Cyprinus carpio
common carp
Type Locality
Europe (Linneaus 1758).
Etymology/Derivation of Scientific Name
Cyprinus – generic
name first used by Linnaeus and probably derived from Cyprus, the island
home of Venus, and an indirect reference to the fish’s fecundity; carpio
– Latin word for carp which was used by the Roman and Celtic peoples of
Europe (Moyle 1976).
Synonymy
No information at this time.
Characters
Maximum size: Up to
1220 mm TL (Allen 1980).
Coloration: Dorsal
region olive to gray; lateral region yellow-gold with silvery sheen; ventral
region pale yellow. Dorsal and caudal fins gold-olive, other fins
yellowish. Breeding males have a darker shade of the colors mentioned above
with orange-gold fins. Juveniles have a dark vertical bar on caudal fin
base. Peritoneum dusky (Goldstein and Simon 1999).
Pharyngeal teeth count:
1, 1, 3-3, 1, 1 (Hubbs et al. 1991). May encounter 1,2,3-3,2,1.
Counts: 35-38 lateral
line scales (Hubbs et al. 1991); 21-33 gill rakers; 19 caudal fin soft rays;
18-22 dorsal fin soft rays; 4-6 anal fin soft rays; 14-18 pectoral fin soft rays; 8 or 9
pelvic fin soft rays (Heufelder and Fuiman 1982; Ross 2001).
Body shape: Deep
bodied and compressed.
Mouth position:
Terminal on young, becoming subterminal as fish age (Page and Burr 1991; Ross
2001).
Morphology:
Pharyngeal teeth are molar-like (Goldstein and Simon 1999). Upper jaw with barbels on each side; some morphologies without barbels
(Hubbs et al. 1991). Serrated spinous rays on dorsal and anal fins. Swee and
McCrimmon (1966) noted that nuptial tubercles are typically present on the
head and pectoral fin rays of the male during the spawning season.
Distribution (Native and Introduced)
U.S. distribution:
Introduced in 1877; widely distributed in North America
below 50th parallel; south to panhandle of Florida, west through
Mississippi River basin, becoming less common in western United States (Allen 1980).
Texas distribution:
Introduced statewide.
Abundance/Conservation status (Federal, State,
Non-governmental organizations):
Broad and stable distribution
in North America (Panek 1987).
Habitat Associations
Macrohabitat: Small
backwater areas to large rivers and reservoirs. Most abundant in large
bodies of water (Hubbs et al. 1991).
Mesohabitat:
Ubiquitous among habitats (Allen 1980) usually avoid swift currents. In the Sulphur River, Texas, one of four dominant species in
open-water group collections; positively associated with greater depths in
the upstream reach and with pool habitats during the high flow range (Morgan
2002). ). Upper lethal limit reported to range between 36°C and 41°C;
species moderately tolerant of low dissolved oxygen conditions, with
decrease in feeding and growth apparent at oxygen concentrations less than 3
ppm; species extremely tolerant of turbidity caused by particulate matter
(clay, silt), the lethal level approaches 165,000 ppm (Panek 1987). Reported
from brackish marshes with salinities up to 14 ppt (Crivelli 1981); however
this species is rarely found in brackish areas as high salinities cause
excretory problems and may interfere with water balance (Panek 1987). Young
fish will bury themselves in mud or sand in an effort to avoid predation by
birds (Panek 1987).
Biology
Spawning season:
April to August, in Wisconsin (Miller 1952). Early-June to mid-July, in
Lewis and Clark Lake (Missouri River), with water ranging between
18.3-23.9°C (Walburg and Nelson 1966). In Ontario, Canada, mid-May to
early-August, with water temperatures ranging between 17 and 27°C; peak
activity at 19-23°C (Swee and McCrimmon 1966). Spawning occurs from early
spring (Panek 1987) to early summer (Breder and Rosen 1966).
Spawning location:
Phytolithophils - nonobligatory plant spawner that deposit eggs on submerged
items in shallow areas (Breder and Rosen 1966; Swee and McCrimmon 1966;
Balon 1981; Simon 1999). Known to spawn in
rivers, lakes, marshes, forested swamps, ponds, and sheltered, vegetated
areas of streams; over aquatic vegetation, tree roots, on mud bottoms, and
over debris covering bottom (Breder and
Rosen 1966; Heufelder and Fuiman 1982; Panek 1987). In Ontario, Canada,
spawning typically occurred in shallow water with muck bottom where eggs
were scattered over available vegetation (Swee and McCrimmon 1966); occurred
in shallow flooded area with abundant fixed vegetation, in southern France
(Crivelli 1981).
