The objective of this study was to develop a quality index method for Engraulis anchoita stored in ice and to determine its shelf-life based on this quality index method and chemical indices such as total volatile bases and thiobarbituric acid-reactive substances. Besides, the chemical composition with emphasis on the polyunsaturated fatty acids content was determined. The results indicate that E. anchoita is a valuable protein source and lipid with important content of n-3 polyunsaturated fatty acids. The developed quality index method scheme was composed of 28 demerit points, divided into 4 parameters and 10 attributes. All attributes showed correlation with time of storage (R > 0.90). The quality index (QI) presented a linear relationship with storage (QI = 2.55x days in ice + 1.76; R2 = 0.98). In the shelf-life assessment-based quality index method, the rejection sensory point was observed after 7 days of storage due to the presence of unpleasant odours and deteriorated appearance. The total volatile basic nitrogen value remained below the upper limit of acceptability during the 10 days of ice storage. The evolution of thiobarbituric acid-reactive substances indicates lipids oxidation during the storage of anchovies. According to the results, the quality index method scheme developed for the E. anchoita stored in ice could be considered adequate to evaluate their freshness and to estimate its shelf-life.
AgüeriaDASanzanoPMGrosmanF (2007). Desarrollo de un esquema de calificación sensorial para carpa (Cyprinus carpio) eviscerada y almacenada en condiciones de refrigeración. ITEA, Información Técnica Económica Agraria103(2): 65–71.
2.
AkpinarMAGörgünSAkpınarA (2009). A comparative analysis of the fatty acid profiles in the liver and muscles of male and female Salmo trutta macrostigma. Food Chemistry112(1): 6–8.
3.
AlasalvarCTaylorKDOksuzAGarthwaiteTAlexisMNGrigorakisK (2001). Freshness assessment of cultured sea bream (Sparus aurata) by chemical physical and sensory methods. Food Chemistry72(1): 33–40.
4.
AlasalvarCTaylorKDÖksüzAShahidiFAlexisM (2002). Comparison of freshness quality of cultured and wild sea Bass (Dicentrarchus labrax). Journal of Food Science67(9): 3220–3226.
5.
AOAC (1995). Official methods of analysis, 16 edn. Washington, DC: Association of Official Analytical Chemist.
6.
AOCS (1990). Official methods and recommended practices of the American oil chemists’ society, 4th edn. Champaign: AOCS Press.
7.
AshieINSmithJPSimpsonBK (1996). Spoilage and shelf-life extension of fresh fish and shellfish. Critical Reviews in Food Science and Nutrition36(1–2): 87–121.
8.
AubourgSP (1993). Review: interaction of malondialdehyde with biological molecules – new trends about reactivity and significance. International Journal of Food Science and Technology28(4): 323–335.
9.
AubourgSPiñeiroCGallardoJBarros-VelazquezJ (2005). Evolution of biochemical changes related to the quality loss in farmed turbot (Psetta máxima) during chilled storage. Food Chemistry90(3): 445–452.
10.
AubourgSQuitralVLarraınMARodrıguezA (2007). Autolytic degradation and microbiological activity in farmed Coho salmon (Oncorhynchus kisutch) during chilled storage. Food Chemistry104(1): 369–375.
11.
BarbosaAVaz-PiresP (2004). Quality index method (QIM): development of a sensorial scheme for common octopus (Octopus vulgaris). Food Control15(3): 161–168.
12.
BeltranAMoralA (1990). Gas chromatographic estimation of oxidative deterioration in sardine during frozen storage. Lebensmittel-Wissenschaft und Technologie23(6): 499–504.
13.
BottaJR (1995). Evaluation of seafood freshness quality. New York: VSH Publishers, 180–180.
14.
BremnerHA (1985). A convenient, easy-to-use system for estimating the quality of chilled seafood. Fish Processing Bulletin7: 59–70.
15.
CabrerAICasalesMRYeannesMI (2002). Physical and chemical changes of anchovy (Engraulis anchoita) flesh during marinating. Journal of Aquatic Food Product Technology11(1): 19–30.
16.
Cardenas BonillaAKolbrun SveinsdóttirKMartinsdóttirE (2007). Development of Quality Index Method (QIM) scheme for fresh cod (Gadus morhua) fillets and application in shelf life study. Food Control18(4): 352–358.
17.
Castillo-YáñezFJPacheco-AguilarRMarquez-RiosELugo-SánchezMELozano-TaylorJ (2007). Freshness loss in sierra fish (Scomberomorus sierra) muscle stored in ice as affected by postcapture handling practices. Journal of Food Biochemistry31(1): 56–67.
18.
