Article Sidebar

Submitted
Apr 26, 2024
Published
May 5, 2024
Download
Fulltext PDF
Statistic
Read Counter : 0 Download : 0

Main Article Content

Abstract

Lobster, one of the high values sea-cage culture commodities in Indonesia, has some specific
requirements of life environment. However, there haven’t been any studies that specifically identify these potentialites. Until today it is only 3.50 ha out of 526.86 ha of these that have been utilized. This study aims to map the marine suitability environment for lobster cultivation in Ekas Bay, using remote sensing and GIS approaches. The requirement parameters maps for lobster marine suitability, includes oxygen levels (DO), nutrition, salinity, temperature, depthness, pH, and water clearence which were extracted from Landsat 8 imagery. Using GIS, a model was developed to integrate those maps with marine environment secondary maps, water laboratory analysis, and other information from interview result with the local farmers. The result showed that lobsters live in the temperature environment between 200 and 250C while the water depth 100 m. Laboratory analysis resulted pH value of above 7 in average, DO from 5-8 mg/L, and salinity level from 28 to 35 ppt. In summary, the integration of remote sensing and GIS approaches were able to identify the common parameter that support the environment suitability for lobsters which can be formulated as a standard of marine environment suitability mapping.

Keywords

Lobster; Marine suitability environment; Remote sensing and GIS

Article Details

License

Copyright (c) 2016 Aquacultura Indonesiana

Creative Commons License

This work is licensed under a Creative Commons Attribution-NonCommercial-NoDerivatives 4.0 International License.

Author Biographies

Zealandia Sarah, Universitas Gadjah Mada,Yogyakarta

Department of Geographic Information Science

Anggia Rivani, Universitas Gadjah Mada,Yogyakarta

Department of Geographic Information Science

Bety Puspitasari, Universitas Gadjah Mada,Yogyakarta

Department of Geographic Information Science

Firdian Firdian, Universitas Gadjah Mada,Yogyakarta

Department of Geographic Information Science

Fonna Fonna, Universitas Gadjah Mada,Yogyakarta

Department of Geographic Information Science

Ridho Dwi

Culture in East Lombok Using Remote Sensing Data and GIS Approaches. Lobster, one of the high values sea-cage culture commodities in Indonesia, has some specific requirements of life environment. However, there haven’t been any studies that specifically identify these potential sites. Until today it is only 3.50 ha out of 526.86 ha of these that have been utilized. This study aims to map the marine suitability environment for lobster cultivation in Ekas Bay, using remote sensing and GIS approaches. The requirement parameters maps for lobster marine suitability, includes oxygen levels (DO), nutrition, salinity, temperature, depthness, pH, and water clearence which were extracted from Landsat 8 imagery. Using GIS, a model was developed to integrate those maps with marine environment secondary maps, water laboratory analysis, and other information from interview result with the local farmers. The result showed that lobsters live in the temperature environment between 200 and 250C while the water depth 100 m. Laboratory analysis resulted pH value of above 7 in average, DO from 5-8 mg/L, and salinity level from 28 to 35 ppt. In summary, the integration of remote sensing and GIS approaches were able to identify the common parameter that support the environment suitability for lobsters which can be formulated as a standard of marine environment suitability mapping.

