The Seawater Heavy Metal Content of the Mining Port Close to the Residential Area in the Morowali District

Delly, Jenny; Mizuno, Katsuhiko; Soesilo, Tri Edhi Budhi; Gozan, Misri

doi:10.1088/1755-1315/940/1/012019

Cited by 4 publications

(7 citation statements)

References 12 publications

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“…Ke-49 penelitian tersebut terdiri dari 9 jenis logam berat. Jenis logam berat yang diteliti adalah Argon (Ar) (Delly et al, 2021), Besi (Fe) (Amin et al, 2009;Fiskanita et al, 2015;Ika et al, 2012;Nindyapuspa & Ni'am, 2018;Nurhidayati et al, 2021;Suprihatin et al, 2022;Supriyantini & Endrawati, 2015), Chadmium (Cd) (Ahmad, 2010;Amin et al, 2009;Aminah, 2016;Anggraini & Puryanti, 2019;Anindita, 2002;Armid et al, 2017;Asih et al, 2022;Balwa et al, 2016;Damaianto & Masduqi, 2014;Delly et al, 2021;Hamuna & Tanjung, 2021;Indirawati, 2017;Komarawidjaja et al, 2017;Komari et al, 2013;Natsir et al, 2019;Noor, 2008;Nur & Karneli, 2015;Nurhidayati et al, 2021;Ruspita & Aulia, 2022;Setiawan & Subiandono, 2015;Sijabat et al, 2014;Usman et al, 2015;Wibisono et al, 2022), Kromium (Cr) (Armid et al, 2017;Delly et al, 2021;Nindyapuspa & Ni'am, 2018;Nuraini et al, 2017), Merkuri (Hg) (Damaianto & Masduqi, 2014;Delly et al, 2021;…”

Section: Hasil Dan Pembahasan Logam Beratmentioning

confidence: 99%

“…Pengembangan bioremediasi juga dapat di aplikasikan sebagai upaya penanggulangan serta mengurangi pencemaran logam berat. Nisak et al (2013) (Agustriani et al, 2017;Ahmad, 2010;Amin et al, 2009;Anggraini & Puryanti, 2019;Anindita, 2002;Anisyah et al, 2016;Armid et al, 2017;Asih et al, 2022;Astuti et al, 2016;Delly et al, 2021;Fahruddin & Santosa, 2020;Fiskanita et al, 2015;Grace et al, 2011;Hamuna & Tanjung, 2021;Husna, 2022;Ika et al, 2012;Indirawati, 2017;Ismaturrami et al, 2022;Karneli, 2010;Komarawidjaja et al, 2017;Muninggar et al, 2017;Natsir et al, 2019;Nurhidayati et al, 2021;Pratama et al, 2019;Rahardja, 2021;Ramlia & Djalla, 2018;Rizkiana et al, 2017;Ruspita & Aulia, 2022;Setiawan & Subiandono, 2015;Siringoringo et al, 2022;Subarkah et al, 2021;Suprihatin et al, 2022;Taguge et al, 2014;Tilaar, 2014;Usman et al, 2015;Usman et al, 2013;Wibisono et al, 2022;Wulandari et al, 2013) 2 Ar 0,025 0,002 Dibawah standar ...…”

Section: Implikasinya Terhadap Penanggulangan Logam Berat DI Pelabuha...unclassified

“…Dibawah standar baku mutu -diatas standar baku mutu (Ahmad, 2010;Amin et al, 2009;Aminah, 2016;Anggraini & Puryanti, 2019;Anindita, 2002;Asih et al, 2022;Delly et al, 2021;Hamuna & Tanjung, 2021;Komarawidjaja et al, 2017;Nurhidayati et al, 2021;Setiawan & Subiandono, 2015;Siringoringo et al, 2022;Wibisono et al, 2022) 4 Fe 0,3 0,01 -0,546 Dibawah standar baku mutu -diatas standar baku mutu (Amin et al, 2009;Fiskanita et al, 2015;Ika et al, 2012;Nindyapuspa & Ni'am, 2018;Nurhidayati et al, 2021;Suprihatin et al, 2022;Supriyantini & Endrawati, 2015) 5 Cd 0,01 0,0006 -2,457…”

