Suberites domuncula

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Suberites domuncula
Suberites domuncula.jpg
Scientific classification Red Pencil Icon.png
Kingdom: Animalia
Phylum: Porifera
Class: Demospongiae
Order: Suberitida
Family: Suberitidae
Genus: Suberites
Species:
S. domuncula
Binomial name
Suberites domuncula
(Olivi, 1792)
Synonyms
List
  • Alcyonium bulbosumEsper, 1794
  • Alcyonium compactumLamarck, 1815
  • Alcyonium domunculaOlivi, 1792
  • Litamena spugnosaRenier, 1828
  • Suberites compactusBalsamo Crivelli, 1863

Suberites domuncula is a species of sea sponge belonging to the family Suberitidae. [1]

Contents

This species contains suberitine, a neurotoxin that can cause fatal hemolytic hemorrhaging in various animals. While it is highly toxic to fish, it is known to be preyed upon by the hawksbill turtle, Eretmochelys imbricata . [2]

There are currently two accepted subspecies of this taxon: Suberites domuncula domuncula and S. domuncula latus. In 1893, Lambe described a new sponge species as Suberites latus. This was later determined to be a junior synonym of S. domuncula and merged into the species as a subspecies under the scientific name S. domuncula latus. [1] [3] [4] [5]

S. domuncula is well known for colonizing gastropod shells occupied by hermit crabs. At least 13 species of hermit crabs have been found associated with this sponge. It has also been recorded attached to the shells of live gastropods and the carapace of other crustaceans. [6]

Anatomy and Physiology

The body plan of this species consists of a skeleton mainly made up of spicules. [7] Monactinal tylosyles and a small fraction of diactinal oxeas make up the megascleres found in the skeleton of S. domunucula. [7] Suberites domuncula contain a visible osculum where water exits the body.

Spicule Formation

The spicules are made up of silicatein. [7] Silicatein is an enzyme that catalyzes polymerized silicon. [8] Suberites domuncula also use the enzyme silicase to metabolize siliceous spicules. [7] Spicules of the S. domuncula species can grow to 450 𝜇m in length and 5-7 𝜇m in diameter. [7] The spicules grow through apposition of lamellar silica layers. [7] An axial canal of 0.3-1.6 𝜇m width can be found in all spicules, while lamellated layers of 0.3-1 𝜇m thickness enclose the central canal. [7] Silicatein can be found on the surface of the spicules and in the axial filament of the spicules. [7]

In Demospongiae, microfibrils make up a collagenous ‘cement’ that holds the spicules together. [7]

Ecology

Sponges are found in a variety of different marine benthic environments due to its early existence in evolution. [9] It is commonly found in sandy and muddy habitats. [8]

Many species of hermit crabs can be found within the Suberites domuncula sponge in the Mediterranean Sea. [10] S. domuncula tend to grow on/within gastropod shells. [11] When hermit crabs find a habitat within this sponge, if unfavorable conditions are encountered the sponge will then form gemmules on the outside of the shell. [8]

Sponges are known to hold mutualistic bacteria in their mesohyl. [12] S. domuncula produce a bacterial quorum sensing molecule, N-3-oxo-dodecanoyl-L-homoserine lactone, that limits the host immune and apoptotic responses. [12] This leads to an increase in phagocytosis-related genes. [12] S. domuncula have the ability to differentiate a symbiotic bacterium from others. [12]

Feeding

These sponges act as filter-feeders, driving a large amount of water through a highly vascularized canal system. [9] Bacteria taken from the water column are phagocytized in order to retrieve nutrients. [9]

Lifestyle

Suberites domuncula experience a typical life style of the class Demospongiae. [11] This species is made up of archeocytes and choanocytes, which act as the stem cells to the sponge. [11]

Reproduction

Suberites domuncula are able to reproduce both sexually and asexually. [11] They reproduce asexually through gemmules made up of archeocytes that are enclosed by a collagenous coat. [11] Gemmules still survive upon the death of the sponge, persisting in harsh conditions for prolonged periods of time. [11] Gemmules hatch once conditions are right and develop into juvenile sponges over the course of a few weeks. [11] Sexual reproduction involves the release of free-swimming larvae which then develop into juvenile sponge. [11]

Development

Suberites domuncula have a Brachyury gene that is associated with the formation of the limbs. [7] This gene has an increased expression when canal-like structures are being formed in the sponge. [7] The formation of a primordial axis is genetically fixed in sponges. [7]

This species also inhabits Wnt signaling, which is responsible for cell communication, specifically cell-fate decisions, tissue polarity, and morphogenesis. [7] S. domuncula also holds the scaffold protein membrane-associated guanylate kinase which encodes a tight junction scaffold protein. [7] A tetraspan receptor can also be found in S. domuncula. [7]

Distinguishing features

Primmorphs

Dissociated single cells from Suberites domuncula form multicellular aggregates, known as primmorphs. [11] These primmorphs are organized into a unicellular epithelium-like layer consisting of pinacocytes and spherulous cells. [11]

