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A new approach to the restoration of seaweed beds usingSargassum fulvellum

Authors
Jung, Sang MokLee, Ji HyunHan, Seung HeeJeon, Won BinKim, Ga YeonKim, SinyangKim, SeongjuLee, Hwa-RimHwang, Dong SooJung, SungjuneLee, JongdaeShin, Hyun Woung
Issue Date
Aug-2020
Publisher
Kluwer Academic Publishers
Keywords
Encapsulated zygote; Sargassum fulvellum; Phaeophyceae; Urchin barren; Macroalgae; Artificial reef
Citation
Journal of Applied Phycology, v.32, no.4, pp 2575 - 2581
Pages
7
Journal Title
Journal of Applied Phycology
Volume
32
Number
4
Start Page
2575
End Page
2581
URI
https://scholarworks.bwise.kr/sch/handle/2021.sw.sch/2583
DOI
10.1007/s10811-020-02054-y
ISSN
0921-8971
1573-5176
Abstract
Seaweed beds are productive marine ecosystems; they provide habitat and serve as spawning, breeding, and feeding sites for fish and shellfish. Seaweed beds are declining with environmental change and pollution. In affected areas, including "urchin barrens" and those affected by "whitening events," coralline algae appear, preventing the attachment of seaweed spores to the substrate. Many methods have been used to restore seaweed beds, such as those employing artificial reefs, seaweed ropes, spore bags, and transplanted cultures. However, such efforts are insufficient to overcome the disappearance of seaweed beds from coastal areas. This study examined the use of a new technique that involves encapsulating seaweed zygotes with polysaccharide-like alginates to improve their attachment using the brown algaSargassum fulvellum, which plays an important role in seaweed forests. We tested the efficacy of encapsulated zygotes using polyvinyl chloride (PVC) panels and concrete bricks in the sea. In the laboratory, the germination percentage of encapsulatedSargassumzygotes was 70% +/- 1.6%, similar to the rate of unencapsulated zygotes. In the field experiment, PVC panels and concrete bricks were coated with encapsulated and unencapsulated zygotes; the germination density and growth rates of encapsulated zygotes were 4 (p < 0.001) and 7 times (p < 0.016) greater, respectively, than those of unencapsulated zygotes. The germination density and growth rate of encapsulated zygotes on concrete bricks were also greater. Therefore, encapsulation should increase the attachment of seaweed spores in marine environments.
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