A Accidental Spilling, 37 Adaptability Mechanism, 37 Adaptive Capacity

Total Page:16

File Type:pdf, Size:1020Kb

A Accidental Spilling, 37 Adaptability Mechanism, 37 Adaptive Capacity Index A Biotic control, 9 Accidental spilling, 37 Bottom layers, 101 Adaptability mechanism, 37 Brackish water, 23 Adaptive capacity, 13 Brantas river, 173 Aerobic degradation, 84 Buffer zone, 3 Agrichemicals, 219 Bukit Barison mountain, 156 Agricultural activities, 66 Burning oil fields, 39 Agricultural run-off, 79 C Air temperature and pressure, 94 Calculated streamlines, 99, 100 Al-Arab Estuary, 36 Cambodia, 239 Alluvial plains, 106 Cattle grazing, 206 Animal health, 145 Cell density, 54, 55, 56, 57 ANOVA, 176 Centric Group, 58 Anthropogenic CO2, 28 Chao Phraya River, 108 Anthropogenic input, 142 Chemical discharge, 7 Antibiotic era, 223 Chittagong, Bangladesh, 81 Anticlockwise circulation, 101 Chlorophylla, 182 Aqua-regia method, 135 Clean-up operation, 42 Aquatic animals, 144 Climate change, 16, 19 Aquatic ecosystem, 145 CO2 concentration, 26 Ariaban Gulf, 36 Coast of Pakistan, 47 Average cell abundance, 49 Coastal aquifers, 66 Average wind condition, 98 Coastal circulation, 3 Coastal degradation, 67 B Coastal domain, 1 Background levels, 137 Coastal erosion, Bahrain beaches, 38 Coastal management, 24 Banana shrimp, 144 Coastal pollution, 8 Bathymetry, 92, 157 Coastal sand dunes, 204 Bay of Bengal, 79 Coastal sandy aquifers of Sri Lanka, Benefit cost analysis, 200 66 Bengkalis Strait, 170 Coastal waters, 144, 145 Benthic organism, 85 Coastal waters of Karachi, 47 Bioactive compounds, 226 Coastal wetland, 29 Biogenic methane, 25 COHERENS, 159 Biological production, 32 Constant river discharge, 93 Biomass, 179 Contaminant estimation, 241 V. Subramanian (ed.), Coastal Environments: Focus on Asian Coastal Regions, 251 DOI 10.1007/978-90-481-3002-3, © 2012 Capital Publishing Company 252 Index Contaminated load, 238 Engineered microorganisms, 229 Contaminated seafood, 152 Environmental factors, 21 Contamination, 107 Environmental management, 174 Continental shelves, 2 Environmental problems, 131 Control site, 82 Erosional shorelines, 114 Coral polyps, 26 Eutrophication, 7 Coral reef, 4 Evaporation, 96 Coriolis Effect, 103 Excess soil nutrients, 70 Correlation coefficient, 134 Extreme weather, 10 Correlation, 61 F Cr and Cu loading, 247 Crustaceans, 147 Fishing operation, 41 Flooding level and duration, 243 CVM, 190 Flow velocity, 241 Cynobacterial compounds, 228 Forcing and boundary conditions, 159 D Friction coefficient, 93 2DC, 193 G 3D Numerical Model, 88 Ganges Tidal Plain, 89 Deforestation, 121 Gender and water supply, 198 Degradation of water quality, 67 Geochemical fraction, 136 Deltaic plain, 89 Geological hazards, 12 Demersal species, 147 Geomorphology, 67 Denitrification, 2 Global warming, 30 Desertification, 212 Global wetland methane, 29 Disasters, 4 Grasslands, 25 Diatom species, 47 Greenhouse gas, 24 Diatoms, 187 Groundwater basin, 70 Diffusion coefficient, 158 Gulf War, 1991 Dinoflagelation, 182 Dinoflagellate species, 42 H Diminishing diversity, 37 HAMSON, 155 Dispersion model, 160 Harsh environment, 37 Distribution pattern, 52 Hazard line, 17 Diversity and disturbance, 204 Hazards, 19 Domestic and municipal waste, 79 HEA, 42 Dominance and rarity, 214 Heavy metal pollution, 78, 131 Heavy metals, 106 E High tide, 82 Ecological environment, 108 High turbidity, 173 Ecological factors, 37 Hong Kong sediment quality criteria, Ecological functions, 13 138 Ecological niches, 147 Horizontal