Marine Macro Debris from Makassar Strait Beaches with Three Different Designations

Isyrini, Rantih; Nafie, Yayu A. La; Ukkas, Marzuki; Rachim, R.; Cordova, Muhammad Reza

doi:10.1088/1755-1315/253/1/012039

Cited by 6 publications

(4 citation statements)

References 11 publications

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“…There, marine macroscale waste (2.5-100 cm) was collected, of which 82-85% was plastics and rubber. In total, the amount of waste was highest near residential areas (6.03 ± 1.49 items/m 2 ), followed by the contamination of a recreational area (4.13 ± 4.69 items/m 2 ) and the lowest evidence of waste in a private area (0.42 ± 0.34 items/m 2 ) [157]. Monteiro et al (2018) [82] reviewed the literature on micro-and macroplastic accumulation on islands, and they compiled data on MaP from 17 studies.…”

Section: Freshwater Environmentsmentioning

confidence: 99%

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The Way of Macroplastic through the Environment

et al. 2020

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With the focus on microplastic in current research, macroplastic is often not further considered. Thus, this review paper is the first to analyse the entry paths, accumulation zones, and sinks of macroplastic in the aquatic, terrestrial, and atmospheric environment by presenting transport paths and concentrations in the environment as well as related risks. This is done by applying the Source–Pathway–Receptor model on macroplastic in the environment. Based on this model, the life cycle of macroplastic is structurally described, and knowledge gaps are identified. Hence, current research aspects on macroplastic as well as a sound delimitation between macro- and microplastic that can be applied to future research are indicated. The results can be used as basic information for further research and show a qualitative assessment of the impact of macroplastic that ends up in the environment and accumulates there. Furthermore, the applied model allows for the first time a quantitative and structured approach to macroplastic in the environment.

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Section: Freshwater Environmentsmentioning

confidence: 99%

“…Concentrations of MaP on shorelines differentiates between the northern and southern hemisphere (data based on[115,122,144,149,[151][152][153][154][155][156][157][158][159][160][161][162][163]). …”

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confidence: 99%

The Way of Macroplastic through the Environment

et al. 2020

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“…Meanwhile, other types of waste were only obtained at the first and third stations in July and were not obtained in January. Plastic and rubber were also dominant in other locations (Djaguna et al, 2019;Isyrini et al, 2019;Rahmayanti et al, 2020). Observational data for the territory have been more focused on Java Island and big cities.…”

Section: Resultsmentioning

confidence: 99%

“…Accumulation of debris has been influenced by various factors such as wind, currents, and population areas (Wessel et al, 2019). Meanwhile, according to Isyrini et al (2019), coastal morphology and wave direction patterns have a significant role and contribute to the increasing volume of marine debris. Observation of garbage, particularly along the seashore, is critical since various variables are unknown.…”

Section: Resultsmentioning

confidence: 99%

Distribution and Composition of Marine Debris in the Shoreline Area of Bone Bay Indonesia

Alamsyah

Zulkifli

Fauzi

et al. 2022

EREM

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Indonesia is the world’s second greatest producer of plastic waste after China. The bulk of waste produced accumulates in metropolitan regions due to the increasing population, and the situation has spread to rural areas with a limited population. The residents of the Sinjai Regency have felt the impact of the growing amount of debris, and it is expected to worsen without immediate action. Coastal locations that accommodate waste from land and water are mostly affected by debris. The study was conducted in Bone Bay, Sinjai Regency’s coastline area. The bay’s condition is sheltered to decrease the current strength, but it varies from season to season. Furthermore, it used shoreline survey methodology, where debris grouping consisted of plastics, metal, rubber, glass, clothing, and others. The debris data were calculated and analyzed based on the seasons of the west (January) and east (July). The data were associated with the current pattern model in Bone Bay waters based on the season. In January and July, 86% of waste was plastic, 3% was metal, 4% was rubber, 2% was clothing, while 5% and 4% were glass. No other types of waste were identified in January, while 1% was detected in July. Garbage that enters through rivers, garbage deposited by local residents, and tourism activities at the four observation areas are all contributing to the presence of waste in Sinjai’s coastal area.

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