Quagga mussel

Last updated

Quagga mussel
Dreissena bugensis.jpg
One valve of Dreissena bugensis
Scientific classification OOjs UI icon edit-ltr.svg
Domain: Eukaryota
Kingdom: Animalia
Phylum: Mollusca
Class: Bivalvia
Order: Myida
Superfamily: Dreissenoidea
Family: Dreissenidae
Genus: Dreissena
Species:
D. bugensis
Binomial name
Dreissena bugensis
(Andrusov, 1897) [2]
Synonyms

Dreissena rostriformis bugensis

The quagga mussel (Dreissena rostriformis, also known as Dreissena bugensis or Dreissena rostriformis bugensis) is a species (or subspecies) of freshwater mussel, an aquatic bivalve mollusk in the family Dreissenidae. It has an average lifespan of 3 to 5 years. [3]

Contents

The species is indigenous to the Dnipro River drainage of Ukraine, and is named after the quagga, an extinct subspecies of African zebra, possibly because, like the quagga, its stripes fade out towards the ventral side.

The invasive quagga mussel is currently of major concern as it spreads in the rivers and lakes of Europe and also in the Great Lakes of North America where it was brought by overseas shippers that use the Saint Lawrence Seaway.

Appearance

The quagga mussel shell is generally black, yellow, and/or zig-zagged. However, a large range of shell morphologies is seen, including a distinct morph in Lake Erie that is pale or completely white. The shell has a rounded carina and a convex ventral side.

The quagga mussel resembles the zebra mussel, just as its namesake (quagga) resembles the zebra. The quagga mussel shell can be distinguished from the zebra mussel shell because it is paler toward the end of the hinge. It is also slightly larger than the zebra mussel, about 20 mm (0.8 in) wide, roughly about the size of an adult human's thumbnail.

Quagga mussels in Lake Michigan sediment sample Quagga mussels GLERL 1.jpg
Quagga mussels in Lake Michigan sediment sample

Diet

The quagga mussel is a filter feeder; it uses its cilia to pull water into its shell cavity through an incurrent siphon, where the desirable particulate matter is removed. Each adult mussel is capable of filtering one liter or more of water each day, where they remove phytoplankton, zooplankton, algae, and even their own veligers. Any undesirable particulate matter is bound with mucus, known as pseudofeces, and ejected out the incurrent siphon. The particle-free water is then discharged out the excurrent siphon.

Reproduction

The quagga mussel is a prolific breeder, possibly contributing to its spread and abundance. Dreissena spp. are dioecious (either male or female) with external fertilization. A fully mature female mussel is capable of producing up to one million eggs per year. After fertilization, pelagic microscopic larvae, or veligers, develop within a few days and these veligers soon acquire minute bivalve shells. Free-swimming veligers drift with the currents for 3 to 4 weeks feeding by their hair-like cilia while trying to locate suitable substrata to settle and secure byssal threads. Mortality in this transitional stage from planktonic veliger to settled juvenile may exceed 99%. [4] In 2019, the genome of a quagga mussel from the Danube River in Austria was sequenced, revealing how larvae use a system of intercellular 'cleavage cavities' and an expanded set of aquaporin transmembrane water channels for osmoregulation in low-salinity freshwater environments during the early stages of their development. [5]

Invasive species

Europe

Quagga mussels are presumed to have originated in the Ukrainian section of the Black Sea and probably began to spread further into eastern Europe in the 1940s. Today, they are an invasive species found throughout western Europe. [6]

In Romania, quagga mussels were first found in 2004 in the Danube River. [7] In Germany, quagga mussels were first identified in 2005, and now populate many inland waters, such as the Rhine–Main–Danube Canal, the Main, and the Rhine. They were first identified in Switzerland in 2015, [8] and in Lake Constance in 2016, where they have since spread massively and caused considerable problems, in particular to the machinery in waterworks. [9]

In 2014, the species was reported at Wraysbury Reservoir, not far from London's Heathrow Airport in the valley of the River Thames. [10]

In Ireland, the mussels were first discovered in 2021 in two lakes on the River Shannon: Lough Derg and Lough Ree. [11] The mussel is expected to compete with existing zebra mussels and native species, becoming widespread due to its ecological tolerance and suitability to Irish climatic conditions. [12] [13] [14]

