Variation of antimicrobial activity of the sponge Aplysina fistularis (Pallas, 1766) and its relation to associated fauna

Betancourt‐Lozano, Miguel; González‐Farías, F.; González‐Acosta, Bárbara; García‐Gasca, Alejandra; Bastida-Zavala, J. Rolando

doi:10.1016/s0022-0981(97)00153-6

Cited by 28 publications

(24 citation statements)

References 39 publications

Supporting

Mentioning

Contrasting

Unclassified

Order By: Relevance

“…Senyawa metabolit sekunder yang dihasilkan oleh spons sering dimanfaatkan oleh berbagai fauna invertebrata asosiatif spons sebagai mekanisme perlindungan dari predator (Huang et al, 2008). Namun demikian, aktivitas metabolit sekunder spons, terutama aktivitas antimikrobialnya, dapat pula merupakan respon pertahanan spons terhadap tingkat reproduksi invertebrata asosiatif yang mengalami peningkatan di jaringan tubuh spons (Betancourt-Lozano et al, 1998).…”

Section: Pendahuluanunclassified

“…Potongan sampel spons tersebut kemudian diletakkan ke media agar yang terlebih dahulu telah disebar bakteri target. Setelah inkubasi selama 24 jam, pengamatan zona bening dilakukan untuk melihat aktivitas antibakteri dari spons (Betancourt-Lozano et al, 1998).…”

Section: Pengujian Aktivitas Antibakteriunclassified

“…Selain itu, terdapat kemungkinan bahwa produksi antibakteri yang rendah disebabkan pula oleh karena kurangnya rangsangan/stimulus pertahanan terhadap bakteri patogen. Betancourt -Lozano et al (1998) Hal ini tergantung pada keberadaan rangsangan/stimulus tertentu bagi produksi senyawa metabolit sekunder. Spons juga dikatakan dapat mengubah mekanisme produksi senyawa metabolit sekundernya terkait adanya rangsangan/stimulus tertentu yang memicu stress pada metabolismenya.…”

Section: Potensi Antibakteri Sponsunclassified

“…Richelle-Maurer et al (2003) juga menemukan bahwa spons jenis Agelas conifera dari perairan Karibia dapat menghasilkan metabolit sekunder yang dapat bersifat toksik terhadap polip karang dan senyawa sceptrin yang dapat menghalau predasi ikan generalist. Sementara penelitian yang dilakukan oleh Betancourt-Lozano et al (1998) Lozano et al, 1998). Analisis lebih lanjut dengan pendekatan molekuler untuk identifikasi jenis spons dan potensi metabolit sekundernya juga perlu dilakukan pada penelitian di masa yang akan datang, di samping penelitian komunitas spons di ekosistem lamun di daerah lain di Indonesia.…”

Section: Potensi Antibakteri Sponsunclassified

See 3 more Smart Citations

Composition and Antibacterial Activities of Marine Sponges From Different Seagrass Ecosystems in Kepulauan Seribu Waters, Jakarta

Ismet¹,

Bengen²,

Radjasa³

et al. 2017

J. Ilmu dan Teknologi Kelautan Tropis

View full text Add to dashboard Cite

A seagrass ecosystem has high productivity that supports many species of associated invertebrates, including sponges. However, seagrass beds with different habitat condition, including seagrass species composition and architectural morphotypes could affect the associative sponge in the ecosystem. This study is aimed to find out about sponge species composition in different seagrass beds. The observation was conducted in two seagrass ecosystems at the east (site 1) and at the southeast (site 2) of Pramuka Island, Kepulauan Seribu, near Jakarta Bay, Indonesia. The Belt Transect was used to assess the density of sponges on the seagrass ecosystem, which was placed parallel to the coastline. The sponges species has higher number at the east than the southeast, with both sites was dominated by Spirastrella sp. and Agelas conifera. Correspondence Analysis (CA) results showed that sponges community has close interaction with seagrass abundance especially Cymodocea rotundata and Enhalus acoroides and architectural characteristic (patchily or continues meadows). Antibacterial assay of sponges tissue showed that only 7 sponge species has activity against targeting bacteria. The CA results also showed that sponge antibacterial activity was not correlated with seagrass species, with low bactericide and bacteriastatic activities. The implication of this result showed that sponges community can grow up at seagrass ecosystem eventhough their potential secondary metabolite activities is very low probably due to lack of stimulus mechanisms in the environment.