CastroPPadronJCCansinoMJVelazquezESLarrivaRM (2006). Total volatile base nitrogen and its use to assess freshness in European sea bass stored in ice. Food Control17(4): 245–248.
19.
ChaijanMBenjakulSVisessanguanWFaustmanC (2006). Changes of lipids in sardine (Sardinella gibbosa) muscle during iced storage. Food Chemistry99(1): 83–91.
20.
ChaouqyNEGallardoJMEl MarrakchiAAubourgS (2008). Lipid damage development in anchovy (Engraulis encrasicholus) muscle during storage under refrigerated conditions. Grasas y Aceites59(4): 309–315.
21.
Chiodi OR (1970). Composición química inmediata de la anchoíta (Engraulis anchoíta). Variación estacionales y en regiones del individuo. Proyecto de Desarrollo Pesquero, Doc. Téc. Prel. No 7.
22.
ChurchN (1998). MAP fish and crustaceans – sensory enhancement. Food Science and Technology Today12(2): 73–83.
23.
ConnellJJ (1995). Control of fish quality. 4th edn. Farnham, Surrey: Fishing News Books Ltd.
24.
CostellE (2002). A comparison of sensory methods in quality control. Food Quality and Preference13(6): 341–353.
25.
CyprianOOSveinsdottirKMagnussoonHMartinsdottirE (2008). Application of Quality Index Method (QIM) scheme and effects of short-time temperature abuse in shelf life study of fresh water Arctic Char (Salvelinus alpinus). Journal of Aquatic Food Product Technology17(3): 303–321.
26.
DalgaardP(2000). Fresh and lightly preserved seafood. In: ManCMDJonesAA (eds). Shelf-life evaluation of foods. London: Aspen Publishers Inc., 110–139.
27.
El MarrakchiABennourMBouchritiNHamamaATagafaitH (1990). Sensory, chemical, and microbiological assessments of Moroccan sardines (Sardina pilchardus) stored in ice. Journal Food Protect53(7): 600–605.
28.
Etienne M (2005). SEAFOODplus – Traceability – Valid – Methods for chemical quality assessment. Volatile amines as criteria for chemical quality assessment, Ifremer, Nantes, France. Available online: http://archimer.ifremer.fr/doc/2005/rapport-6486.pdf (accessed February 2011).
29.
EU (1995). Commission Decision 95/149/EC of 8 March 1995 fixing the total volatile basic nitrogen (TVB-N) limit values for certain categories of fishery products and specifying the analysis methods to be used. Official Journal L097: 84–87.
30.
ExlerJKinsellaJEWattBK (1975). Lipids and fatty acids of important finfish: New data for nutrient tables. Journal American Oil Chemist’s Society52(5): 154–159.
31.
FeyMSRegensteinJM (1982). Extending shelf-life of fresh wet red hake and salmon using CO2-O2 modified atmosphere and potassium sorbate ice at 1 °C. Journal Food Science47(4): 1048–1054.
32.
Garcia-TorchelsenLFeddernVLaroqueDQueirozMI (2009). Perfil de ácidos graxos da anchoíta (Engraulis anchoita) capturada na regiao sul do Brasil. XII congreso CYTAL – AATA facultad de ciencias de la alimentación. UNER, Entre Ríos, Argentina.
33.
Gill T (1995). Autolytic changes. In: Huss HH (ed.) Quality and quality changes in fresh fish. Rome: FAO Tech Paper No. 348, pp. 39-51.
34.
GillTAConwayJEvrovskiJ(1992). Changes in fish muscle proteins at high and low temperature. In: FlickGJMartinRE (eds). Advances in seafood biochemistry-composition and quality. Lancaster, PA: Technomic Publishing, 213–231.
35.
GörgünSAkpınarMA (2007). Liver and muscle fatty acid composition of mature and immature rainbow trout (Oncorhynchus mykiss) fed two different diets. Biologia Bratislava62(3): 351–355.
36.
HaardNF (1992). Technological aspects of extending prime quality of seafood: a review. Journal of Aquatic Food Product Technology1: 9–28.
37.
Hansen JE, Buratti CC and Garciarena DA (2006). Diagnóstico de la población de anchoíta, Engraulis anchoita, al sur de 41 °S, y estimación de capturas biológicamente aceptables durante el año 2006. INIDEP Informe Técnico No 2, p.13.
38.
Hernández-HerreroMMRoig-SaguésAXLópez-SabaterEIRodríguez-JerezJJMora-VenturaMT (2002). Influence of raw fish quality on some physicochemical and microbiological characteristics as related to ripening of salted anchovies (Engraulis encrasicholus L.). Journal of Food Science67(7): 2631–2640.