North America

Zebra mussels, the first dreissenid mussel introduced in North America, rapidly spread throughout many major river systems and the Great Lakes, causing substantial ecological and environmental impacts. The quagga mussel was first observed in North America in September 1989, when it was discovered in Lake Erie near Port Colborne, Ontario. It was not identified as a distinct species until 1991. By 2021 the biomass of quaggas in the lower 4 Great Lakes was estimated to be so great as to become the primary regulator of phosphorus, remetabolizing and recirculating it instead of allowing it to sedimentize as normal. [15] [16]

The introduction of both dreissenid species into the Great Lakes appears to be the result of ballast water discharge from transoceanic ships that were carrying veligers, juveniles, or adult mussels. The genus Dreissena is highly polymorphic and prolific with high potential for rapid adaptation attributing to its rapid expansion and colonization. Still, other factors can aid in the spread of these species across North American waters, such as larval drift in river systems or fishing and boating activities that allow for overland transport or movement between water basins. The success of overland transport of Dreissena species depends on their ability to tolerate periods of desiccation, and results suggest that given temperate summer conditions, adult Dreissena mussels may survive 3-5 days of aerial exposure. [4]

Quaggas are prodigious water filterers, removing substantial amounts of phytoplankton and suspended particulates from the water. By removing the phytoplankton, quaggas, in turn, decrease the food source for zooplankton, therefore altering the food web. Impacts associated with the filtration of water include increases in water transparency, decreases in mean chlorophyll concentrations, and accumulation of pseudofeces. Water clarity increases light penetration, causing a proliferation of aquatic plants that can change species dominance and alter the entire ecosystems. The pseudofeces that are produced from filtering the water accumulate and impact the environment. As the waste particles decompose, oxygen is used up, water acidity increases (decreased pH), and toxic byproducts are produced. In addition, quagga mussels accumulate organic pollutants within their tissues to levels more than 300,000 times greater than concentrations in the environment, and these pollutants are found in their pseudofeces, which can be passed up the food chain, therefore increasing wildlife exposure to organic pollutants. [17] Another major threat involves the fouling of native freshwater mussels. Since quaggas were discovered in Lake Michigan in 1998, plankton rings formed by the passage of storms have been eaten away by the quagga mussels, threatening the local ecosystem. [18]

Each coin-sized quagga can filter up to a liter of water per day, stripping away the plankton that for thousands of years directly and indirectly sustained the native fish. Much of that food supply has now been sucked to the lake bottom; for every pound of prey fish swimming in the lake today, an estimated three to four pounds of quaggas are clustering on the lake bed. [19]

Map showing distribution of quagga mussels in the U.S. Quagga Map lg.jpg
Map showing distribution of quagga mussels in the U.S.

Dreissena's ability to rapidly colonize hard surfaces causes serious economic problems. These major biofouling organisms can clog water-intake structures, such as pipes and screens, therefore reducing pumping capabilities for power and water-treatment plants, costing industries, companies, and communities. Recreation-based industries and activities have also been impacted; docks, breakwalls, buoys, boats, and beaches have all been heavily colonized. Many of the potential impacts of Dreissena are unclear due to the limited time scale of North American colonization. Nonetheless, the genus Dreissena clearly is highly polymorphic and has a high potential for rapid adaptation to extreme environmental conditions, possibly leading to significant long-term impacts on North American waters. Also, the colonization of deeper water by D. r. bugensis, exposes the quagga to a new range of environmental conditions and new habitats.

It causes many of the same problems (stripping life-supporting algae, [20] damaging boats, power plants, and harbors and destroying the native mussel population) as the equally invasive zebra mussel of Russia. It is also displacing native burrowing amphipod (Diporeia hoyi) from the deep waters of Lake Erie.

In January 2007, quagga mussels were discovered at a marina in the Nevada portion of Lake Mead, and two other lakes on the Colorado River, Lake Mohave and Lake Havasu. [21]

In 2008, the threat of quagga mussels being introduced at Lake Casitas and Westlake Lake in California from recreational boating resulted in the lakes' banning the use of outside boats. [22] As of March 2008, other lakes such as Castaic and Lake Cachuma are considering similar bans. In June 2008, the mussels were confirmed in Lake Granby, Colorado. Larval quagga mussels were found in the water. [23] After 5 years of negative testing Lake Granby, Colorado has been classified as a negative waterbody for quagga mussel veligers.