advection, 161 Ecology and biochemistry, 220 Human activities, 28, 122 Ecology, 173 Human diseases, 220 Ecotoxicological points, 130 Human interaction, 89 Elevated nitrate, 72 Hydrocarbon, 38 Emissions, 10 Hydrodynamic model, 155 Energy reserves, 4 Hydrographical factors, 48 Index 253 Hydrological parameters, 96 Man-made hazards, 89 Hydrometeorological impact, 88 Manora channel, 48 Marine bacteria, 222 I Marine biota, 85 IAEA, 84 Marine drugs, 219 Identification keys, 49 Marine sediments, 79 IEC, 199 Market economics, 223 Impact on biota, 41 Mass conservation equation, 92 Increased extraction, 71 Mathematical models, 40 Indian coastal dunes, 205 Megacities, 14 Industrial effluents, 63 Meghna Estuary, 88 Inhomogeneous soil, 72 Mekong Delta, 190 Inland catchment, 23 Metabolism, 221 Input to numerical model, 91 Metabolites, 226 Integrated coastal zone, 33 Metal contamination, 9 Intense agriculture, 73 Methane emission, 23 Intertidal sediments, 130 Micro economic context, 79 Invasive species, 9, 208 Microbial species, 220 Miocene sedimentary limestone, 67 J Model evaluation, 246 Java Indonesia, 173 Model simulation, 162 Java Sea, 156 Model validation, 93, 161 Johor Strait, 186 Mollusks and benthos, 80 Momentum equation, 159 K Monsoon and pre-monsoon, 82 Karstic deep confined aquifer, 68 Mt. Arjuno, 174 L N Lampung Bay, 186 n-alkaline, 39 Landform setting, 109 Native flora, 211 Landforms, 114 Nester, 225 Leached pollutants, 71 Nitrate, 178 Leaf production, 21 Noncyclonic condition, 90 Light penetration, 183 North eastern coastal area, 71 Litter production, 22 Numerical simulation, 158 Littoral ecosystem, 33 Nutrient dynamics, 174 Log Logistics and Log Normal Nutrient pollution, 66 Models, 197 Nutrient rich upwelling, 62 Long An province, 192 Nutrients, 27 Long term monitoring, 74 O LOICZ, 1 Low toxicity, 82 Oceanic ecosystem, 48 LS factor, 111 Off shore waters, 179 LSD-test, 176 Oil burning walls, 42 Oil pollution, 36 M Oil slick, 40 Malacca Strait, 155 Oil spillage, 85 Mangroves ecosystem, 20 Overexploitation, 5 Mangroves, 7 Ozone depletion, 32 254 Index P Rural water supply, 191 PAR 40 RUSLE, 110 Para rubber plantation, 112 S Pedogenesis, 107 Salinity and temperature, 53 Pelagic species, 147 Salinity distribution, 102 Peninsular Malaysia, 130 Salinity embayment, 37 Pennate species, 47 Salinity gradient, 22 Pharmaceuticals, 220 Sand beaches, 205 Phosphate, 177 Sand dunes, 3 Photosynthesis, 21 Sandwip Island, 80 Physical environmental factors, 176 Sanitation and hygiene, 191 Phytoplankton, 173 Sea level raise, 13, 20, 30, 31 Phytoplankton group, 61 Sea surface temperature, 160, 166 Piped water services, 190 Sea water level, 113 Policy makers, 190 Seasonal abundance, 51 Pollutants, 33 Seasonal changes, 62 Polluted river, 156 Seasonal cycle, 31 Polypeptides, 233 Seasonal variation, 94 POP, 10 Secchi depth, 176 Population pressure, 11 Sediment dynamics, 27 Porong and Wonokromo estuary, 173 Sedimentation, 113 Primary Forcing Factor, 88 Sedimentological process, 108 Primary producers, 48 Sewer modelling, 238 Productive areas, 39 Shallow sea, 36 Productivity, 2 Shannon index, 207 Pru Por catchment, 113 Ship breaking areas, 78 Psammophytic strand vegetation, 212 Shoreline, 25 Puducherry, 205 Shrimp pond culture, 178 Q Siak Estuary, 155 Quality control, 133 Siak River Plume, 169 Quaternary sand, 68 Silicate, 184, 185 Simpson index, 207 R Simulated plume, 168 Radiation, 23 Singapore Strait, 164 Random utility maximisation, 195 Site specific factors, 191 Rate of soil erosion, 113 SLC