World Database of Nematodes

Linked to the Marine Biology Section, UGent

Nemys source details

Ingels, J., K. Kiriakoulakis, G.A. Wolff & A. Vanreusel. (2009). Nematode diversity and its relation to the quantity and quality of sedimentary organic matter in the deep Nazaré Canyon, Western Iberian Margin. Deep Sea Research Part I: Oceanographic Research Papers. 56(9): 1521-1539.
10.1016/j.dsr.2009.04.010 [view]
Ingels, J., K. Kiriakoulakis, G.A. Wolff & A. Vanreusel
Nematode diversity and its relation to the quantity and quality of sedimentary organic matter in the deep Nazaré Canyon, Western Iberian Margin
Deep Sea Research Part I: Oceanographic Research Papers
56(9): 1521-1539
NeMys doc_id: 17988
Samples collected in the deep Nazaré Canyon and at the adjacent slope, during the HERMES RRS Discovery D297 cruise(2005),were analysed for metazoan meiofauna, nematode structure and diversity and its relation to quality and quantity of sedimentary organic material. The amount and quality of organic matter available for direct consumption was much higher in the canyon compared to the slope and positively correlated with high nematode abundances (795–1171 ind.10cm?2) and biomass (93.2–343.5 mg dry weight 10cm?2), thus leading to higher standing stocks. Canyon nematode assemblages also showed particular adaptations (e.g.higher trophic complexity, variability of nematodemorphology, and presence of opportunistic genera) to canyon conditions, particularly in the deeper sediment layers.The Nazaré Canyon’s nematode diversity was slightly lower than that of the adjacent slope and its assemblages were characterised by a higher dominance of certain genera.Still,the canyon contributes considerably to total Western Iberian Margin diversity due to different assemblages present compared to the slope. Furthermore,the harsh conditions in terms of hydrodynamic disturbance and the high organic matter flux are likely to have a negative impact on the establishment of species rich meiobenthic communities, especially in the canyon axis.
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2014-06-18 16:05:08Z
2021-09-02 16:39:33Z

Acantholaimus Allgén, 1933 (ecology source)
Actinonema Cobb, 1920 (ecology source)
Aegialoalaimus de Man, 1907 (ecology source)
Amphimonhystrella Timm, 1961 (ecology source)
Axonolaimus de Man, 1889 (ecology source)
Campylaimus Cobb, 1920 (ecology source)
Cervonema Wieser, 1954 (ecology source)
Daptonema Cobb, 1920 (ecology source)
Desmoscolex Claparède, 1863 (ecology source)
Dichromadora Kreis, 1929 (ecology source)
Diplopeltula Gerlach, 1950 (ecology source)
Disconema Filipjev, 1918 (ecology source)
Eleutherolaimus Filipjev, 1922 (ecology source)
Elzalia Gerlach, 1957 (ecology source)
Greeffiella Cobb, 1922 (ecology source)
Halalaimus de Man, 1888 (ecology source)
Halichoanolaimus de Man, 1886 (ecology source)
Leptolaimus de Man, 1876 (ecology source)
Manganonema Bussau, 1993 (ecology source)
Marilynia Hopper, 1972 accepted as Marylynnia (Hopper, 1972) Hopper, 1977 (ecology source)
Metasphaerolaimus Gourbault & Boucher, 1981 (ecology source)
Microlaimus de Man, 1880 (ecology source)
Molgolaimus Ditlevsen, 1921 (ecology source)
Nannolaimus Cobb, 1920 (ecology source)
Paralongicyatholaimus Schuurmans Stekhoven, 1950 (ecology source)
Parasphaerolaimus Ditlevsen, 1918 (ecology source)
Parastomonema Kito, 1989 (ecology source)
Pomponema Cobb, 1917 (ecology source)
Retrotheristus Lorenzen, 1977 (ecology source)
Sabatieria de Rouville, 1903 (ecology source)
Southerniella Allgén, 1932 (ecology source)
Sphaerolaimus Bastian, 1865 (ecology source)
Syringolaimus de Man, 1888 (ecology source)
Thalassomonhystera Jacobs, 1987 (ecology source)
Theristus Bastian, 1865 (ecology source)
Tricoma Cobb, 1894 (ecology source)

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