lundberg JG; Hardman M (2006). "A phylogenetic analysis of the major groups of catfish (Teleostei: Siluriformes) using rag1 and rag2 nuclear gene sequences". Mol Phylogenet Evol. 41 (3): 636–62. Bibcode:2006MolPE..41..636S. doi:10.1016/j.ympev.2006.05.044. PMID 16876440.
9. ^ Nelson, Joseph S. (2006). Fishes of the World. John Wiley & Sons, Inc. ISBN 978-0-471-25031-9.
10. ^ Ferraris, Carl J. Jr.; Miya, M; Azuma, Y; Nishida, M (2007). "Checklist of catfish, recent and fossil (Osteichthyes: Siluriformes), and catalogue of siluriform primary types" (PDF). Zootaxa. 1418: 1–628. CiteSeerX 10.1.1.232.798. doi:10.11646/zootaxa.1418.1.1. Archived (PDF) from the original on 14 April 2008. Retrieved 22 June 2009.
11. ^ Lundberg, John G.; Friel, John P. (20 January 2003). "Siluriformes". Tree of Life Web Project. Archived from the original on 28 January 2007. Retrieved 18 April 2007.
12. Stringer, Gary; Schwarzhans, Werner (1 September 2021). "Upper Cretaceous teleostean otoliths from the Severn Formation (Maastrichtian) of Maryland, USA, with an unusual occurrence of Siluriformes and Beryciformes and the oldest Atlantic coast Gadiformes". Cretaceous Research. 125: 104867. Bibcode:2021CrRes.12504867S. doi:10.1016/j.cretres.2021.104867. ISSN 0195-6671.
13. ^ Cavin, Lionel (2017), "Evolutionary Histories of Freshwater Fishes", Freshwater Fishes: 250 Million Years of Evolutionary History, Elsevier, pp. 53–125, ISBN 978-1-78548-138-3, retrieved 8 May 2024
14. Britz, R.; Pinion, Amanda K.; Kubicek, Kole M.; Conway, Kevin W. (2024). "Comment on "A Saharan fossil and the dawn of Neotropical armoured catfishes in Gondwana" by Brito et al". Gondwana Research. doi:10.1016/j.gr.2024.06.014.
15. Brito, Paulo M.; Dutheil, Didier B.; Keith, Philippe; Carnevale, Giorgio; Meunier, François J.; Khalloufi, Bouziane; Gueriau, Pierre (2024). "A reply to a comment on Brito et al., 2024, A Saharan fossil and the dawn of the Neotropical armoured catfishes in Gondwana by Britz, Pinion, Kubicek and Conway". Gondwana Research. doi:10.1016/j.gr.2024.06.013.
16. "Catfish Families". All Catfish Species Inventory. Archived from the original on 2 May 2007. Retrieved 28 April 2007.
17. Froese, Rainer; Pauly, Daniel (eds.). "Family Parakysidae". FishBase. April 2007 version.
18. "Parakysidae". Integrated Taxonomic Information System. Retrieved 10 September 2016.
19. Ng, Heok Hee; Sparks, John S. (2005). "Revision of the endemic Malagasy catfish family Anchariidae (Teleostei: Siluriformes), with descriptions of a new genus and three new species" (PDF). Ichthyol. Explor. Freshwaters. 16 (4): 303–323. Archived (PDF) from the original on 15 December 2007.
20. Ferraris, Carl J. Jr.; Reis, Roberto E. (2005). "Neotropical catfish diversity: an historical perspective". Neotropical Ichthyology. 3 (4): 453–454. doi:10.1590/S1679-62252005000400001.
21. Rodiles-Hernández, Rocío; Hendrickson, Dean A.; Lundberg, John G.; Humphries, Julian M. (2005). "Lacantunia enigmatica (Teleostei: Siluriformes) a new and phylogenetically puzzling freshwater fish from Mesoamerica". Zootaxa. 1000: 1–24. doi:10.11646/zootaxa.1000.1.1. Archived from the original on 25 October 2012. Retrieved 22 June 2009.
22. ^ Arcila, Dahiana; Ortí, Guillermo; Vari, Richard; Armbruster, Jonathan W.; Stiassny, Melanie L. J.; Ko, Kyung D.; Sabaj, Mark H.; Lundberg, John; Revell, Liam J. (13 January 2017). "Genome-wide interrogation advances resolution of recalcitrant groups in the tree of life". Nature Ecology & Evolution. 1 (2): 0020. Bibcode:2017NatEE...1...20A. doi:10.1038/s41559-016-0020. PMID 28812610. S2CID 16535732.