study, 113 Reactive compounds, 82 Soakage pits, 70 Reducing bacteria, 25 Social capacity, 14 Reef ecosystem, 26 Social implication, 219 Remediation, 67 Socio-economic status, 222 Residual circulation, 90 Soil and stream sediment analysis, 118, Residual current, 97 119, 120 Resources, 19 Soil erosion, 106 Riau water, 163 Soil loss equation, 107 River carbon, 11 Soil moisture, 212 River discharge, 178 Solar radiation, 96 River mouth deposits, 68 Songkhla Lake, 106 Index 255 Source of pollutants, 167 Transport model, 155 South China sea, 157 Tropical Asia 19 Speciation of Cu and Zn, 133 Tropical coastal water, 174 Species composition, 49, 50, 179 Species diversity, 207 U Statistical analysis, 60, 134 Unconsolidated sandy aquifers, 68 Statistical model, 194 Upwelling, 20 Storm events, 243 Urban planning, 239 Storm flooding, 245 Urbanisation, 89 Storms, 27 UV radiation, 27 Stormwater management model, 238 V Sub-catchment, 242 Surface gravity waves, 159 Vegetation, 204 Surface run-off, 243 Vertical eddy viscosity, 158 Surface sediments, 131 VMRD, 192 Survey management, 194 Vulnerabilities, 8, 13, 16, 89 Sustainability, 14 W T Water contamination, 193 Tar balls, 38 Water mass flow, 156 Tha Chiat catchment, 117 Water parameters, 60 Therapeutics, 227 Water related diseases, 195 Threats to reef, 6 Wetlands, 23, 239 Tidal flats, 116 WHO guidelines, Tide induced current, 90 Wind speed, 95 Toxic compounds, 33 Wind stress, 92 Toxicological effects, 152 World vulnerability, 15 Trace metals, 83.
Recommended publications
  • Download This PDF File
    Composition and Distribution of Dolphin in Savu Sea National Marine Park, East Nusa Tenggara (Mujiyanto., et al) Available online at: http://ejournal-balitbang.kkp.go.id/index.php/ifrj e-mail:[email protected] INDONESIANFISHERIESRESEARCHJOURNAL Volume 23 Nomor 2 December 2017 p-ISSN: 0853-8980 e-ISSN: 2502-6569 Accreditation Number: 704/AU3/P2MI-LIPI/10/2015 COMPOSITION AND DISTRIBUTION OF DOLPHIN IN SAVU SEA NATIONAL MARINE PARK, EAST NUSA TENGGARA Mujiyanto*1, Riswanto1, Dharmadi2 and Wildan Ghiffary3 1Research Institute for Fisheries Enhancement and Conservation, Cilalawi Street No. 1, Jatiluhur Purwakarta, West Java Indonesia - 41152 2Center for Fisheries Research and Development, Ancol – Jakarta, Indonesia 3Fusion for Nature - Master Candidate of Wageningen University, Drovendaalsesteeg 4, 6708 PB Wageningen, Belanda Received; Februari 20-2017 Received in revised from December 22-2017; Accepted December 28-2017 ABSTRACT Dolphins are one of the most interesting cetacean types included in family Delphinidae or known as the oceanic dolphins from genus Stenella sp. and Tursiops sp. Migration and abundance of dolphins are affected by the presence of food and oceanographic conditions. The purpose of this research is to determine the composition and distribution of dolphins in relation to the water quality parameters. Benefits of this research are expected to provide information on the relationship between distributions of the family Delphinidae cetacean (oceanic dolphins) and oceanographic conditions. The method for this research is descriptive exploratory, with models onboard tracking survey. Field observations were done in November 2015 and period of March-April 2016 outside and inside Savu Sea National Marine Park waters. The sighting of dolphin in November and March- April found as much seven species: bottlenose dolphin, fraser’s dolphin, pantropical spotted dolphin, risso’s dolphin, rough-toothed dolphin, spinner dolphin and stripped dolphin.