Quagga mussels are now in all parts of Lake Powell on the Utah and Arizona border. They were also suspected in Deer Creek Reservoir at the top of Provo Canyon in Utah, but this body of water has since been delisted as a quagga-suspected water after 3 years of negative testing. [24]

Quagga mussels as prey

In 1994, invasive-species biologist Anthony Ricciardi determined that North American yellow perch found the invasive dreissenid species palatable. In 2004, he determined that yellow perch, over the intervening 10 years, had developed an appetite for the quagga mussel. While this sounds like good news, the problem is that this feeding process introduces contaminants into the food chain, notably Clostridium botulinum . [25]

Redear sunfish, a specialized mollusk-eating fish, are now being stocked in the Colorado River drainage as a defense against the quaggas. [26] As with the yellow perch, this predator–prey relationship could cause toxins and micro-organisms to move up the food chain.

Although quaggas are edible for humans, eating them is not recommended due to the accumulation of toxins, pollutants, and microorganisms within the mussels' bodies.[ citation needed ]

Related Research Articles

<span class="mw-page-title-main">Zebra mussel</span> Species of bivalve

The zebra mussel is a small freshwater mussel. The species originates from the lakes of southern Russia and Ukraine, but has been accidentally introduced to numerous other areas and has become an invasive species in many countries worldwide. Since the 1980s, the species has invaded the Great Lakes, Hudson River, and Lake Travis.

<span class="mw-page-title-main">Veliger</span> Larval stage of some snails

A veliger is the planktonic larva of many kinds of sea snails and freshwater snails, as well as most bivalve molluscs (clams) and tusk shells.

<i>Dreissena</i> Genus of bivalves

Dreissena is a genus of small freshwater mussels in the family Dreissenidae in the class Bivalvia. They are found attached to firm substrates by threads from underneath the shells and are the only freshwater bivalves to attach to hard substrates in high densities while having a planktonic larval stage. They are considered the most aggressive freshwater invader in the world because of their ability to invade environments in every one of their life cycle.

<i>Mytilopsis sallei</i> Species of bivalve

Mytilopsis sallei, the black-striped mussel, is a small marine bivalve mollusc in the family Dreissenidae, the false mussels.

The Dreissenidae are a family of small freshwater mussels, aquatic bivalve molluscs. They attach themselves to stones or to any other hard surface using a byssus. The shells of these bivalves are shaped somewhat like those of true mussels, and they also attach themselves to a hard substrate using a byssus, however this group is not at all closely related to true mussels, being more closely related to the venus clams (Veneridae).

<span class="mw-page-title-main">Freshwater drum</span> Species of fish

The freshwater drum, Aplodinotus grunniens, is a fish endemic to North and Central America. It is the only species in the genus Aplodinotus, and is a member of the family Sciaenidae. It is the only North American member of the group that inhabits freshwater for its entire life. Its generic name, Aplodinotus, comes from Greek meaning "single back", and the specific epithet, grunniens, comes from a Latin word meaning "grunting". It is given to it because of the grunting noise that mature males make. This noise comes from a special set of muscles within the body cavity that vibrate against the swim bladder. The purpose of the grunting is unknown, but due to it being present in only mature males and during the spawning season, it is assumed to be linked to spawning.

<span class="mw-page-title-main">Great Lakes Areas of Concern</span> Geographical region in the Great Lakes that show environmental degradation

Great Lakes Areas of Concern are designated geographic areas within the Great Lakes Basin that show severe environmental degradation. There are a total of 43 areas of concern within the Great Lakes, 26 being in the United States, 12 in Canada, and five shared by the two countries.

<span class="mw-page-title-main">Unionidae</span> Family of molluscs

The Unionidae are a family of freshwater mussels, the largest in the order Unionida, the bivalve molluscs sometimes known as river mussels, or simply as unionids.

<i>Sphaerium corneum</i> Species of bivalve

Sphaerium corneum, also known as the European fingernailclam, is a very small freshwater clam, an aquatic bivalve mollusk in the family Sphaeriidae, the fingernail clams.

<i>Epioblasma brevidens</i> Species of freshwater mussel

Epioblasma brevidens, the Cumberlandian combshell, is a species of freshwater mussel, an aquatic bivalve mollusk in the family Unionidae. This species is endemic to the United States, found mainly in the states of Tennessee and Virginia. This mussel resides in medium-sized streams to large rivers. The combshell is an endangered species and protected under the Endangered Species Act of 1973. The combshell is threatened by habitat modifications and pollution.