23. ^ Chen, Wei-Jen; Lavoué, Sébastien; Mayden, Richard L. (9 April 2013). "Evolutionary Origin and Early Biogeography of Otophysan Fishes (Ostariophysi: Teleostei)". Evolution. 67 (8): 2218–2239. doi:10.1111/evo.12104. PMID 23888847. S2CID 40056087.
24. ^ Rivera-Rivera, Carlos J.; Montoya-Burgos, Juan I. (October 2018). "Back to the roots: Reducing evolutionary rate heterogeneity among sequences gives support for the early morphological hypothesis of the root of Siluriformes (Teleostei: Ostariophysi)". Molecular Phylogenetics and Evolution. 127: 272–279. Bibcode:2018MolPE.127..272R. doi:10.1016/j.ympev.2018.06.004. PMID 29885935. S2CID 47014511.
25. ^ Diogo, Rui (1 November 2004). "Phylogeny, origin and biogeography of catfishes: support for a Pangean origin of 'modern teleosts' and reexamination of some Mesozoic Pangean connections between the Gondwanan and Laurasian supercontinents". Animal Biologyn. 54 (4): 331–351. doi:10.1163/1570756042729546.
26. ^ Rui., Diogo (2007). The origin of higher clades : osteology, myology, phylogeny and evolution of bony fishes and the rise of tetrapods. Enfield, NH: Science Publishers. ISBN 9781578085590. OCLC 680560456.
27. Yang, Lei (April 2011). "GONORYNCHIFORMES AND OSTARIOPHYSAN RELATIONSHIPS: A COMPREHENSIVE REVIEW - Edited by T. Grande, F. J. Poyato-Ariza and R. Diogo". Journal of Fish Biology. 78 (4): 1277–1278. Bibcode:2011JFBio..78.1277Y. doi:10.1111/j.1095-8649.2011.02907.x.
28. Nakatani, Masanori; Miya, Masaki; Mabuchi, Kohji; Saitoh, Kenji; Nishida, Mutsumi (22 June 2011). "Evolutionary history of Otophysi (Teleostei), a major clade of the modern freshwater fishes: Pangaean origin and Mesozoic radiation". BMC Evolutionary Biology. 11 (1): 177. Bibcode:2011BMCEE..11..177N. doi:10.1186/1471-2148-11-177. PMC 3141434. PMID 21693066.
29. Rivera-Rivera, Carlos J.; Montoya-Burgos, Juan I. (13 August 2019). "LSX: automated reduction of gene-specific lineage evolutionary rate heterogeneity for multi-gene phylogeny inference". BMC Bioinformatics. 20 (1). Springer Science and Business Media LLC: 420. bioRxiv 10.1101/220053. doi:10.1186/s12859-019-3020-1. PMC 6693147. PMID 31409290.
30. Lundberg, John G.; Sullivan, John P.; Rodiles-Hernández, Rocío; Hendrickson, Dean A. (2007). "Discovery of African roots for the Mesoamerican Chiapas catfish, Lacantunia enigmatica, requires an ancient intercontinental passage" (PDF). Proceedings of the Academy of Natural Sciences of Philadelphia. 156: 39–53. doi:10.1635/0097-3157(2007)156[39:DOARFT]2.0.CO;2. S2CID 4171034. Archived from the original (PDF) on 26 March 2009. Retrieved 22 June 2009.
31. Betancur-Rodriguez, Ricardo; Edward O. Wiley; Gloria Arratia; Arturo Acero; Nicolas Bailly; Masaki Miya; Guillaume Lecointre; Guillermo Ortí (2017). "Phylogenetic classification of bony fishes". BMC Evolutionary Biology. 17 (162) (4 ed.): 162. Bibcode:2017BMCEE..17..162B. doi:10.1186/s12862-017-0958-3. PMC 5501477. PMID 28683774.
32. Nelson, Joseph S.; Terry C. Grande; Mark V. H. Wilson (2016). Fishes of the World (5 ed.). John Wiley & Sons. ISBN 9781118342336.
33. ^ Bruton, Michael N. (1996). "Alternative life-history strategies of catfishes". Aquat. Living Resour. 9: 35–41. doi:10.1051/alr:1996040. S2CID 85428351.