    [Show full text]
  • Resting Cyst Distribution and Molecular
    fmicb-10-00306 February 19, 2019 Time: 17:5 # 1 ORIGINAL RESEARCH published: 21 February 2019 doi: 10.3389/fmicb.2019.00306 Resting Cyst Distribution and Molecular Identification of the Harmful Dinoflagellate Margalefidinium polykrikoides (Gymnodiniales, Dinophyceae) in Lampung Bay, Sumatra, Indonesia Edited by: Ramiro Logares, Hikmah Thoha1, Muawanah2, Mariana D. Bayu Intan1, Arief Rachman1, Institute of Marine Sciences (ICM), Oksto Ridho Sianturi1, Tumpak Sidabutar1, Mitsunori Iwataki3, Kazuya Takahashi3, Spain Jean-Christophe Avarre4*† and Estelle Masseret1,5† Reviewed by: 1 2 Nataliia Annenkova, Research Center for Oceanography, Indonesian Institute of Sciences, Jakarta, Indonesia, Main Center for Marine 3 Limnological Institute (RAS), Russia Aquaculture of Lampung, Directorate General of Aquaculture, Lampung, Indonesia, Asian Natural Environmental Science 4 Albert Reñé, Center, The University of Tokyo, Tokyo, Japan, ISEM, IRD, CNRS, EPHE, University of Montpellier, Montpellier, France, 5 Institute of Marine Sciences (ICM), MARBEC, University of Montpellier, IRD, Ifremer, CNRS, Montpellier, France Spain Isabel Bravo, Margalefidinium polykrikoides, an unarmored dinoflagellate, was suspected to be the Instituto Español de Oceanografía (IEO), Spain causative agent of the harmful algal blooms – associated with massive fish mortalities – *Correspondence: that have occurred continually in Lampung Bay, Indonesia, since the first bloom Jean-Christophe Avarre event in October 2012. In this study, after examination of the morphology of putative [email protected] M. polykrikoides-like cysts sampled in bottom sediments, cyst bed distribution of this †These authors have contributed equally to this work harmful species was explored in the inner bay. Sediment samples showed that resting cysts, including several morphotypes previously reported as M. polykrikoides, were most Specialty section: abundant on the northern coast of Lampung Bay, ranging from 20.6 to 645.6 cysts g−1 This article was submitted to Aquatic Microbiology, dry sediment.
    [Show full text]
  • Problemy Ekorozwoju – Problems of Sustainable Development 2021, 16(1), 133-142
    PROBLEMY EKOROZWOJU – PROBLEMS OF SUSTAINABLE DEVELOPMENT 2021, 16(1), 133-142 Cantrang: A Dilemma in Policy Implementation (Case in Lampung Bay, Indonesia) Sieć trałowa: Dylemat we wdrażaniu polityki (przypadek zatoki Lampung w Indonezji) , , Indra Gumay Febryano* *****, Supono* ***, Abdullah Aman Damai*, Debi Hardian*, Gunardi Djoko Winarno*, Novita Tresiana**, **** *Department of Coastal and Marine Zone Management, Postgraduate Program, Universitas Lampung, Bandar Lampung, Indonesia **Department of Public Administration, Faculty of Social and Political Science, Universitas Lampung, Bandar Lampung, Indonesia ***ORCID: 0000-0001-8712-090X ****ORCID: 0000-0001-7242-656X *****E-mail: (Corresponding Author): [email protected], ORCID: 0000-0001-7242-656X Abstract Cantrang is a section of seine nets which has been banned in all regions of Indonesia. However, this policy can stir to pros and cons due to implementation. The purpose of this study is to analyze the success of the stage and the effectiveness of policy implementation on cantrang prohibition in Lampung Bay, Indonesia. Data were collected by interview, observation, and documentation studies, next the policy implementation was reviewed by the mar- keting policy studies then for further analyze was using ambiguity-conflict matrix. The result of this research shows the unsuccessful of the policy marketing on implementing cantrang prohibition policy from policy ac- ceptance side and policy adoption, also on readiness strategy side is failed. Fisher community do not fulfil the policy and not become a part of it, hesitancy of local government as an executor of the policy, vertical conflict between fisherman and government. The analysis of ambiguity-conflict matrix gives the choice of effectiveness politic model implementation and experimentation, replace the administrative policy implementation.