Section: Implikasinya Terhadap Penanggulangan Logam Berat DI Pelabuha...mentioning

confidence: 99%

“…Dibawah standar baku mutu -diatas standar baku mutu (Ahmad, 2010;Amin et al, 2009;Aminah, 2016;Anggraini & Puryanti, 2019;Anindita, 2002;Armid et al, 2017;Asih et al, 2022;Balwa et al, 2016;Damaianto & Masduqi, 2014;Delly et al, 2021;Hamuna & Tanjung, 2021;Indirawati, 2017;Komarawidjaja et al, 2017;Komari et al, 2013;Natsir et al, 2019;Noor, 2008;Nur & Karneli, 2015;Nurhidayati et al, 2021;Ruspita & Aulia, 2022;Setiawan & Subiandono, 2015;Sijabat et al, 2014;Usman et al, 2015;Wibisono et al, 2022) 6 Ni 0,075 0,031 -17,38…”

Section: Implikasinya Terhadap Penanggulangan Logam Berat DI Pelabuha...unclassified

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Literatur Review: Pencemaran Logam Berat di Pelabuhan Indonesia

Razi,

Fildzah,

Dhani

et al. 2023

JLIK

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Logam berat merupakan satu dari banyaknya zat yang dapat mengkontaminasi suatu perairan yang tidak dapat dilarutkan bahkan dihilangkan oleh mikroorganisme sehingga dapat menyebabkan penumpukan dan pengendapan hingga ke dasar perairan. Akumulasi logam berat di perairan berdampak pada penurunan kualitas lingkungan yang dapat mengganggu ekosistem dan biota didalamnya seperti terumbu karang ikan karang, makrozobenthos, lamun dan lain-lain. Dampak tersebut menjadi salah satu potensi risiko kesehatan manusia akibat konsumsi ikan dan hidangan laut lainnya yang terakumulasi logam berat. Dalam dua dekade terakhir, penelitian logam berat telah banyak dilakukan oleh peneliti secara global, termasuk penelitian logam berat di Pelabuhan. Penelitian ini mengkaji tingkat kesusaian perairan akibat logam berat berdasarkan standar baku mutu perairan di pelabuhan Indonesia berdasarkan literatur yang tersedia.

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Section: Hasil Dan Pembahasan Logam Beratmentioning

confidence: 99%

Section: Implikasinya Terhadap Penanggulangan Logam Berat DI Pelabuha...unclassified

Section: Implikasinya Terhadap Penanggulangan Logam Berat DI Pelabuha...mentioning

confidence: 99%

Section: Implikasinya Terhadap Penanggulangan Logam Berat DI Pelabuha...unclassified

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Literatur Review: Pencemaran Logam Berat di Pelabuhan Indonesia

Razi,

Fildzah,

Dhani

et al. 2023

JLIK

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“…Efforts are needed to obtain a source of raw salt materials that are far from the people's activities, industry, estuary, shipyards, and harbors (Naser, 2013;Baeyens et al, 2019;Harmesa and Cordova, 2021). The location of salt production along the coast causes heavy metal contaminants when seawater sources accept domestic and industrial waste such as organotin, mercury, arsenic, cadmium, and lead, whereby the highest concentrations are located near those locations (Delly et al, 2021). In addition, the consumption of contaminated salt can accumulate health problems (Bai et al, 2015;Manzoor et al, 2018;Baeyens et al, 2019).…”

