According to De Hoyos, «this shows the importance of other factors, such as the water renewal rate, in
cyanobacteria growth.»
The researchers carried out lab experiments seeking a link between high concentrations of iron and low
cyanobacteria growth.
Not exact matches
Algae and
cyanobacteria are complicated critters: although they can grow in open ponds, unwanted microbial strains can easily contaminate the water and interfere with the
growth of the fuel - making strains.
That is partly explained by the
cyanobacteria, which convert atmospheric nitrogen to the nitrate building blocks essential for plant
growth and the overall food chain.
And the cycle of wet and dry phases fosters the
growth of nitrogen - fixing
cyanobacteria in the terraces, providing the plants with a naturally occurring source of usable nitrogen.
By spreading the
cyanobacteria on membranes, «you get a lot of surface area for
growth, but you don't need a lot of water,» Bayless explains.
Elevated CO2 enhances nitrogen fixation and
growth in the marine
cyanobacterium Trichodesmium.
And if the
cyanobacteria are growing in water short on iron, an essential nutrient for them, the slowdown in nitrogen fixation can overwhelm any positive
growth effects from extra CO2.
Water is a major concern, as is the use of nitrogen fertilizers to stimulate
growth of
cyanobacteria and microalgae — two microorganisms typically lumped together as algae biofuels.
An international research team has analysed the relationship between the amount of phosphorus recorded in 1,500 European lakes and reservoirs, and the
growth of
cyanobacteria, a toxin - producing microorganism.
Cyanobacteria, also known as blue - green algae, follow a similar pattern, engaging in photosynthesis and
growth during day and «rest» and energy conservation at night.
Cyanobacteria are found in nearly every habitat and can flourish in a wide variety of conditions, a trait that has been harnessed by Joule and enables them to use brackish or salt water as a
growth medium.
catalyzed by the
growth and physiology of
cyanobacteria in the Genus Synechococcus represents a potential mechanism for sequestration of atmospheric CO2 produced during the burning of coal for power generation.
Precipitation of CaCO3more» catalyzed by the
growth and physiology of
cyanobacteria in the Genus Synechococcus represents a potential mechanism for sequestration of atmospheric CO2 produced during the burning of coal for power generation.