    [Show full text]
  • Asian Green Mussels Perna Viridis (Linnaeus, 1758) Detected in Eastern Indonesia
    BioInvasions Records (2015) Volume 4, Issue 1: 23–29 Open Access doi: http://dx.doi.org/10.3391/bir.2015.4.1.04 © 2015 The Author(s). Journal compilation © 2015 REABIC Rapid Communication A ferry line facilitates dispersal: Asian green mussels Perna viridis (Linnaeus, 1758) detected in eastern Indonesia Mareike Huhn1,2*, Neviaty P. Zamani1 and Mark Lenz2 1Marine Centre, Department of Marine Science and Technology, Bogor Agricultural University, Jalan Lingkar Akademi, Kampus IPB Dramaga, Bogor 16680, West Java, Indonesia 2GEOMAR Helmholtz Centre for Ocean Research Kiel, Düsternbrooker Weg 20, 24105 Kiel, Germany E-mail: [email protected] (MH), [email protected] (NZ), [email protected] (ML) *Corresponding author Received: 6 June 2014 / Accepted: 30 October 2014 / Published online: 8 December 2014 Handling editor: Demetrio Boltovskoy Abstract While part of a single country, the Indonesian archipelago covers several biogeographic regions, and the high levels of national shipping likely facilitate transfer of non-native organisms between the different regions. Two vessels of a domestic shipping line appear to have served as a transport vector for the Asian green mussel Perna viridis (Linnaeus, 1758) between regions. This species is indigenous in the western but not in the eastern part of the archipelago, separated historically by the Sunda Shelf. The green mussels collected from the hulls of the ferries when in eastern Indonesia showed a significantly lower body condition index than similar-sized individuals from three different western-Indonesian mussel populations. This was presumably due to reduced food supply during the ships’ voyages. Although this transport- induced food shortage may initially limit the invasive potential (through reduced reproductive rates) of the translocated individuals, the risk that the species will extend its distributional range further into eastern Indonesia is high.
    [Show full text]
  • Harmful Algal Bloom 2012 Event Verification in Lampung Bay Using Red Tide Detection on Spot 4 Image
    International Journal of Remote Sensing and Earth Sciences Vol. 14 No. 1 June 2017: 1 – 8 HARMFUL ALGAL BLOOM 2012 EVENT VERIFICATION IN LAMPUNG BAY USING RED TIDE DETECTION ON SPOT 4 IMAGE Emiyati1, Ety Parwati, and Syarif Budhiman Remote Sensing Applications Center, LAPAN Jl. Kalisari No.8 Kelurahan Pekayon Kecamatan Pasar Rebo Jakarta Timur, Indonesia 1e-mail:[email protected] or [email protected] Received: 8 May 2017; Revised: 13 June 2017; Approved: 15 June 2017 Abstract. In mid-December 2012, harmful algal bloom phenomenon occurred in Lampung Bay. Harmful Algal Bloom (HAB) is blooming of algae in aquatic ecosystems. It has negative impact on living organism, due to its toxic. This study was applied Red Tide (RT) detection algorithm on SPOT 4 images and verified the distribution of HAB 2012 event in Lampung Bay. The HAB event in 2012 in Lampung Bay can be detected by using RT algorithm on SPOT 4 images quantitatively and qualitatively. According to field measurement, the phytoplankton blooming which happen at Lampung Bay in 2012 were Cochlodinium sp. Image analysis showed that Cochlodinium sp has specific pattern of RT with values, digitally, were 13 to 41 and threshold value of red band SPOT 4 image was 57. The total area of RT distribution, which are found in Lampung Bay, was 11,545.3 Ha. Based on the RT classification of RT images and field data measurement, the RT which is caused many fishes died on the western coastal of Lampung Bay spread out from Bandar Lampung City to Batumenyan village. By using confusion matrix, the accuracy of this this method was 74.05 %.