34. Langecker, Thomas G.; Longley, Glenn (1993). "Morphological Adaptations of the Texas Blind Catfishes Trogloglanis pattersoni and Satan eurystomus (Siluriformes: Ictaluridae) to Their Underground Environment". Copeia. 1993 (4): 976–986. doi:10.2307/1447075. JSTOR 1447075.
35. Hendrickson, Dean A.; Krejca, Jean K.; Martinez, Juan Manuel Rodríguez (2001). "Mexican blindcats genus Prietella (Siluriformes: Ictaluridae): an overview of recent explorations". Environmental Biology of Fishes. 62 (1–3): 315–337. Bibcode:2001EnvBF..62..315H. doi:10.1023/A:1011808805094. S2CID 19962442.
36. Froese, Rainer; Pauly, Daniel (eds.). "Phreatobius cisternarum". FishBase. Apr 2007 version.
37. Monks N. (editor): Brackish Water Fishes, TFH 2006, ISBN 0-7938-0564-3
38. Schäfer F: Brackish Water Fishes, Aqualog 2005, ISBN 3-936027-82-X
39. "Texas Dept. Wildlife" (PDF). Archived (PDF) from the original on 21 February 2012. Retrieved 3 January 2012.
40. "Catfish". Friends of Woodland Park. Archived from the original on 14 June 2023. Retrieved 14 June 2023.
41. Nico, Leo G.; Martin, R. Trent (2001). "The South American Suckermouth Armored Catfish, Pterygoplichthys anisitsi (Pisces: Loricaridae), in Texas, with Comments on Foreign Fish Introductions in the American Southwest". The Southwestern Naturalist. 46 (1): 98–104. doi:10.2307/3672381. JSTOR 3672381.
42. Wakida-Kusunokia, Armando T.; Ruiz-Carusb, Ramon; Amador-del-Angelc, Enrique (2007). "Amazon Sailfin Catfish, Pterygoplichthys pardalis (Castelnau, 1855) (Loricariidae), Another Exotic Species Established in Southeastern Mexico". The Southwestern Naturalist. 52 (1): 141–144. doi:10.1894/0038-4909(2007)52[141:ASCPPC]2.0.CO;2. S2CID 86847378.
43. Chavez, Joel M.; de la Paz, Reynaldo M.; Manohar, Surya Krishna; Pagulayan, Roberto C.; Carandang Vi, Jose R. (2006). "New Philippine record of South American sailfin catfishes (Pisces: Loricariidae)" (PDF). Zootaxa. 1109: 57–68. doi:10.11646/zootaxa.1109.1.6. Archived (PDF) from the original on 31 October 2006. Retrieved 22 June 2009.
44. Bunkley-Williams, Lucy; Williams, Ernest H. Jr.; Lilystrom, Craig G.; Corujo-Flores, Iris; Zerbi, Alfonso J.; Aliaume, Catherine; Churchill, Timothy N. (1994). "The South American Sailfin Armored Catfish, Liposarcus multiradiatus (Hancock), a New Exotic Established in Puerto Rican Fresh Waters" (PDF). Caribbean Journal of Science. 30 (1–2): 90–94. Archived from the original (PDF) on 4 March 2009. Retrieved 22 June 2009.
45. Liang, Shih-Hsiung; Wu, Hsiao-Ping; Shieh, Bao-Sen (2005). "Size Structure, Reproductive Phenology, and Sex Ratio of an Exotic Armored Catfish (Liposarcus multiradiatus) in the Kaoping River of Southern Taiwan" (PDF). Zoological Studies. 44 (2): 252–259. Archived (PDF) from the original on 6 May 2006. Retrieved 22 June 2009.
46. Atema, Jelle (1980) "Chemical senses, chemical signals, and feeding behavior in fishes" pp. 57–101. In: Bardach, JE Fish behavior and its use in the capture and culture of fishes, The WorldFish Center, ISBN 978-971-02-0003-0.
47. Friel, J P; Lundberg, J G (1996). "Micromyzon akamai, gen. et sp. nov., a small and eyeless banjo catfish (Siluriformes: Aspredinidae) from the river channels of the lower Amazon basin". Copeia. 1996 (3): 641–648. doi:10.2307/1447528. JSTOR 1447528.
48. "Channel Catfish". Fairfax County Public Schools. Archived from the original on 3 June 2006. Retrieved 2 December 2006.