Section: Introductionmentioning

confidence: 99%

Analysis of Chemical Contents in Raw Material of Rich Minerals Sea Salt

Afnani¹,

Pratiwi

Effendy³

et al. 2022

JKR

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The mineral content of seawater is a natural raw material to produce rich mineral sea salt. Rich mineral sea salt is a consumption salt with a NaCl content of <50% used to live a low sodium diet for a healthy lifestyle. In general, traditional sea salt was produced with the multistage evaporation method to obtain a NaCl content of ≥ 94.7%, whereas the production of rich mineral sea salt uses a total evaporation method and then removes the salt flower at a certain concentration to get low sodium chlorine and contain other natural minerals. This study aims to analyze the chemical content of the raw material of rich mineral sea salt. The location of seawater used as raw material for rich mineral sea salt is Camplong District, Sampang Regency. Samples were obtained from sea level with a distance of ± 400 m from the coastline and carried out during high tide conditions. The chemical analysis of seawater samples consists of Na, Mg, Ca, K, Fe, Cl− dan SO42−. The analysis method is based on the Indonesian National Standard of environmental quality test. The results of the major mineral analysis showed that the largest mineral content of seawater was calcium (Ca2+) at 492.350±10.395 mg/L and Sodium (Na+) at 482,000±1.979 mg/L. In contrast, the smallest mineral content is iron mineral (Fe2+) of < 0.08 mg/L. These results will be used for preliminary data before producing naturally rich mineral sea salt.

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A probabilistic risk assessment of heavy metal in water and sediment: An industrially affected urban river in Bangladesh

Ahmed,

Islam,

Quraishi

et al. 2024

Water Environment Research

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Human welfare and biodiversity are at risk due to the deterioration of water and sediment quality. Particularly, in last few decades, global water and sediment quality degraded due to the rapid industrialization and urbanization. This study aimed to determine the concentration of nine heavy metals and metalloid (Pb, Cr, Cd, Hg, As, Mn, Ni, Cu, and Zn) and assess the ecological risks using different pollution indices (e.g., heavy metal pollution index [HPI], Nemerow pollution index [NI], geo‐accumulation index [Igeo], contamination factor [CF], degree of contamination [CD] and pollution load index [PLI], ecological risk index [ERI]) in water and sediment of the Shitalakshya River, an industrially affected urban river of Bangladesh. For the first time, 20 water and sediment samples were collected across a wider geographical area of the Shitalakshya River during both monsoon and dry seasons and analyzed using the atomic absorption spectrometer. Average concentrations of heavy metals and metalloid in water were within the Bangladesh standard except for Cr (51.69 ppb) and Mn (228.20 ppb) during monsoon season, portraying potential ecological and human health risks. Besides, average concentration of Mn (549.75 and 370.93 ppb), Ni (549.75 and 370.93 ppb), and Cu (45.34 and 36.09 ppb) in sediment during both seasons were above international standard, implying risk to aquatic sediment biota. The average HPI values indicated moderate to high contamination, whereas the NI values implied polluted water in monsoon season with severe pollution in port area of the river. Similarly, Igeo, CF, CD, and PLI elucidated different levels of contamination in the sediment, particularly during dry season. The ERI values also referred moderate ecological risk in the sediment during dry season. Overall, our findings highlight the alarming level of heavy metal pollution in the Shitalakshya River, necessitating immediate action to protect the aquatic environment, sediment biota, and human health.Practitioner points This study determined the concentration of heavy metals and metalloid in water and sediment of the Shitalakshya River, Bangladesh. The study revealed that the average concentration of Cr and Mn in water exceeded national standard, whereas Mn, Ni, and Cu in sediment exceeded international limit. Potential ecological risk of heavy metals was also assessed using different pollution indices. Calculated pollution indices indicated different degree of pollution, implying critical ecological condition due to heavy metal pollution in aquatic environment and sediment biota.

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The Seawater Heavy Metal Content of the Mining Port Close to the Residential Area in the Morowali District

Cited by 4 publications

References 12 publications

Literatur Review: Pencemaran Logam Berat di Pelabuhan Indonesia

Literatur Review: Pencemaran Logam Berat di Pelabuhan Indonesia

Analysis of Chemical Contents in Raw Material of Rich Minerals Sea Salt

A probabilistic risk assessment of heavy metal in water and sediment: An industrially affected urban river in Bangladesh

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