    [Show full text]
  • Analysis of Tourism Mapping in Lampung Province to Optimize Entrepreneurship Development
    Review of Integrative Business and Economics Research, Vol. 8, Supplementary Issue 2 110 Analysis of Tourism Mapping in Lampung Province to Optimize Entrepreneurship Development Khomsahrial Romli* Universitas Bandar Lampung M. Oktaviannur Universitas Bandar Lampung Dora Rinova Universitas Bandar Lampung Yanuarius Yanu Dharmawan Universitas Bandar Lampung ABSTRACT The lack of information relating to the general locations in Lampung makes the tourists/people who want to go to Lampung difficult to meet the locations to be addressed. In an effort to implement the government program on the implementation of the regional autonomy law, the Lampung Provincial government wants to advance its region from the tourism sector because tourism is considered to be a high source of local government revenue. The main factors to consider is that if one is to travel, the question emerge will be about where to go, how far it is, what is interesting, and what activities can be done during the trip there, to answer the questions needed geographical insight about the mapping of tourism location. Geographic information systems are computer systems used to collect, integrate, organize, transform, manipulate, and analyze geographic data. The application of this geographic information system is built with java programming Android using ADT Bundle software which includes Eclipse as java programming language editor, ADT as plug-in for Eclipse, and SDK for the development of Android based application. This application will give benefit for tourists and the people who want to search good places to visit in Lampung. Keywords: Mapping, Tourism, Android programming 1. INTRODUCTION Tourism is an asset that is considered to be tangible and intangible with its attraction.
    [Show full text]
  • Coastal Phytoplankton Pigments Composition in Three Tropical Estuaries of Indonesia
    Journal of Marine Science and Engineering Article Coastal Phytoplankton Pigments Composition in Three Tropical Estuaries of Indonesia Ario Damar 1,2,*, Franciscus Colijn 3, Karl-Juergen Hesse 4 and Fery Kurniawan 1,2 1 Department of Aquatic Resources Management, Faculty of Fisheries and Marine Sciences, IPB University (Bogor Agricultural University), Jl. Agatis Darmaga Bogor, Bogor 16680, Indonesia; [email protected] 2 Center for Coastal and Marine Resources Studies, IPB University (Bogor Agricultural University), Kampus IPB Baranangsiang, Jl. Raya Pajajaran No. 1, Bogor 16127, Indonesia 3 Institute for Coastal Research, Centre for Material and Coastal Research, Helmholtz-Zentrum Geesthacht, Max-Planck-Strasse 1, 21502 Geesthacht, Germany; [email protected] 4 Forschungs-und Technologiezentrum, Westküste, Hafentörn, 25761 Büsum, Germany; [email protected] * Correspondence: [email protected]; Tel.: +62-813-1065-6861 Received: 20 March 2020; Accepted: 28 April 2020; Published: 29 April 2020 Abstract: In this study, the composition and distribution of phytoplankton pigments and its relation to nutrients and light was investigated, and an elaboration of using it as a proxy for phytoplankton group composition followed, in different nutrient-level tropical bays of Indonesia. Phytoplankton pigment analysis by using High Performance Liquid Chromatographer (HPLC) resulted in a set of pigments of chlorophyll-a (Chl-a), chlorophyll-b (Chl-b), chlorophyll-c (Chl-c), lutein, zeaxanthin, fucoxanthin, peridinin, diadinoxanthin, and ß-carotene. Linear multi regression and multivariate principal component analysis (PCA) showed that algae pigments correlate positively with nutrients and are not significantly correlated with underwater light and water transparency, suggesting important roles of nutrients for phytoplankton development in tropical estuaries.
    [Show full text]
  • Seasonal Variability of Sea Surface Chlorophyll-A and Abundance of Pelagic fish in Lampung Bay, Southern Coastal Area of Sumatra, Indonesia
    Coastal Marine Science 34(1): 82–90, 2010 Special Section “Oceanography” Seasonal variability of sea surface chlorophyll-a and abundance of pelagic fish in Lampung Bay, Southern Coastal Area of Sumatra, Indonesia 1 2 1 1 Suhendar I SACHOEMAR *, Tetsuo YANAGI , Nani HENDIARTI , Muhamad SADLY 1 and Fanny MELIANI 1 Agency for the Assessment and Application of Technology (BPPT) JL. M.H. Thamrin No. 8, Jakarta 10340, Indonesia 2 Research Institute for Applied Mechanics (RIAM), Kyushu University Kasuga-koen, Kasuga-shi 1–6, Fukuoka, Japan * E-mail: [email protected] Received 6 November 2009; Accepted 4 January 2010 Abstract — An observation of sea surface chlorophyll-a in relation to the abundance of pelagic fish was conducted in Lampung Bay, Southern Coastal Area of Sumatra using MODIS satellite data of 2003–2004. The observation result shows the variability of sea surface chlorophyll-a in Lampung Bay seems to be correlated with the monsoonal system that influences on the variability of the meteorological and oceanographic situation. In the wet season (northwest monsoon), the concentration of chlorophyll-a is high. It was suspected due to high precipitation during this season in which the coastal area was enriched by the nutrient load from the upper land area through the rivers and coastal discharge. While in the dry season (southeast monsoon), high concen- tration of the chlorophyll-a is stimulated by increasing nutrient concentration due to the upwelling. During these seasons, the abundance of the pelagic fish was high within this region. Key words: Seasonal variability, chlorophyll-a, pelagic fish, Lampung Bay sure over Asia and low air pressure over Australia are ob- Introduction served, allowing wet air transport (northwesterly wind) from the South China Sea to the Pacific Ocean across the Indone- Lampung Bay is a semi enclosed water ecosystem estu- sian archipelago.