39.
HowgatePJohnstonAWhittleKJ (1992). Multilingual guide to EC freshness grades for fishery products. Aberdeen: Torry Research Station.
HowgateP (2010c). Critical review of total volatile bases and trimethylamine as indices of freshness of fish. Part 2. Formation of the bases, and application in quality assurance. Electronic Journal of environmental, Agricultural and Food Chemistry9(1): 58–88.
43.
HoylandDVTaylorAJ (1991). A review of the methodology of the 2-thiobarbituric acid test. Food Chemistry40(3): 271–291.
44.
HuidobroAPastorATejadaM (2000). Quality index method developed for raw Gilthead seabream (Sparus aurata). Journal of Food Science65(7): 1202–1205.
45.
Huss HH (1995). Assurance of fresh fish quality. In: Huss HH (ed.) Quality and quality changes in fresh fish. FAO Fisheries Technical Paper 348. Rome: FAO, pp. 154–161.
46.
HyldigGGreen-PetersenDM (2004). Quality index method. An objective tool for determination of sensory quality. Journal of Aquatic Food Product Technology13(4): 71–80.
47.
JensenFB (2001). Comparative analysis of autoxidation of haemoglobin. The Journal of Experimental Biology204(11): 2029–2033.
48.
KarakoltsidisPAZotosAConstantinidesM (1995). Composition of the commercially important Mediterranean finfish, crustaceans, and molluscs. Journal of Food Composition and Analysis8(3): 258–273.
49.
KarungiCByaruhangaYBMuyongaJH (2004). Effect of pre-icing duration on quality deterioration of iced Nile perch (Lates niloticus). Food Chemistry85(1): 13–17.
50.
KöseS (2010). Evaluation of seafood safety health hazards for traditional fish products: preventive measures and monitoring issues. Turkish Journal of Fisheries and Aquatic Sciences10(1): 139–160.
51.
KöseSÜzenFTufanBKoralSGençSYaşarA (2008). Investigating some quality parameters of several traditional fish products in relation to food safety. Pacific fisheries technologists conference. 3–6 February. San Francisco.
52.
KoutsoumanisKGiannakourouMTaoukisPSNychasGJE (2002). Application of SLDs (shelf life decision system) to marine cultured fish quality. International Journal of Food Microbiology73(2–3): 375–382.
53.
KrzymienMEEliasL (1990). Feasibility study on the determination of fish freshness by trimethylamine headspace analysis. Journal of Food Science55(5): 1228–1232.
54.
KyranaVRLougovoisVP (2002). Sensory, chemical and microbiological assessment of farm-raised European sea bass (Dicentrarchus labrax) stored in melting ice. International Journal of Food Science and Technology37(3): 319–328.
55.
KyranaVRLougovoisVPValsamisDS (1997). Assessment of shelf-life of maricultured githead seabream (Sparus aurata) stored in ice. International Journal of Food Science and Technology32(4): 339–347.
56.
ListonJStansbyMEOlcottHS(1963). Bacteriological and chemical basis for deteriorative. In: StansbyME (ed.) Industrial fishery technology. New York: Reinhold Publishing Co, 345–350.
57.
LutenJBMartinsdóttirE (1997). QIM: a European tool for fish freshness evaluation in the fishery chain. In: OlafsdóttirGLutenJDalgaardPCarecheMVerrez-BagnisVMartinsdóttirEHeiaK (eds). Methods to determine the freshness of fish in research and industry. Proceedings of the final meeting of the concerted action “Evaluation of fish freshness”, AIR3CT942283 (FAIR Programme of the EU) Nantes Conference. 12–14 November. Paris: International Institute of Refrigeration, 287–296.
58.
MartinsdóttirESveinsdóttirKLutenJBSchelvis-SmitRHyldigG (2001). Reference manual for the fish sector: sensory evaluation of fish freshness. The Netherlands: QIM Eurofish.
59.
MartinsdóttirE(2002). Quality management of stored fish. In: BremnerHA (ed.) Safety and quality issues in fish processing. Cambridge, England: Woodhead Publishing Limited, 360–378.
60.
MassaAEFernández CompasAYeannesMMancaE (2009). Determinación de la composición química y ácidos grasos de Engraulis anchoita en función de la zona de captura y algunas variables biológicas. Congreso Argentino de ciencia y tecnología de alimentos. Argentina: Concordia, Entre Ríos.
61.
MassaAEPaláciosDLParediMACrupkinM (2005). Postmortem changes in quality indices of ice stored flounder (Paralichthys patagonicus). Journal of Food Biochemistry29(5): 570–590.
62.