Reproductive strategy:
Nonguarders; open substratum spawners; phytolithophils: late hatching larvae
with cement glands in free embryos, have larvae with moderately developed
respiratory structures, and have larvae that are photophobic (Swee and
McCrimmon 1966; Balon 1981; Simon 1999). Spawning occurs in shallow water, both day and night, and is accompanied by much splashing. One or
more males will chase the female, prodding her in an effort to induce
extrusion of eggs. Eggs and milt are released into the water during this
process; the eggs sinking and adhering to aquatic vegetation, algae, or firm
substrates (Breder and Rosen 1966; Panek 1987).
Fecundity: Eggs
ranging from 36,000 to 2,208,000 (Swee and McCrimmon 1966; Crivelli 1981;
Panek 1987). Eggs demersal, adhesive,
1.5-2.1 mm (0.06-0.08 in) in diameter; incubation period 90 hours at 13-17°C
(55.4-62.6°F), 50 hours at
25-32°C (77.0-89.6°F) (Heufelder and Fuiman 1982; Panek 1987).
Females can spawn multiple times a year (Swee and McCrimmon 1966).
Age at maturation:
Variable; males generally mature by age 2 and females at age three (Panek 1987).
Of Canadian populations, Swee and McCrimmon (1966) noted that males mature
at ages 3 – 4, females at ages 4 – 5.
Migration: Relatively
sedentary, at times they move moderate distances in streams, likely relating
to habitat suitability (Funk 1955). In
rivers, common carp may migrate long distances to find suitable spawning
conditions; in large reservoirs inhabit overwintering areas near
shallows were they will spawn (Panek 1987).
Longevity: Seldom
beyond 20 years in the wild (Panek 1987), maximum known is 47 years for a
fish kept in a pond; common carp in warmer waters live <11 years (Carlander 1969).
Food habits: Species
classified as invertivore/detritivore; benthic/filter feeder; grazer/suction
feeder; main diet items include plant tissue, aquatic insects, crustaceans,
annelids, and mollusks (Goldstein and Simon 1999). Feeding usually occurs in
shallow
water, by rooting through the substrata; however, C. carpio
also consume plankton suspended in midwater, and insects or plankton trapped
in the surface film. Bottom feeding individuals take mouthfuls of benthic
organic matter and release it in the water column in order to select certain
food items. C. carpio actively feed at sunrise and sunset. Diet of
young
primarily consists of small crustaceans, snails, and midge larvae; zooplankton selected
from water column is sometimes an important diet item. Adults are
omnivorous, consuming varying amounts of plant (rooted plants, algae,
organic debris) and animals (midge larvae, crustaceans, small snails,
freshwater clams). Pharyngeal teeth are well adapted for crushing and
grinding larger food items (Panek 1987). Populations in two Colorado streams
fed primarily on chironomid larvae and pupae; gut contents of stream fish
also yielded large amounts of algae, sand, detritus, and terrestrial
invertebrates. Fish inhabiting a Colorado pond fed primarily on chironomids,
but also consumed large amounts of entomostracans and crayfish (Eder and
Carlson 1977). In Lewis and Clark Lake (Missouri River), food items in order
of volumetric importance were organic detritus (61%), insects (19%),
microcrustaceans (10%), and phytoplankton (9%)(Walberg and Nelson 1966).
Growth: Highly
variable; maximum average length (TL) is 445 mm (17.5 in) by the end of age 1,622 mm
(24.5 in)
by the end of age 2, 703 mm (27.7 in) by the end of age 3, 782 mm (30.8 in) by the end of age 4,
and 831 mm (32.7 in) by the end of age 5 (Carlander 1969).
Phylogeny and morphologically similar fishes:
Subfamily Cyprinidae within
the cyprinid group (Cavender and Coburn 1992).
Often hybridizes with the non-native goldfish, Carassius auratus
(Breder and Rosen 1966; Allen 1980). Goldfish (Carrassius auratus)
lack barbels, and molar-like pharyngeal teeth.
Host Records:
Algae;
Fungi; Protozoa (extensive); Trematoda (extensive); Cestoda; Nematoda
(extensive); Leeches; Mollusca; Crustacea (extensive; Hoffman 1967; Panek
1987).
Commercial or Environmental Importance:
Individuals disturb benthos
and increase turbidity as they stir up the bottom when feeding; consequently
species is regarded as pest fish in North America (Allen 1980; Panek 1987).
References
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in D. S. Lee, et al. Atlas of North American Freshwater Fishes. N.
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Balon E.K. 1981. Additions and amendments to the classification of
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T.F.H. Publications, Jersey City, NJ. 941 pp.
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in Camargue, southern France. J. Fish Biology 18:271-290.
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