2014
DOI: 10.13005/ojc/300308
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Fatty Acid Composition of Some Potential Fish Oil from Production Centers in Indonesia

Abstract: This study aimed to analyze the fatty acid composition of some potential fish oil originated from some production centers in Indonesia. Samples observed were softshell turtle oil, freshwater eel oil, shark liver oil, tuna oil, and lemuru oil. Fatty acid composition of the oil was analyzed and quantified using gas chromatography after being converted into FAME. Detected SFA, MUFA, and PUFA as ranged from 1.67-37.99%, 3.17-38.34%, and 0.70-34.99%. Oleic acid became predominant fatty acid in sofshell turtle oil, … Show more

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Cited by 30 publications
(19 citation statements)
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“…Other esters are only at minor concentrations in these sources, but they are present in non-conventional sources (jatropha oil, fish oil, algae, some wastes) that will benefit from current enhancing politics that pursue the use of sustainable sources that do not interfere with the food market. For example, fish oil is rich in palmitoleic (15%-20%) and docosahexanoic (5%-25%) acids, [19][20][21][22][23][24] while fish fat presents erucic and eicosenoic acids as well. 19,25 Algae may show higher concentrations of palmitic and linolenic acids than traditional biodiesel sources, and significant amounts of highly polyunsaturated acids, such as docosahexanoic acid.…”
Section: Experimental and Fuel Samplesmentioning
confidence: 99%
“…Other esters are only at minor concentrations in these sources, but they are present in non-conventional sources (jatropha oil, fish oil, algae, some wastes) that will benefit from current enhancing politics that pursue the use of sustainable sources that do not interfere with the food market. For example, fish oil is rich in palmitoleic (15%-20%) and docosahexanoic (5%-25%) acids, [19][20][21][22][23][24] while fish fat presents erucic and eicosenoic acids as well. 19,25 Algae may show higher concentrations of palmitic and linolenic acids than traditional biodiesel sources, and significant amounts of highly polyunsaturated acids, such as docosahexanoic acid.…”
Section: Experimental and Fuel Samplesmentioning
confidence: 99%
“…(37,99%, 29,53% dan 5,07%), minyak hati ikan cucut (3,15-1,67%, 8,90-3,17% dan 1,82-0,70%), minyak ikan tuna (Thunnus sp.) (19,31%, 16,54%, 34,99%), dan minyak ikan sardin (Sardinella lemuru) (28,90%; 17,99% dan 22,82%) (Suseno et al 2014). Kandungan asam lemak tak jenuh minyak hati ikan cucut botol, yaitu: omega-3 oktadekanoat (18:2ω-3), linolenat (18:3ω-3), oktadekatetraenoat (18:4ω-3), eikosatetraenoat (20:4ω-3), dan eikosapentaenoat (EPA) (20:5ω-3) (Damongilala 2008).…”
Section: Pendahuluanunclassified
“…Kadar asam lemak ω-3 pada minyak ikan lemuru dapat mencapai 19,37%, dengan jenis asam lemak ω-3 yang dominan adalah EPA (eicosapentaenoic acid, C20:5ω-3) mencapai 14,46%, sedangkan kadar DHA (docosahexaenoic acid) 4,60% (Suseno et al 2014). Minyak lemuru dihasilkan sebagai hasil samping pengalengan ikan lemuru (Purwanto et al 2015).…”
Section: Pendahuluanunclassified
“…Minyak hasil samping pengalengan lemuru menunjukkan total oksidasi yang memenuhi standar IFOMA tetapi melebihi batasan maksimum dari draft Codex dan IFOS. Kadar asam lemak tidak jenuh yang tinggi di dalam minyak ikan lemuru (Suseno et al 2014) menyebabkan minyak ini mudah teroksidasi. Minyak ini merupakan hasil samping dan bukan merupakan produk utama dari industri pengalengan ikan, sehingga dalam penanganannya kurang hati-hati untuk meminimalkan oksidasi.…”
Section: Hasil Dan Pembahasan Karakteristik Minyak Hasil Samping Pengunclassified