Survival and growth of transplants of laboratory raised axenic seedlings of Enhalus acoroides (L.f.) Royle and field-collected plants of Syringodium isoetifolium (Aschers.) Dandy, Thalassia hemprichii (Ehrenb.) Aschers. and Halodule pinifolia (Miki) den Hartog

Thangaradjou, T.; Kannan, L.

doi:10.1007/s11852-008-0036-5

Cited by 12 publications

(3 citation statements)

References 30 publications

Supporting

Mentioning

Contrasting

Order By: Relevance

“…The difference in values between the natural vegetation plot and other methods is due to the fact that the seagrass in the natural vegetation plot does not need to adapt to environmental changes (substrate and water parameters), while the seagrass transplanted using the seedling method does (lowest growth rate values). This is consistent with Thangaradjou and Kannan (2008), who claimed that seagrass requires an adaptation period to its new habitat before growing normally in the early weeks. Hasanah (2014) also stated that old leaves grow slower than young leaves, which means that the seedling method had the lowest growth rate value, however, it had good growth.…”

Section: Growth Rate Of Enhalus Acoroidessupporting

confidence: 91%

“…Seagrass seedlings sown in the laboratory have thinner and smaller leaves than natural seagrass seedlings, owing to the natural sea providing nutrients compared to artificially produced seedling containers. The survival rate of seagrass E. acoroides in the seedling method was quite good in comparison to the research by Thangaradjou and Kannan (2008), which found that the same method achieved a survival rate of 29% in the seagrass species Ruppia maritime, and was not significantly different with the same method done by Hasanah (2014) at Baranglompo Island, i.e., 94%.…”

Section: Figure 6 Average Growth Rate (+Sd) Of Seagrass E Acoroidesmentioning

confidence: 46%

See 1 more Smart Citation

Seagrass (<I>Enhalus acoroides</I>) Restoration Performance with Two Different Methods (Anchor and Seed) in Panjang Island, Jepara, Indonesia

Wismar

Ambariyanto²,

Widianingsih³

2023

JIPK

View full text Add to dashboard Cite

Highlight Research Seeds can grow into seagrass seedlings for an optimal period of five weeks Seed sowing can be optimized by supplementing nutrients with fertilizers The seedling transplant method, which utilizes seed seedlings, is not significantly different in daily growth from the anchor transplant method, which utilizes donors/seeds transport The biomass content of seagrass leaves can be used to determine the growth rate of the leaves Abstract Globally, the area of seagrass beds important to the ecosystems in coastal environment is decreasing due to environmental pressures, both natural and artificial. Transplantation is one way to restore the condition of damaged seagrass beds, the anchor transplant method uses the transfer of donor seagrass to the transplant area, while the seed transplant method uses seed sowed from seagrass. This study aimed to investigate the survival and growth rates of seagrass transplants and the biomass and chlorophyll content of transplanted Enhalus acoroides in the waters of Panjang Island Jepara utilizing anchor and seedling methods. The research was conducted in the waters around Panjang Island, Jepara, between September and December 2021. The results indicated that transplantation of seagrass E. acoroides using the anchor method resulted in the highest average growth rate of 0.25 cm/day and a survival rate of 96.67%, while transplantation using the seedling method resulted in a growth rate of 0.18 cm/day and a survival rate of 83.33%. The results showed that the anchor method scored better than the seedling transplantation method in terms of growth rate and survival rate. However, seedling is a feasible method to meet the availability of seeds that will later be transplanted, considering that the anchor method still has shortcomings in terms of the availability of seeds and the use of pegs which are still not environmentally friendly. so that the seedling method can be recommended for the restoration process of seagrass ecosystems by taking into account the season, weather and other important indices.

show abstract

Section: Growth Rate Of Enhalus Acoroidessupporting

confidence: 91%

Section: Figure 6 Average Growth Rate (+Sd) Of Seagrass E Acoroidesmentioning

confidence: 46%

Seagrass (<I>Enhalus acoroides</I>) Restoration Performance with Two Different Methods (Anchor and Seed) in Panjang Island, Jepara, Indonesia

Wismar

Ambariyanto²,

Widianingsih³

2023

JIPK

View full text Add to dashboard Cite

show abstract

“…Available literature has brought that 14% of seagrasses are at an elevated risk of extinction under IUCN red list of threatened species [86]. Though numerous studies have been addressed the in-vitro culture of seagrass [38,[87][88][89][90][91][92][93], no report exist on the metabolomics analysis from suspension cultured cells of seagrass. In-vitro propagation techniques of different seagrass species for restoration and protocol for seagrass protoplast isolation are prevailing [94][95][96][97][98].…”

Section: Seagrass Cell Suspension Culturementioning

confidence: 99%

Seagrass Metabolomics: A New Insight towards Marine Based Drug Discovery

Danaraj¹,

Saravanakumar²,

Mariasingarayan³

2021

Metabolomics - Methodology and Applications in Medical Sciences and Life Sciences

View full text Add to dashboard Cite

Metabolomics is one of the new field of “Omics” approach and the youngest triad of system biology, which provides a broad prospective of how metabolic networks are controlled and indeed emerged as a complementary tool to functional genomics with well-established technologies for genomics, transcriptomics and proteomics. Though, metabolite profiling has been carried out for decades, owing to decisive mechanism of a molecule regulation, the importance of some metabolites in human regimen and their use as diagnostic markers is now being recognized. Plant metabolomics therefore aims to highlight the characterization of metabolite pool of a plant tissue in response to its environment. Seagrassses, a paraphyletic group of marine hydrophilous angiosperms which evolved three to four times from land plants back to the sea. Seagrasses share a number of analogous acquired metabolic adaptations owing to their convergent evolution, but their secondary metabolism varied among the four families that can be considered as true seagrasses. From a chemotaxonomic point of view, numerous specialized metabolites have often been studied in seagrasses. Hence, this chapter focus the metabolome of seagrasses in order to explore their bioactive properties and the recent advancements adopted in analytical technology platforms to study the non-targeted metabolomics of seagrasses using OMICS approach.

show abstract

Conservation and Restoration-Large Scale Regeneration Plans

Rossi¹

2022

SDG 14: Life Below Water

View full text Add to dashboard Cite

Survival and growth of transplants of laboratory raised axenic seedlings of Enhalus acoroides (L.f.) Royle and field-collected plants of Syringodium isoetifolium (Aschers.) Dandy, Thalassia hemprichii (Ehrenb.) Aschers. and Halodule pinifolia (Miki) den Hartog

Cited by 12 publications

References 30 publications

Seagrass (<I>Enhalus acoroides</I>) Restoration Performance with Two Different Methods (Anchor and Seed) in Panjang Island, Jepara, Indonesia

Seagrass (<I>Enhalus acoroides</I>) Restoration Performance with Two Different Methods (Anchor and Seed) in Panjang Island, Jepara, Indonesia

Seagrass Metabolomics: A New Insight towards Marine Based Drug Discovery

Conservation and Restoration-Large Scale Regeneration Plans

Contact Info

Product

Resources

About