<i>Lampsilis higginsii</i> Species of bivalve

Lampsilis higginsii is a rare species of freshwater mussel known as Higgins' eye pearly mussel or simply Higgins' eye. It is endemic to the United States, where it occurs in the upper Mississippi River and the drainages of some of its tributaries. It is threatened by the introduced zebra mussel. Lapsilis higginsii is a federally listed endangered species.

<span class="mw-page-title-main">Winged mapleleaf</span> Species of bivalve

The winged mapleleaf, also known as false mapleleaf, or hickory nut shell, and with the scientific name Quadrula fragosa, is a species of freshwater mussel. It is an aquatic bivalve mollusk in the family Unionidae, the river mussels. It is endemic to the United States.

Freshwater bivalves are one kind of freshwater mollusc, along with freshwater snails. They are bivalves that live in fresh water as opposed to salt water, which is the main habitat type for bivalves.

<i>Perna perna</i> Species of bivalve

Perna perna, the brown mussel, is an economically important mussel, a bivalve mollusc belonging to the family Mytilidae. It is harvested as a food source but is also known to harbor toxins and cause damage to marine structures. It is native to the waters of Africa, Europe, and South America and was introduced in the waters of North America.

<i>Mytilopsis leucophaeata</i> Species of bivalve

Mytilopsis leucophaeata is a species of small bivalve mollusc in the false mussel family, Dreissenidae. It is commonly known as Conrad's false mussel or the dark false mussel.

<i>Dikerogammarus villosus</i> Species of crustacean

Dikerogammarus villosus, also known as the killer shrimp, is a species of amphipod crustacean native to the Ponto-Caspian region of eastern Europe, but which has become invasive across the western part of the continent. In the areas it has invaded, it lives in a wide range of habitats and will prey on many other animals. It is fast-growing, reaching sexual maturity in 4–8 weeks. As it has moved through Europe, it threatens other species and has already displaced both native amphipods and previous invaders.

<span class="mw-page-title-main">Aquatic invasive species in Canada</span>

Canadian aquatic invasive species are all forms of life that traditionally has not been native to Canada's waterways. In Eastern Canada, non-native plant and animal species are a concern to biologists. Bringing non-native species such as invasive fishes into Canada can damage the environment and ecosystem by repressing native species due to food competition or preying. Invasive fishes enter the fresh waters of Canada in several ways including drifting, deliberate introduction, accidental release, experimental purposes and, most commonly, through the attachment on international boat hulls. Invasive species are the second biggest threat to fish and other marine life in Canada behind loss of habitat and degradation. The threat to native species is primarily caused by impacts on the food web; however, invasive species also bring dangerous pathogens and physically interfere with existing aquatic life. Invasive species include sea lampreys, zebra mussels, smallmouth bass, European green crab, vase tunicate, and sea squirts.

<span class="mw-page-title-main">Mille Lacs Lake</span> Lake in the state of Minnesota, United States

Mille Lacs Lake is a large but shallow lake in the U.S. state of Minnesota. It is located in the counties of Mille Lacs, Aitkin, and Crow Wing, roughly 75 miles north of the Minneapolis-St. Paul metropolitan area.

<span class="mw-page-title-main">National Invasive Species Act</span>

The National Invasive Species Act (NISA) is a United States federal law intended to prevent invasive species from entering inland waters through ballast water carried by ships. NISA reauthorized and amended a previous measure, the Non-indigenous Aquatic Nuisance Prevention and Control Act of 1990 (NANPCA).

<i>Limnoperna fortunei</i> Golden mussel, medium sized, biofouler

Limnoperna fortunei, the golden mussel, is a medium-sized freshwater bivalve mollusc of the family Mytilidae. The native range of the species is China, but it has accidentally been introduced to South America and several Asian countries where it has become an invasive species. It is considered to be an ecosystem engineer because it alters the nature of the water and the bottom habitats of lakes and rivers and modifies the associated invertebrate communities. It also has strong effects on the properties of the water column, modifying nutrient proportions and concentrations, increasing water transparency, decreasing phytoplankton and zooplankton densities, on which it feeds, and enhancing the growth of aquatic macrophytes. Because mussels attach to hard substrata, including the components of industrial, water-treatment and power plants, they have become a major biofouling problem in the areas invaded.

