Results 21 to 30 of about 3,334 (225)

A Review of Factors Influencing the Seagrass-Sea Cucumber Association in Tropical Seagrass Meadows

open access: yesFrontiers in Marine Science, 2021
In the tropical ecosystem, sea cucumbers are associated with seagrass meadows in various ways, often forming a network of ecological interactions. From this myriad of interactions, the trophic relationship between the seagrasses and sea cucumbers has ...
Adonis S. Floren   +5 more
doaj   +1 more source

Short-Term Response of Cytosolic NO3− to Inorganic Carbon Increase in Posidonia oceanica Leaf Cells

open access: yesFrontiers in Plant Science, 2020
The concentration of CO2 in the atmosphere has increased over the past 200 years and is expected to continue rising in the next 50 years at a rate of 3 ppm·year−1.
Lourdes Rubio   +3 more
doaj   +1 more source

The movement ecology of seagrasses [PDF]

open access: yesProceedings of the Royal Society B: Biological Sciences, 2014
A movement ecology framework is applied to enhance our understanding of the causes, mechanisms and consequences of movement in seagrasses: marine, clonal, flowering plants. Four life-history stages of seagrasses can move: pollen, sexual propagules, vegetative fragments and the spread of individuals through clonal growth.
McMahon, Kathryn   +10 more
openaire   +4 more sources

Molluscs from Tidal Channels of the Gulf of Gabès (Tunisia): Quantitative Data and Comparison with Other Lagoons and Coastal Waters of the Mediterranean Sea

open access: yesJournal of Marine Science and Engineering, 2023
The present study analyses the spatio-temporal structuration of the molluscan fauna from four tidal channels of the Gulf of Gabès. A total of 26 stations were sampled at four seasons from March 2016 to January 2017, leading to the identification of 2695 ...
Abir Fersi   +4 more
doaj   +1 more source

Clonality in seagrasses, emergent properties and seagrass landscapes [PDF]

open access: yesMarine Ecology Progress Series, 2005
Seagrasses are clonal monocots that dominate shallow subtidal coastal and estuarine environments worldwide. They are important for their relatively high productivity and their role in coastal sediment stabilization, as habitat and food for invertebrates, fishes, turtles, dugongs and manatees, and as a source for detrital food webs.
Kendrick, Gary A.   +2 more
openaire   +2 more sources

Low Long Terminal Repeat (LTR)-Retrotransposon Expression in Leaves of the Marine Phanerogam Posidonia Oceanica L.

open access: yesLife, 2020
Seagrasses as Posidonia oceanica reproduce mostly by vegetative propagation, which can reduce genetic variability within populations. Since, in clonally propagated species, insurgence of genetic variability can be determined by the activity of ...
Alberto Vangelisti   +5 more
doaj   +1 more source

What is blue carbon?

open access: yesEDIS
Vegetated coastal ecosystems, including mangroves, salt marshes, and seagrasses, store large amounts of carbon in plant biomass and underlying sediments, known as blue carbon. There is increasing interest among policymakers and natural resource managers
Alexandra L. Bijak   +3 more
doaj   +1 more source

The perilous state of seagrass in the British Isles [PDF]

open access: yesRoyal Society Open Science, 2016
Seagrass ecosystems face widespread threat from reduced water quality, coastal development and poor land use. In recent decades, their distribution has declined rapidly, and in the British Isles, this loss is thought to have been extensive.
Benjamin L. Jones   +1 more
doaj   +1 more source

Stress Memory in Seagrasses: First Insight Into the Effects of Thermal Priming and the Role of Epigenetic Modifications

open access: yesFrontiers in Plant Science, 2020
While thermal priming and the relative role of epigenetic modifications have been widely studied in terrestrial plants, their roles remain unexplored in seagrasses so far.
Hung Manh Nguyen   +6 more
doaj   +1 more source

Non‐seagrass carbon contributions to seagrass sediment blue carbon [PDF]

open access: yesLimnology and Oceanography, 2017
AbstractNon‐seagrass sources account for ∼ 50% of the sediment organic carbon (SOC) in many seagrass beds, a fraction that may derive from external organic matter (OM) advected into the meadow and trapped by the seagrass canopy or produced in situ. If allochthonous carbon fluxes are responsible for the non‐seagrass SOC in a given seagrass bed, this ...
Matthew P. J. Oreska   +4 more
openaire   +1 more source

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