2016
DOI: 10.1007/s10811-016-0831-6
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The yield and quality of multiple harvests of filamentous Ulva tepida

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Cited by 16 publications
(5 citation statements)
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“…prolifera using the ‘germling cluster method’; 86 U . tepida in outdoor tanks attached to ropes at 10 cm depth 89,168 or free floating attached to free‐floating ‘bioballs’; 167 Ulva spp. in large‐scale raceways using paddle‐wheels for water recirculation; 39 U .…”
Section: Green Seaweeds Cultivation Methodsmentioning
confidence: 99%
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“…prolifera using the ‘germling cluster method’; 86 U . tepida in outdoor tanks attached to ropes at 10 cm depth 89,168 or free floating attached to free‐floating ‘bioballs’; 167 Ulva spp. in large‐scale raceways using paddle‐wheels for water recirculation; 39 U .…”
Section: Green Seaweeds Cultivation Methodsmentioning
confidence: 99%
“…167 Traditionally, the grow-out phase in commercial scale aquaculture of Ulva takes place in open waters, where seeded nets are cultivated on poles fixed in shallow, calm oceanic or estuarine waters with periodical exposure to air at low tide. 88 Tank-based cultivation methods have been established or experimentally validated for several Ulva species using a variety of different methods including: U. prolifera using the 'germling cluster method'; 86 U. tepida in outdoor tanks attached to ropes at 10 cm depth 89,168 or free floating attached to free-floating 'bioballs'; 167 Ulva spp. in large-scale raceways using paddle-wheels for water recirculation; 39 U. ohnoi in free-floating in fibre-glass parabolic tanks (10,000 L) receiving nutrient-rich water from barramundi (Lates calcarifer, Bloch 1790) hatchery; 169 U. compressa using a drip-irrigation system; 170 U. rigida in concrete tanks (20,000 L) in free-floating conditions using nutrient-rich effluent from fish farm in IMTA; 40 U. lactuca free floating in tumble culture, 171 or in pilot scale photobioreactors.…”
Section: Manipulation Of Reproductive Structuresmentioning
confidence: 99%
“…The application of macroalgal fractions as functional ingredients for dietary consumption has attracted significant attention in recent years, and studies have explored novel approaches in the biorefinery of green macroalgae with the inclusion of additional proprietary steps targeted at the mineral (salt) content of green macroalgae. Macroalgal salts have been considered to be associated with a healthy balance of vital minerals required for human nutrition, particularly since they contain high proportions of potassium and magnesium, with favourable sodium to potassium ratio features that can prevent hypertension and cardiovascular disease [119,120]. The works of one particular group have highlighted the prospects of incorporating an initial fresh water washing treatment as a first step in a cascading biorefinery for natural salt fractionation, and how subsequent residues can be valorised for additional bioproduct generation that include the polysaccharide ulvan and proteins [121][122][123].…”
Section: Green Macroalgal Biorefineriesmentioning
confidence: 99%
“…The plants were harvested after 14 days, leaving 1cm lengths for the next growth cycle. The specific growth rate decreased from the 2nd (15.6 ± 4.2 % day -1 ) cycle to the 3rd (10.4 ± 8.0 % day -1 ) cycle; and two harvest was recommended (Carl et al, 2016).…”
Section: Seaweed Productivitiesmentioning
confidence: 99%