References

  1. Rintelen, T.; Van Damme, D. (2011). "Quagga Mussel Dreissena bugensis". IUCN Red List of Threatened Species . 2011: e.T188911A8661357.
  2. MolluscaBase eds. "Dreissena bugensis (Andrusov, 1897)". MolluscaBase. Flanders Marine Institute. Retrieved 3 February 2023.
  3. "Dreissena bugensis - the Quagga Mussel". Archived from the original on 2009-06-18. Retrieved 2009-11-22.
  4. 1 2 Richerson, Myriah (January 11, 2007). "Dreissena FAQs". Florida Integrated Science Center - Gainesville. United States Geological Survey. Archived from the original on July 2, 2003. Retrieved 2008-03-25.
  5. Calcino AD, Luiz de Oliveira A, Simakov O, Schwaha T, Zieger E, Wollesen T, Wanninger A (October 2019). "The quagga mussel genome and the evolution of freshwater tolerance". DNA Research. 26 (5): 411–422. doi:10.1093/dnares/dsz019. ISSN   1756-1663. PMC   6796509 . PMID   31504356.
  6. Mikhail O. Son: Native range of the zebra mussel and quagga mussel and new data on their invasions within the Ponto-Caspian Region. In: Aquatic Invasions. Band 2, 2007, S. 174–184.
  7. Popa, Oana Paula; Popa, Luis Ovidiu (2006-02-16). "The most westward European occurrence point for Dreissena bugensis (Andrusov 1897)". Malacologica Bohemoslovaca. 5: 3–5. doi: 10.5817/MaB2006-5-3 . ISSN   1336-6939.
  8. Wasserforschungs-Institut des ETH-Bereichs (June 25, 2015). "Blinde Passagiere auf Bootstransporten". admin.ch (in German). Der Bundesrat - das Portal der Schweizer Regierung. Retrieved May 18, 2020.
  9. "Bodensee: Muschel macht Probleme". schweizerbauer.ch (in German). December 2, 2019. Retrieved December 2, 2019.
  10. "Quagga mussel: 'Dangerous' mollusc found near Heathrow Airport". BBC News. 11 October 2014. Retrieved 11 October 2014.
  11. Mainnín, Tomás O. (26 July 2021). "Invasive species flexing its 'mussels' on the Shannon". RTÉ . Retrieved 26 July 2021.
  12. Conroy, MacDara. "Warning Over Invasive Quagga Mussel in Shannon Waters". afloat.ie. Retrieved 26 July 2021.
  13. "Invasive Species Ireland". Invasive Species Ireland .
  14. "Invasive Species Alert for Quagga mussel". Biodiversity Ireland . 2021-07-14. Retrieved 2021-07-27.
  15. Li, Jiying; Ianaiev, Vadym; Huff, Audrey; Zalusky, John; Ozersky, Ted; Katsev, Sergei (2021-01-25). "Benthic invaders control the phosphorus cycle in the world's largest freshwater ecosystem". Proceedings of the National Academy of Sciences . National Academy of Sciences. 118 (6): e2008223118. doi:10.1073/pnas.2008223118. ISSN   0027-8424. PMC   8017983 . PMID   33495360.
  16. Yirka, Bob (2021-01-26). "Quagga mussel found to be primary regulator of phosphorus cycling in lower four Great Lakes". Phys.org . Retrieved 2021-01-27.
  17. Snyder et al., 1997
  18. Leontiou, Andrea (8 September 2010). "Destruction of Giant Algae Doughnut Threatens Lake Michigan". Imaginova Corporation. LiveScience . Retrieved 19 September 2010.
  19. jsonline.com: 'The lake left me. It's gone.' 13 Aug 2011
  20. "Invasive mussels causing massive ecological change in Great Lake". ScienceDaily. ScienceDaily, LLC. 17 April 2011.
  21. The Arizona Republic, Jan. 23, 2007 - Mussels invading Arizona waterways, by Shaun McKinnon
  22. Westlake Lake joins Casitas in boat ban linked to mussel Archived March 10, 2008, at the Wayback Machine .
  23. Action on mussel delayed.
  24. "Waters affected by invasive mussels". Utah Division of Wildlife Resources. May 16, 2017. Archived from the original on April 9, 2014. Retrieved May 19, 2017.
  25. Tavares, Stephanie (2009-11-09). "Popular sport fish could solve Lake Mead's clam infestation". Las Vegas Sun . Retrieved 2009-11-20.