In the Suberites domuncula species, primmorphs exhibit rapid spicule formation. [7] Spicules initially form intracellularly in the sclerocytes. [7]

Primmorphs present regenerative abilities through the activity of proliferating cells. [13]

Sponges are shown to express a myotrophin-related molecule that aligns with the vertebrate cardiac mytotropin. [14]

Defense Mechanisms

Suberites domuncula exhibits strong antimicrobial activity. [9] These sea sponges have the ability to produce suberitine, a neurotoxin that results in hemolytic and toxic abilities. [9] Sponges are found to interact with bacteria on a normal basis. [9] The bacteria found on sponges is responsible for the production of antibacterial metabolites. [9]

These sponges maintain a direct defense strategy through the production of antibacterial compounds that prevent epibiosis. [9]

Indirect defense is achieved through the maintenance of antimicrobially active bacteria on the surface. [9]

Suberites domuncula have the ability to produce a perforin-like antibacterial protein. [9]

Related Research Articles

Sponge Animals of the phylum Porifera

Sponges, the members of the phylum Porifera, are a basal animal clade as a sister of the Diploblasts. They are multicellular organisms that have bodies full of pores and channels allowing water to circulate through them, consisting of jelly-like mesohyl sandwiched between two thin layers of cells.

Hermit crab Super family of crustaceans (Paguroidea)

Hermit crabs are anomuran decapod crustaceans of the superfamily Paguroidea that have adapted to occupy empty scavenged mollusc shells to protect their fragile exoskeletons. There are over 800 species of hermit crab, most of which possess an asymmetric abdomen concealed by a snug-fitting shell. Hermit crabs' non-calcified abdominal exoskeleton makes their exogenous shelter system obligatory. Hermit crabs must occupy shelter produced by other organisms, or risk being defenseless.

Planctomycetota Phylum of aquatic bacteria

The Planctomycetota are a phylum of widely distributed bacteria, occurring in both aquatic and terrestrial habitats. They play a considerable role in global carbon and nitrogen cycles, with many species of this phylum capable of anaerobic ammonium oxidation, also known as anammox. Many Planctomycetota occur in relatively high abundance as biofilms, often associating with other organisms such as macroalgae and marine sponges.

Demosponge Class of sponges

Demosponges (Demospongiae) are the most diverse class in the phylum Porifera. They include 76.2% of all species of sponges with nearly 8,800 species worldwide. They are sponges with a soft body that covers a hard, often massive skeleton made of calcium carbonate, either aragonite or calcite. They are predominantly leuconoid in structure. Their "skeletons" are made of spicules consisting of fibers of the protein spongin, the mineral silica, or both. Where spicules of silica are present, they have a different shape from those in the otherwise similar glass sponges. Some species, in particular from the Antarctic, obtain the silica for spicule building from the ingestion of siliceous diatoms.

Spongivore

A spongivore is an animal anatomically and physiologically adapted to eating animals of the phylum Porifera, commonly called sea sponges, for the main component of its diet. As a result of their diet, spongivore animals like the hawksbill turtle have developed sharp, narrow bird-like beak that allows them to reach within crevices on the reef to obtain sponges.

<i>Anheteromeyenia argyrosperma</i> Species of sponge

Anheteromeyenia argyrosperma is a freshwater sponge found across North America.

<i>Clathrina coriacea</i> Species of sponge

Clathrina coriacea is a species of calcareous sponge belonging to the class Calcarea and family Clathrinidae. Species in the genus Clathrina are composed of calcium carbonate tube-like skeletons containing spicules. The sponge can be located in shallow waters widely distributed along North Atlantic coasts, as well as on other coasts.

Sponge spicule Structural element of sea sponges

Spicules are structural elements found in most sponges. Sponge spicules are made of calcium carbonate or silica. Large spicules visible to the naked eye are referred to as megascleres, while smaller, microscopic ones are termed microscleres. The meshing of many spicules serves as the sponge's skeleton and thus it provides structural support and potentially defense against predators. The composition, size, and shape of spicules are major characters in sponge systematics and taxonomy.

<i>Suberites</i> Genus of sponges

Suberites is a genus of sea sponges in the family Suberitidae. Sponges, known scientifically as Porifera, are the oldest metazoans and are used to elucidate the basics of multicellular evolution. These living fossils are ideal for studying the principal features of metazoans, such as extracellular matrix interactions, signal-receptor systems, nervous or sensory systems, and primitive immune systems. Thus, sponges are useful tools with which to study early animal evolution. They appeared approximately 580 million years ago.

Monorhaphis is a monotypic genus of siliceous deep sea Hexactinellid sponges. The single species is the type species Monorhaphis chuni, a sponge known for creating a single giant basal spicule (G.B.S.) to anchor the sponge in the sediments. The species was described by Franz Eilhard Schulze in 1904 from specimens collected by the German Deep Sea Expedition in 1898-1899. Monorhaphis is also the only genus in the monotypic family Monorhaphididae.