49. Wright, Jeremy J (4 December 2009). "Diversity, phylogenetic distribution, and origins of venomous catfishes". BMC Evolutionary Biology. 9 (1): 282. Bibcode:2009BMCEE...9..282W. doi:10.1186/1471-2148-9-282. PMC 2791775. PMID 19961571.
50. ^ Ballen, Gustavo A.; De Pinna, Mario C. C. (2022). "A standardized terminology of spines in the order Siluriformes (Actinopterygii: Ostariophysi)". Zoological Journal of the Linnean Society. 194 (2): 601–625. doi:10.1093/zoolinnean/zlab008. Archived from the original on 23 September 2023. Retrieved 10 February 2022.
51. Lundberg, John G.; Berra, Tim M.; Friel, John P. (2004). "First description of small juveniles of the primitive catfish Diplomystes (Siluriformes: Diplomystidae)" (PDF). Ichthyol. Explor. Freshwaters. 15 (1): 71–82. Archived (PDF) from the original on 11 December 2021. Retrieved 27 March 2023.
52. Friel, John P.; Vigliotta, Thomas R. (2006). "Synodontis acanthoperca, a new species from the Ogôoué River system, Gabon with comments on spiny ornamentation and sexual dimorphism in mochokid catfishes (Siluriformes: Mochokidae)" (PDF). Zootaxa. 1125: 45–56. doi:10.11646/zootaxa.1125.1.3. Archived (PDF) from the original on 31 October 2006. Retrieved 22 June 2009.
53. ^ Mazzoldi, C.; Lorenzi, V.; Rasotto, M. B. (2007). "Variation of male reproductive apparatus in relation to fertilization modalities in the catfish families Auchenipteridae and Callichthyidae (Teleostei: Siluriformes)". Journal of Fish Biology. 70 (1): 243–256. Bibcode:2007JFBio..70..243M. doi:10.1111/j.1095-8649.2006.01300.x.
54. "Schoolgirl nets 9ft monster fish". The Daily Telegraph. London. 15 July 2009. Archived from the original on 11 January 2022. Retrieved 28 April 2010.
55. "Grizzly Bear-Size Catfish Caught in Thailand". National Geographic News. 29 June 2005. Archived from the original on 30 June 2005. Retrieved 14 July 2006.
56. "Term : humeral process". FishBase. 2007. Archived from the original on 17 December 2007.
57. Douglas, Ron H.; Collin, Shaun P.; Corrigan, Julie (15 November 2002). "The eyes of suckermouth armoured catfish (Loricariidae, subfamily Hypostomus): pupil response, lenticular longitudinal spherical aberration and retinal topography". Journal of Experimental Biology. 205 (22). The Journal of Experimental Biology: 3425–3433. doi:10.1242/jeb.205.22.3425. PMID 12364396. Archived from the original on 30 September 2007. Retrieved 9 June 2007.
58. ^ Barros, Marcelo D. M.; Guimarães-Cruz, Rodrigo J.; Veloso-Júnior, Vanderlei C.; Santos, José E. dos (2007). "Reproductive apparatus and gametogenesis of Lophiosilurus alexandri Steindachner (Pisces, Teleostei, Siluriformes)". Revista Brasileira de Zoologia. 24 (1): 213–221. doi:10.1590/S0101-81752007000100028.
59. ^ Brito, M.F.G.; Bazzoli, N. (2003). "Reproduction of the surubim catfish (Pisces, Pimelodidae) in the São Francisco River, Pirapora Region, Minas Gerais, Brazil". Arquivo Brasileiro de Medicina Veterinária e Zootecnia. 55 (5): 624. doi:10.1590/S0102-09352003000500018.
60. ^ Kasumayan, A. O. (2008). "Sounds and Sound Production in Fishes". Journal of Ichthyology. 48 (11): 981–1030. doi:10.1134/S0032945208110039. S2CID 23223714.
61. ^ Vance, Theresa L. (2000). "Variation in Stridulatory Sound Production in the Channel Catfish, Ictalurus punctatus". BIOS. 71 (3): 79–84. JSTOR 4608557.
62. ^ Ladich, Friedrich; Michael L. Fine (2006). "Sound-Generating Mechanisms in Fishes: A Unique Diversity in Vertebrates". Communication in Fishes. 1: 3–43.
63. ^ Amorim, Maria Clara P. (2006). "Diversity of Sound Production in Fish". Communication in Fish. 1: 71–105.