MassaAEYeannesMMancaE (2007). Ácidos grasos poliinsaturados de la serie Omega-3 en ejemplares bonaerenses y patagónicos de anchoíta argentina. Revista Aceites y Grasas17: 568–572.
63.
Massa AE, Palácios DL, Paredi MA and Crupkin M (2006). Análisis sensorial para evaluar la frescura y la calidad de la corvina rubia (Micropogonias furnieri) almacenada en hielo. In: Congreso internacional de ciencia y tecnología de los alimento, Córdoba, Argentina.
64.
Mazorra-ManzanoMAPacheco-AguılarRDıaz-RojasEILugo-SánchezME (2000). Postmortem changes in black skipjack muscle during storage in ice. Journal of Food Science65(5): 774–779.
65.
Nielsen J (1995). Assessment of fish quality. In: Huss HH (ed.) Quality and quality changes in fresh fish. FAO Fisheries Technical Paper 348. Rome: FAO, pp. 116–124.
66.
NishimotoJSuwetjaIKMikiH (1985). Estimation of keeping freshness period and practical storage life of mackerel muscle during storage at low temperatures. Memoirs of Faculty of Fisheries, Kagoshima University34(1): 89–96.
67.
OlafsdóttirGMartinsdóttirEOehlenschlagerJDalgaargPUndelandIMackieIM (1997). Method to evaluate fish freshness in research and industry. Trends in Food Science and Technology8(8): 258–265.
68.
OlafsdóttirGNesvadbaPDi NataleCCarecheMOehlenschlägerJTryggvadóttirSV (2004). Multisensor for fish quality determination. Trends Food Science and Technology15: 86–93.
69.
ÖzogulGÖzyurtFÖzogulEKuleyEPolatA (2005). Freshness assessment of European eel (Anguilla anguilla) by sensory, chemical and microbiological methods. Food Chemistry92(4): 745–751.
70.
ÖzogulYÖzogulFAlagozS (2007). Fatty acid profiles and fat contents of commercially important seawater and freshwater fish species of Turkey: a comparative study. Food Chemistry103(1): 217–223.
71.
ÖzogulYÖzogulFKuleyESerhat ÖzkutukAGökbulutCKöseS (2006). Biochemical, sensory and microbiological attributes of wild turbot (Scophthalmus maximus), from the Black Sea, during chilled storage. Food Chemistry99(4): 752–758.
72.
PamelaM (2001). Fish oil: nutrition. Pharmaceutical Journal265: 720–724.
73.
PapadopoulosVChouliaraIBadekaASavvaididINKontominasMG (2003). Effect of gutting on microbiological, chemical and sensory properties of aquacultured sea bass (Dicentrarchus labrax). Food Microbiology20(4): 411–420.
74.
Pastous-Madureira LS, Castello J, Prentice-Hernández C, Queiroz I, Santo ML, Ruiz WA, et al. (2009). Current and potential alternate food uses of the Argentine anchoita (Engraulis anchoita) in Argentina, Uruguay and Brazil. In: Hasan MR and Halwart M (eds) Fish as feed inputs for aquaculture. Practices, sustainability and implications. Fisheries and Aquaculture Technical Paper. Rome: Food and Agriculture Organization of the United Nations, pp. 269-289.
75.
Pedrosa-MenabritoARegensteinJM (1988). Shelf-life extension of fresh fish-a review. Part I- Spoilage of fish. Journal Food Quality11(2): 117–127.
76.
Pons-Sánchez-CascadoSVidal-CarouMCNunesMLVeciana-NoguésMT (2006). Sensory analysis to assess the freshness of Mediterranean anchovies (Engraulis encrasicholus) stored in ice. Food Control17(7): 564–569.
77.
QIM Eurofish. (2011). Overview of all QIM scientific publications. Available at: www.qim-eurofish.com (accessed February 2011).
78.
RuedaFMLopezJAMartinezFJZamoraSDivanachPKentouriM (1997). Fatty acids in muscle of wild and farmed red porgy, Pagrus pagrus. Aquaculture Nutrition3(3): 161–165.
79.
SaglikSImreS (2001). ω3 Fatty acids in some fish species from Turkey. Journal of Food Science66(2): 210–212.
SahenaFZaidulIJinapSSaariNJahurulHAbbasKNorulainiN (2009). PUFAs in fish: extraction, fractionation, importance in health. Comprehensive Reviews in Food Science and Food Safety8(2): 59–74.
82.
SchmedesAHolmerG (1989). A new thiobarbituric acid (TBA) method for determination of free malonaldehyde (MDA) and hydroperoxides selectively as a measure of lipid peroxidation. Journal of American Oil Chemistry Society66(6): 813–817.