Pseudospongosorites is a genus of sea sponges belonging to the family Suberitidae. Currently, the genus is considered as monotypic, consisting of a single species Pseudospongosorites suberitoides. It is found in the Caribbean Sea, the Gulf of Mexico and on the Atlantic coast of the United States as far north as North Carolina. This species is known by the common name Florida hermit crab sponge, so named because hermit crabs often use it as shelter.

<i>Spongilla lacustris</i> Species of sponge

Spongilla lacustris is a species of freshwater sponge from the family Spongillidae. It inhabits freshwater rivers and lakes, often growing under logs or rocks. Lacustris is a Latin word meaning "related to or associated with lakes". The species ranges from North America to Europe and Asia. It is the most common freshwater sponge in central Europe. It is the most widespread sponge in Northern Britain, and is one of the most common species of sponges in lakes and canals. Spongilla lacustris have the ability to reproduce both sexually and asexually. They become dormant during winter. The growth form ranges from encrusting, to digitate, to branched, depending upon the quality of the habitat.

Suberites ficus is a species of sponge in the family Suberitidae. It is sometimes known as the sea orange sponge.

<i>Paguristes eremita</i> Species of crustacean

Paguristes eremita, the eye spot hermit crab, is a species of hermit crab in the family Diogenidae. It is found in the Mediterranean Sea.

<i>Geodia megastrella</i> Species of sponge

Geodia megastrella is a species of sponge in the family Geodiidae. It is a type of demosponge found in the deep temperate waters of the North Atlantic Ocean. It has characteristic stellar-shaped large spicules coined 'megastrellum', hence its name. The species was first described by Henry John Carter in 1876, after dredging it up aboard H.M.S. 'Porcupine', near the Cape St. Vincent in Portugal.

<i>Pagurus dalli</i> Species of crustacean

Pagurus dalli, commonly known as the whiteknee hermit, is a species of hermit crab in the family Paguridae. It is found in the northeastern Pacific Ocean at depths down to about 276 m (900 ft). It usually lives in a mutualistic symbiosis with a sponge, or sometimes a hydroid.

Silicatein

Silicateins are enzymes which catalyse the formation of biosilica from monomeric silicon compounds extracted from the natural environment. Environmental silicates are absorbed by specific biota, including diatoms, radiolaria, silicoflagellates, and siliceous sponges; silicateins have so far only been found in sponges. Silicateins are homologous to the cysteine protease cathepsin.

Dysidea etheria, commonly known as the ethereal sponge or heavenly sponge, is a species of lobate sponge within the class Demospongiae. This marine sponge is known for its light blue color and can be found in the Caribbean as well as off the coasts of Florida and Georgia. Like all other poriferans, D. etheria is capable of both sexual and asexual reproduction. The use of spicule collection as well as chemical defenses allows D. etheria to protect itself against predators such as the zebra doris and the orange knobby star. D. etheria is also known as a host species of the invasive brittle star Ophiothela mirabilis. Lastly, various molecular biology studies have utilized D. etheria to both study foreign particle transport in sponges and to isolate novel molecules.

<i>Pseudoceratina</i> Genus of sponges

Pseudoceratina is a genus of sponge within the family Pseudoceratinidae. They are characterized by possession of a dendritic fiber skeleton lacking laminar bark but containing pith. They have been found in a variety of habitats including the Great Barrier reef, the Red Sea, and Jamaica. Sponges of this genus have a microbiome known to produce a variety of chemicals that are used in pharmaceutical and anti-fouling activities. Notably, a species in this genus produces a chemical that is effective in inhibiting the migration of metastatic breast cancer cells.

References

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  2. Meylan, Anne (1988-01-12). "Spongivory in Hawksbill Turtles: A Diet of Glass". Science. American Association for the Advancement of Science. 239 (4838): 393–395. doi:10.1126/science.239.4838.393. JSTOR   1700236. PMID   17836872. S2CID   22971831.
  3. "Suberites latus". Integrated Taxonomic Information System . Retrieved 25 August 2007.
  4. "Suberites domuncula domuncula". Integrated Taxonomic Information System . Retrieved 25 August 2007.
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  6. Jason D. Williams; John J. McDermott (2004). "Hermit crab biocoenoses: a worldwide review of the biodiversity and natural history of hermit crab associates" (PDF). Journal of Experimental Marine Biology and Ecology. 305: 1–128. doi:10.1016/j.jembe.2004.02.020.
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  10. Caruso, Tancredi; Falciai, Lucia; Zupo, Valerio (2005-11-09). "Do hermit crabs like living in sponges? Paguristes eremita and Suberites domuncula: biometric data from the southern Mediterranean Sea". Journal of the Marine Biological Association of the United Kingdom. 85 (6): 1353–1357. doi:10.1017/s002531540501252x. ISSN   0025-3154. S2CID   83795934.
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