show abstract

Section: Pendahuluanunclassified

Section: Pengujian Aktivitas Antibakteriunclassified

Section: Potensi Antibakteri Sponsunclassified

See 2 more Smart Citations

Composition and Antibacterial Activities of Marine Sponges From Different Seagrass Ecosystems in Kepulauan Seribu Waters, Jakarta

Ismet¹,

Bengen²,

Radjasa³

et al. 2017

J. Ilmu dan Teknologi Kelautan Tropis

View full text Add to dashboard Cite

show abstract

“…These sponges produce antibiotic compounds against a diversity of bacteria, but that activity is selective in nature. Newbold et al (1999) also found that extracts from Caribbean sponges, including Aplysina lacunosa, exhibited selective antibacterial activity against the environmental strains that they tested, whereas Betancourt-Lozano et al (1998) identified broad-spectrum and low temporal variability in antibacterial activity of Aplysina fistularis extracts. Comparable results have been characterized from other sessile marine invertebrates exposed to infectious disease.…”

Section: Ecological Consequences Of Chemical Variation: Feedingmentioning

confidence: 99%

Trade-Offs in Defensive Metabolite Production But Not Ecological Function in Healthy and Diseased Sponges

et al. 2012

View full text Add to dashboard Cite

Diseases of marine organisms, and sponges in particular, are increasingly reported worldwide. Prior research indicates that the survival of sponges on reefs is due largely to their production of biologically active secondary metabolites that provide protection from a diversity of stressors. Aplysina Red Band Syndrome (ARBS) is an emerging disease affecting Caribbean rope sponges (Aplysina spp.), but it is not known whether secondary metabolites play a role in disease susceptibility and resistance. To investigate whether differences in secondary metabolites may explain variability in susceptibility to ARBS in Aplysina cauliformis, we used high performance liquid chromatography (HPLC) to generate chemical profiles from healthy tissue in both healthy and diseased sponges, and quantified peak areas for 15 metabolites. Analyses of healthy and diseased sponges revealed qualitative and quantitative differences in their chemical profiles. Aplysamine-1 and fistularin-3 were produced in significantly higher concentrations by healthy sponges, whereas aerothionin and 11-oxoaerothionin were found only in diseased sponges. At natural concentrations, extracts from both healthy and diseased sponges deterred feeding by an omnivorous reef fish. Fistularin-3 deterred feeding at concentrations found in healthy sponges, but not at concentrations found in diseased sponges. Aerothionin deterred feeding at concentrations found in diseased sponges, and may at least partially replace the loss of fistularin-3 as a feeding deterrent compound following pathogenesis, suggesting a trade-off in the production of feeding deterrent compounds. Extracts from healthy and diseased sponges inhibited bacterial growth, and both aplysamine-1 and fistularin-3 displayed selective antibacterial activity. Despite differences in secondary metabolite production between healthy and diseased sponges, the stress associated with ARBS does not appear to compromise the ability of A. cauliformis to maintain defenses against some of its natural enemies.

show abstract

Introduction to Chemical Ecology

Kornprobst

2014

Encyclopedia of Marine Natural Products

View full text Add to dashboard Cite

The article contains sections titled: Examples of Intraspecific Relations Sexual Pheromones: Sperm‐Activating Peptides of Urchins and Mollusks Examples of Alarm Pheromones Examples of Interspecific Relationships Predator–Prey Relationships: Defense Allomones of Algae and Invertebrates Defense Allomones in Associations Between Microorganisms and Invertebrates Elicitors and Defense Allomones of Algae Substances Inducing Metamorphosis of Larvae Formation of Epibiosis (Biofouling) and Antifouling Substances Food Attractants and Stimulants

show abstract

Variation of antimicrobial activity of the sponge Aplysina fistularis (Pallas, 1766) and its relation to associated fauna

Cited by 28 publications

References 39 publications

Composition and Antibacterial Activities of Marine Sponges From Different Seagrass Ecosystems in Kepulauan Seribu Waters, Jakarta

Composition and Antibacterial Activities of Marine Sponges From Different Seagrass Ecosystems in Kepulauan Seribu Waters, Jakarta

Trade-Offs in Defensive Metabolite Production But Not Ecological Function in Healthy and Diseased Sponges

Introduction to Chemical Ecology

Contact Info

Product

Resources

About