Sufiyana Eka , Universitas Gadjah Mada,Yogyakarta

Department of Geographic Information Science

Wirastuti Widyatmanti, Universitas Gadjah Mada,Yogyakarta

Department of Geographic Information Science

References

  1. ANZECC/ARMCANZ. 2000. Australian and New Zealand Guidelines for Fresh and Marine Water Quality. Commonwealth of Australia. Canberra, Australia.
  2. Arrigo, K.R. 2005. Marine Microorganism and
  3. Global Nutrient Cycles. Nature, 437 : 349-355.
  4. Azad Hossain, A.K.M., X. Chao, and Y. Jia. 2012. Development of Remote Sensing based Index for Estimating/Mapping Suspended Sediment Concentration in River and Lake Environment. Southeast region Research
  5. Initiative. The University of Mississippi.
  6. CTF. 2006. Center for the Analysis of International Cooperation between the institutions of the CTF-East Lombok Regency. Province of Lombok. Indonesia.
  7. Hart, G. 2009. Assesing the Suth-East Asian Tropical
  8. Lobster Supply and Major Market Demands. ACIAR Final Report (FR-2009-06). Canbera:mAustralian Centre for International Agricultural Research (ACIAR).
  9. Hutabarat, S. and S.M. Evans. 2006. Introduction to
  10. Oceanography. UI-Press. Jakarta.
  11. Hellweger, F.L., P. Schlosser, U. Lall, and J.K. Weissel. 2004. Use of satellite imagery for water quality studies in New York Harbour. Estuarine, Coastal and Shelf Science, 61:
  12. -448.
  13. Khasanah, U. 2013. Water Suitability Analysis for Determining Eucheuma cottonii Aquaculture in Districts of Wajo. Thesis. Faculty of Marine Sciences and Fisheries. Universitas Hassanudin. Makassar.
  14. KLH. 1988. Surat Keputusan Menteri Negara Lingkungan Hidup. Pedoman Penetapan Baku Mutu Lingkungan. Jakarta. Menteri Negara Kependudukan dan Lingkungan
  15. Hidup.
  16. Lillesand, T.M. and R.W. Kiefer. 2000. Remote Sensing and Image Interpretation.
  17. JohnWilley and Sonc.Inc MMAF. 2015. Minister of Marine and Fisheries Affair. Prosedur Penanganan Lobster Laut
  18. (Panulirus spp.) Di Instalasi Karantina Ikan UPT KIPM. Badan Karantina Ikan Pengendalian Mutu dan Keamanan Hasil Perikanan. Kementerian Kelautan dan Perikanan.
  19. MMAF – CTF. 2014. Center for the Analysis of International Cooperation between the institutions of the CTF-East Lombok Regency. Province of Lombok. Indonesia
  20. Nontji, A. 1993. Laut Nusantara. Penerbit Djambatan. Jakarta
  21. Nybakken, J.W. 1992. Biologi Laut,Sesuatu Pendekatan Ekologis. Penerbit PT. Gramedia Pustaka Utama. Jakarta.
  22. Nuriya, H.Z. Hidayah, dan W.A. Nugraha. 2010. Pengukuran Konsentrasi Klorofil-a dengan Pengolahan citra Landst ETM-7 dan Uji Laboratory di Perairan Selat Madura Bagian Barat. Jurnal Kelautan. 3 (1): 60-6
  23. Prahasta and Eddy. 2002. Konsep-konsep Dasar
  24. Sistem Informasi Geografis. Bandung. Informatika.
  25. Priyambodo, B. 2013. Development of spiny lobster
  26. aquaculture in Indonesia. Proceedings of Asian-Pacific Aquaculture Conference. Ho Chi Minh City.
  27. Ramdan, M. and Arifin, T. 2013. Application of Geographic Information System for Assessment of Indonesia Marine Proportion. Journal. Jakarta
  28. Robinson, I.S. 1985. Satellite Oceanography : An
  29. Introduction for Oceanographers and Remote Sensing Scientists. England : Ellis Horwood Series in Marine Science. Chichester.
  30. Salmin. 2000. Kadar Oksigen Terlarut di Perairan Sungai Dadap, Goba, Muara Karang dan Teluk Banten. Dalam: D.P. Praseno, R.
  31. Rositasari dan S.H. Riyono (editor). Foraminifera Sebagai Bio indicator Pencemaran, Hasil Studi di Perairan Estuarin
  32. Sungai Dadap,Tangerang. P3O – LIPI. Jakarta.
  33. Sarjono dan Budi Setyo.1996. Lobster:Panulirus spp.
  34. Yogyakarta: Departemen Pertanian.
  35. Sidik. 2014. Akurasi Nilai konsentrasi Klorofil-A dan
  36. Suhu Permukaan Laut Menggunakan Data Penginderaan Jauh di Perairan Pulau Alanggatang Taman Nasional Sembilang. Maspari Journal, 7 (2) : 25-32.
  37. Siswanto, A.D. 2010. Analisa Sebaran Total Suspended Solid (TSS) di Perairan Pantai Kabupaten Bangkalan Pasca Jembatan Suramadu. Jurnal Kelautan, 3 (2).
  38. Sugiyono. 1999. Statistika Untuk Penelitian, Alfabeta,
  39. Bandung.
  40. Sutanto. 1999. Penginderaan Jauh Jilid 2. Fakultas
  41. Geografi UGM. Yogyakarta.
  42. Wardoyo, S.T. 1975. Kriteria Air untuk Keperluan
  43. Pertanian dan Perikanan. Dapartemen Tata Produksi Perikanan. Bogor. Fakultas Pertanian. IPB.