83.
SchormüllerJ (1969). Schormüller, Handbuch der Lebensmittelchemie (Band IV). New York, Berlin, Heidelberg: Springer Verlag.
84.
ShamsudinSSalimonJ (2006). Physicochemical characteristics of aji-aji fish (Seriola nigrofasciata) lipids. Malaysian Journal of Analytical Sciences10(1): 55–58.
85.
ShearerKD (1994). Factors affecting the proximate composition of cultured fishes with emphasis on salmonids. Aquaculture119(1): 63–88.
SimopoulosAP (2009). Evolutionary aspects of the dietary omega-6:omega-3 fatty acid ratio: medical implications. World Review of Nutrition and Dietetics100: 1–21.
88.
SivertsenAHChuCKWangLCGodtliebsenFHeiaKNilsenH (2009). Ridge detection with application to automatic fish fillet inspection. Journal of Food Engineering90(3): 317–324.
89.
StansbyME (1967). Fish oils: their chemistry, technology, stability, nutritional properties and uses. Westport: The Avi Publishing Company, Inc.
90.
Statsoft Inc. (1998). Statistica Versión 6.0. Tulsa: Statsoft Inc.
91.
SuretteMEGillTALe BlanePJ (1988). Biochemical basis of postmortem nucleotide catabolism in cod (Gadus morhua) and its relationship to spoilage. Journal of Agricultural and Food Chemistry36(1): 19–22.
92.
SveinsdóttirKHyldigGMartinsdóttirEJorgensenBKristbergssonK (2003). Quality Index Method (QIM) scheme developed for farmed Atlantic salmon (Salmo salar). Food Quality and Preference14(3): 237–245.
93.
SykesAVOliveiraARDominguesPMCardosoCMAndradeJPNunesML (2009). Assessment of European cuttlefish (Sepia officinalis, L.) nutritional value and freshness under ice storage using a developed Quality Index Method (QIM) and biochemical methods. LWT - Food Science and Technology42(1): 424–432.
94.
TarladgisBGWattsBMYounathanMTDuganLR (1960). A distillation method for the quantitative determination of malonaldehyde in rancid foods. Journal of American Oil Chemistry Society37(1): 44–48.
95.
TeixeiraMSBorgesAFrancoRMClementeSCFreitasMQ (2009). Quality Index Method (QIM): development of a sensorial scheme for whitemouth croaker (Micropogonias furnieri). Revista Brasileira de Ciência Veterinária16(2): 83–88.
96.
Tironi V (2005). Rancidez oxidativa en salmón de mar (Pseudopercis semifasciata). Interacción lípidos oxidados- proteínas. PhD Thesis, Facultad de Ciencias Exactas de la Universidad Nacional de La Plata, La Plata, Argentina.
97.
UndelandIHallGLingnertH (1999). Lipid oxidation in fillets of herring (Clupea harengus) during ice storage. Journal of the Agricultural and Food Chemistry47(2): 524–532.
98.
UndelandIHarrodMLingnertH (1998). Comparison between methods using low toxicity solvents for the extraction of lipids from herring (Clupea harengus). Food Chemistry61(3): 355–365.
99.
ValenzuelaBASanhuezaCJ (2009). Aceites de origen marino; su importancia en la nutrición y en la ciencia de alimentos. Revista Chilena de Nutrición36(3): 246–257.
100.
VasACParadaCPalmaEMuelbertJHCamposEJ (2007). Modeling transport and retention of Engraulis anchoita Hubbs and Marini, 1935 (Clupeiformes, Engraulidae) early life stages along the Southwestern Atlantic continental shelf. Pan-American Journal of Aquatic Sciences2(2): 179–190.
101.
WeaverBJHolubBJ (1988). Health effects and metabolism of dietary eicosapentaenoic acid. Programme Food Nutrition Science12(2): 111–150.
102.
XiongY (1994). Myofibrillar protein from different muscle fiber types: Implications of biochemical and functional properties in meat processing. Critical Review in Food Science Nutrition34(3): 293–320.
103.
YeannesMIAlmandosME (2003). Estimation of fish proximate composition starting from water content. Journal Food Composition and Analysis16(1): 81– 92.
104.
YeannesMICasalesMR (1995). Estudio de las variables de proceso de marinados de anchoíta. (Engraulis anchoita). Alimentaria Mayo (262): 87-91.
105.
YeannesMICasalesMR (2008). Modifications in the Chemicals compounds and sensorial attributes of Engraulis anchoita fillet during marinating process. Ciência e Tecnologia de Alimentos28(4): 798–803.
