Effects of biofloc effluent in different regimes as a fertilizer for Kappaphycus alvarezii: indoor maintenance and sea cultivation

This work aimed to establish the nutrient fertilization regime for indoor maintenance of Kappaphycus alvarezii seedlings during periods of low sea temperatures using biofloc effluent as a fertilizer. Moreover, we evaluated the development of seaweed seedlings after transplantation into the sea culti...

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Veröffentlicht in:Journal of applied phycology 2021-10, Vol.33 (5), p.3225-3237
Hauptverfasser: De Martino, Rodrigo, Mariot, Luiza Vieira, da Silva, Fernando Zwierzikowski, Simioni, Carmen, do Amaral Carneiro, Marcella Araújo, Oliveira, Eva Regina, Maraschin, Marcelo, dos Santos, Alex Alves, Hayashi, Leila
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container_end_page 3237
container_issue 5
container_start_page 3225
container_title Journal of applied phycology
container_volume 33
creator De Martino, Rodrigo
Mariot, Luiza Vieira
da Silva, Fernando Zwierzikowski
Simioni, Carmen
do Amaral Carneiro, Marcella Araújo
Oliveira, Eva Regina
Maraschin, Marcelo
dos Santos, Alex Alves
Hayashi, Leila
description This work aimed to establish the nutrient fertilization regime for indoor maintenance of Kappaphycus alvarezii seedlings during periods of low sea temperatures using biofloc effluent as a fertilizer. Moreover, we evaluated the development of seaweed seedlings after transplantation into the sea cultivation in Santa Catarina, Brazil. Seedlings were fertilized with biofloc effluent diluted by 25% in three different nutrient fertilization regimes for 4 weeks: single fertilization (SF): seedlings were fertilized for 1 week and remained in seawater for the following 3 weeks; alternating fertilization (AF): alternated 1 week with nutrient fertilization and 1 week without, and continuous fertilization (CF): seedlings were cultivated continuously with biofloc effluent. After this period, samples of each treatment were transferred into the sea cultivation and kept for 5 more weeks. The daily growth rates of plants cultivated in SF and AF were significantly higher than CF in indoor maintenance. However, in sea cultivation, the daily growth rates from AF and CF were significantly higher than SF. In both cases, there were no differences in the carrageenan yield between treatments. Light microscopy and quantification of floridean starch and pigments showed that after the sea cultivation period, floridean starch presence changed from cortical to medullar cells depending on the treatment, but no significant difference in the quantity was observed. Also, seedlings of SF treatment showed a significantly higher phycocyanin content compared to CF treatment. Based on the results, we suggest the continuous fertilization for indoor maintenance in tanks of seaweed seedlings with biofloc effluent.
doi_str_mv 10.1007/s10811-021-02539-4
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Light microscopy and quantification of floridean starch and pigments showed that after the sea cultivation period, floridean starch presence changed from cortical to medullar cells depending on the treatment, but no significant difference in the quantity was observed. Also, seedlings of SF treatment showed a significantly higher phycocyanin content compared to CF treatment. 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Light microscopy and quantification of floridean starch and pigments showed that after the sea cultivation period, floridean starch presence changed from cortical to medullar cells depending on the treatment, but no significant difference in the quantity was observed. Also, seedlings of SF treatment showed a significantly higher phycocyanin content compared to CF treatment. 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Light microscopy and quantification of floridean starch and pigments showed that after the sea cultivation period, floridean starch presence changed from cortical to medullar cells depending on the treatment, but no significant difference in the quantity was observed. Also, seedlings of SF treatment showed a significantly higher phycocyanin content compared to CF treatment. Based on the results, we suggest the continuous fertilization for indoor maintenance in tanks of seaweed seedlings with biofloc effluent.</abstract><cop>Dordrecht</cop><pub>Springer Netherlands</pub><doi>10.1007/s10811-021-02539-4</doi><tpages>13</tpages></addata></record>
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subjects Algae
Biofloc technology
Biological fertilization
Biomedical and Life Sciences
Carrageenan
Chemical analysis
Cultivation
Ecology
Effluents
Fertilization
Fertilizers
Freshwater & Marine Ecology
Growth rate
Indoor environments
Kappaphycus alvarezii
Life Sciences
Light microscopy
Low temperature
Maintenance
Mineral nutrients
Nutrients
Optical microscopy
Phycocyanin
Pigments
Plant Physiology
Plant Sciences
Seawater
Seaweeds
Seedlings
Starch
Tanks
Transplantation
Water analysis
title Effects of biofloc effluent in different regimes as a fertilizer for Kappaphycus alvarezii: indoor maintenance and sea cultivation
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