    [Show full text]
  • The Seafloor Morphologhy of Sunda Strait for Laying the Underwater Cables
    THE SEAFLOOR MORPHOLOGHY OF SUNDA STRAIT FOR LAYING THE UNDERWATER CABLES By: Yogi Noviadi1 (Manuscript received 24-July-2010) ABSTRACT The coastal and offshore areas around the Sunda Strait will be developed to be a submarine cable corridor connecting between Java and Sumatra Islands. There are some requirements that should be considered before laying the underwater cables. One of these considerations is to understand the seafloor morphology of the Sunda Strait. The study was conducted based on six of track lines with 1 km line spacing and 4 Cross lines. The water depth obtained then was corrected to the depth of water from the Lowest Water Level (LWL). The seabed condition in the near shore area of Sumatra side is very flat and is influenced by 2 km offshore tide activity. The coast line is characterized by mangrove and fine fraction of sediments (mud and clay). At the Java side, the coastal morphology is characterized by the very steep slope and most of the area is occupied by the industrial activities. Keywords: seafloor morphology, under water cables, Sunda Strait SARI Area pantai dan perairan Selat Sunda akan dikembangkan sebagai bagian dalam penempatan kabel bawah laut yang menghubungkan Pulau Jawa dan Pulau Sumatera. Rencana penempatan kabel bawah laut ini membutuhkan beberapa persyaratan teknis yang harus dipertimbangkan. Salah satu pertimbangan untuk peletakan kabel bawah laut adalah memahami morfologi dasar laut selat Sunda. Penelitian dilakukan berdasarkan 6 lintasan pemeruman dengan jarak antar lintasan 1 km, dan 4 lintasan memotong lintasan utama. Kedalaman laut yang diperoleh kemudian dikoreksi dengan muka laut terendah. Kondisi permukaan dasar laut di sisi pantai Sumatra sangat datar serta sejauh 2 km ke arah laut lepas masih dipengaruhi oleh aktifitas pasang surut.
    [Show full text]
  • Grupos Funcionales Del Fitoplancton Y Estado Trófico Del Sistema Lagunar Topolobampo-Ohuira-Santa María
    INSTITUTO POLITÉCNICO NACIONAL CENTRO INTERDISCIPLINARIO DE CIENCIAS MARINAS GRUPOS FUNCIONALES DEL FITOPLANCTON Y ESTADO TRÓFICO DEL SISTEMA LAGUNAR TOPOLOBAMPO-OHUIRA-SANTA MARÍA TESIS QUE PARA OBTENER EL GRADO DE MAESTRÍA EN CIENCIAS EN MANEJO DE RECURSOS MARINOS PRESENTA: GERMÁN ARÓN AYALA RODRÍGUEZ La Paz, B.C.S, Diciembre de 2008. AGRADECIMIENTOS Al Centro Interdisciplinario de Ciencias Marinas CICIMAR-IPN por la recepción de un servidor y por las facilidades para hacer uso de sus instalaciones para el desarrollo de mis estudios. Al Consejo Nacional de Ciencia y Tecnología por la beca otorgada para la realización de mis estudios. Al Instituto Politécnico Nacional por el apoyo hacia los proyectos CGPI: 20061157 y 20071127 para el desarrollo y culminación del presente estudio, así como a la beca PIFI derivada de estos proyectos y a la beca tesis para la culminación de los estudios de un servidor. Al Consejo Estatal de Ciencia y Tecnología del estado de Sinaloa, por los apoyos brindados hacia una parte de este proyecto. A la Secretaria de Marina (Estación Oceanográfica Topolobampo) por las facilidades otorgadas para hacer uso de sus instalaciones y el apoyo brindado en algunos muestreos. A la Dra. Aída Martínez López por el constante esfuerzo, apoyo, amistad y PACIENCIA hacia un servidor para la culminación de este proyecto, sus atinados comentarios, sugerencias y consejos y a la ayuda y conocimiento brindado a lo largo de estos años. GRACIAS. A los miembros de mi comité revisor, Dra. Christine Band Schmidt, Dr. Gerardo Verdugo Díaz, Dr. Ángel Jiménez Illescas y M. C. Ricardo Palomares García quienes con sus comentarios y observaciones enriquecieron este trabajo.