64. ^ Ladich, Friedrich; Myrberg, Arthur A Jr. (2006). "Agonistic Behavior and Acoustic Communication". Communication in Fishes. 1: 121–148.
65. Morris, J.E. (October 1993). "Pond Culture of Channel Catfish in the North Central Region" (PDF). North Central Regional Aquaculture Center. Archived from the original (PDF) on 6 February 2007. Retrieved 28 June 2006.
66. "Catfish Production" (PDF). www.nass.usda.gov. 21 July 2017. Archived (PDF) from the original on 15 September 2017. Retrieved 14 September 2017.
67. Rogers, Paul. "Economy of Scales". Stanford Magazine (March / April 2006). Stanford Alumni Association. Archived from the original on 11 June 2008. Retrieved 14 February 2008.
68. ""'Catfish' bred in Asia move up on U.S. food chain"$, Associated Press via L.A. Times, 28 November 2006". Los Angeles Times. 28 November 2006. Archived from the original on 23 September 2023. Retrieved 5 December 2006.
69. Cole, Nancy (27 January 2006) Catfish imports not slowing. Northwest Arkansas News
70. ^ Jenny Baker (1988), Simply Fish p 36–37. Faver & Faber, London.
71. "Vitamin D and Healthy Bones". New York State Department of Health. Archived from the original on 18 August 2010. Retrieved 13 July 2007.
72. Fatty Fish Not Equal in Good Fats Archived 21 March 2012 at the Wayback Machine. Reuters. Source: Journal of the American Dietetic Association, July 2008
73. "The Rehab Archipelago | Forced Labor and Other Abuses in Drug Detention Centers in Southern Vietnam". Human Rights Watch. 7 September 2011. Retrieved 25 June 2019.
74. "Union Fish Company – Basa/Swai Details". Archived from the original on 9 November 2007. Retrieved 11 November 2007.
75. Public Law 107-171, § 10806, 116 Stat. 526-527, codified in "United States Code, Title 21, section 321d. Market names for catfish and ginseng", archived from the original on 17 April 2021, retrieved 28 October 2020 and "United States Code, Title 21, section 343 (t). Misbranded food". Archived from the original on 23 September 2023. Retrieved 9 May 2017.
76. See Piazza's Seafood World, LLC v. Odom Archived 23 September 2023 at the Wayback Machine, 448 F. 3d 744 (5th Cir. 2006), citing Kerrilee E. Kobbeman, "Legislative Note, Hook, Line and Sinker: How Congress Swallowed the Domestic Catfish Industry's Narrow Definition of this Ubiquitous Bottomfeeder," 57 ARK. L.REV. 407, 411-18 (2004).
77. "Fish Labelling (Amendment) (England) Regulations 2006" (PDF). COT. 26 May 2007. Archived (PDF) from the original on 31 January 2012. Retrieved 23 May 2013.
78. Oreva, Duke (14 May 2018). "How to cook the irresistible catfish pepper soup". Archived from the original on 16 May 2018. Retrieved 16 May 2018.
79. "Kosher Spirit: Fins and Scales". OK Kosher Certification. Archived from the original on 29 November 2022. Retrieved 29 November 2022.
80. "Channel Catfish". fisheries.tamu.edu. Archived from the original on 1 May 2019. Retrieved 14 November 2019.
81. Rosen, Brenda (2009). The Mythical Creatures Bible. Sterling. p. 370.
82. Smits, Gregory (2013). Seismic Japan: The Long History and Continuing Legacy of the Ansei Edo Earthquake. University of Hawaii Press. p. 158. Bibcode:2013sjlh.book.....S.
83. Froese, Rainer; Pauly, Daniel (eds.). "Plotosus lineatus". FishBase. November 2014 version.
84. "IGFA World Records". International Game Fish Association. Archived from the original on 1 November 2015. Retrieved 1 November 2015.

External links

• All catfish species inventory
• "Giant Baghair caught in Jamuna" Archived 29 November 2014 at the Wayback Machine in The Daily Star (Bangladesh), 12 May 2009
• Skelton, Paul H. and Teugels, Guy G. 1992. Ichthyological Bulletin; No. 56: Neotype description for the African catfish Clarias Gariepinus (Burchell, 1822) (Pisces: Siluroidei: Clariidae). J.L.B. Smith Institute of Ichthyology, Rhodes University, Grahamstown, South Africa

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