    [Show full text]
  • Regional Government Efforts of Lampung Provinces to Increase the Attraction of Foreign Tourists to Visit the Kiluan Bay Tourism Area, Lampung
    International Journal for Studies on Children, Women, Elderly And Disabled, Vol. 2, (June) ISSN 0128-309X 2017 REGIONAL GOVERNMENT EFFORTS OF LAMPUNG PROVINCES TO INCREASE THE ATTRACTION OF FOREIGN TOURISTS TO VISIT THE KILUAN BAY TOURISM AREA, LAMPUNG Zainab Ompu Jainah Lintje Anna Marpaung I Gusti Ayu Ketut Rachmi Handayani ABSTRACT Tourism in Indonesia is an important economic sector in Indonesia. Natural and cultural riches are an important component of tourism in Indonesia. Lampung Province which is located at the tip of the island of Sumatra has several islands around it that make Lampung province become one of the few provinces in Indonesia that have the beauty of the sea. Kiluan Bay is a tourist attraction in Lampung Province which is quite famous for its natural potential that is not owned by other marine tourism in Lampung Province like a dolphin. Kiluan Bay has several islands with beautiful beaches around it, the beauty of corals that make up a pond (Wisata Laguna), the beauty of the marine biota that can be used as a snorkeling. It should be an attraction for local tourists and foreign tourists. In order to optimize development in Kiluan Bay is expected all actors who participate in development can work together in the management of the potential owned by Kiluan Bay. So that can support the development planning for sustainable. The problem in this research is "How the Effort of Lampung Province Regional Government to increase the attraction of foreign tourists to visit Kiluan Bay Tourism Area Lampung? The problem approach is done by juridical normative and empirical by using primary data and secondary data as well as qualitative data analysis.Based on the above, it can be concluded that Kiluan Bay as the Superior Tourism Area of Lampung Province has considerable potential to be developed.
    [Show full text]
  • Message from the Ministry of Marine Affairs and Fisheries for the International Ocean Science, Technology and Policy Symposium 2009"
    MESSAGE FROM THE MINISTRY OF MARINE AFFAIRS AND FISHERIES FOR THE INTERNATIONAL OCEAN SCIENCE, TECHNOLOGY AND POLICY SYMPOSIUM 2009" The Government of Indonesia will host the World Ocean Conference 2009 (WOC’09) in Manado, the capital city of North Sulawesi Province, during May 11 - 15, 2009. In conjunction with that global event, the Ministry of Marine Affairs and Fisheries (MMAF) and The Provincial Government of North Sulawesi will co-organize an International Ocean Science, Technology, and Policy Symposium as a side event of the WOC’09. The symposium will be held during May 12 - 14, 2009 at the same site of the WOC’09 venue. The symposium will cover various aspects related to oceans including physical, biological, technological, and social economic. Altogether, there will be 31 different topics to be discussed at parallel sessions during three days activity. It is organized in such a way that participants and speakers may involve in more than one sessions, and freely mobile, in order to gain maximum benefits of their presence. The objective of the symposium is to share information among scientists, managers, practitioners, entrepreneurs, and policy-makers on their recent and current experiences. It is a global arena for participants to introduce their new inventions, great ideas, research findings, derived methods and technologies of production, as well as resource policy advices, in order that everybody may improve his/her capacity in their respective field and specialization. Being a side event of the WOC’09, the symposium may also provide information directly and indirectly to the leaders and prominent figures from around the world who attend the WOC’09, to seek for a common understanding on the benefits and impacts of ocean to world society.
    [Show full text]