Olive oil classification

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Presentation transcript:

Olive oil classification Quality Assessment of Oil from Olive Trees Irrigated by Waste Water Using Fluorescence Spectroscopy Wala’. A. Droubi1, Samar. Alshakshir1, Issam. R. Abdelraziq2, Hikmat. S. Hilal1 and Ahed Zyoud1 1Chemistry Dept, 2Physics Dept. An-Najah National University, Nablus, West Bank, Palestine This study is the first time to be conducted in Palestine. It gives an indication about the quality assessment of oil from olive trees irrigated by waste water using fluorescence spectroscopy. Results presented in this work, show the ability to analyze olive oil samples of trees irrigated by different systems (rain water, reclaimed waste water and waste watery) by fluorescence spectroscopy which is a very cheap and easy method. The effect of physical properties: viscosity, acidity, and mass density is also studied. The results from emission spectra of olive oil samples indicated that the olive oil sample irrigated by rain water contains vitamin E more than other samples irrigated by other two systems. The olive oil sample irrigated by waste water contains chlorophyll more than that for reclaimed waste water than that for rain water. Results: Abstract: The physical properties of samples of trees irrigated by different systems of crop 2014. Fluorescence spectra results Viscosity results Mass density results Fig. (1): Emission spectra of olive oil samples irrigated by different systems of crop 2014 with λex = 350 nm. Fig.(4): The density of samples of trees irrigated by different systems at different temperatures of crop 2014. Fig.(3): The viscosity of samples of trees irrigated by different systems at different temperatures of crop 2014. Table(1): Fluorescence properties of olive oil components in samples irrigated by different systems at different excitation wavelengths. Intensity A14 Intensity D14 Intensity M14 λem [nm] λex Olive oil components 0.123 0.061 0.219 320 295 α-Tocopherol Vitamin E 0.133 0.053 0.225 322 297 β-Tocopherol δ-Tocopherol γ- Tocopherol 6.504 18.047 6.177 668 436 Chlorophyll a Chlorophylls 17.824 42.397 13.719 669 405 Chlorophyll b 0.003 0.014 349 270 Vanillic acid Phenolic compounds 0.025 0.022 0.001 420 Tyrosol 0.038 0.035 0.005 457 Caffeic acid Comparing the physical properties of the same region samples irrigated by rain water at different crops. Acidity results Table (2): The acidity results and classification of olive oil samples of two different crops 2014 and 2013. Table (3): Measured viscosity, density and acidity of olive oil samples (H14 and H13), with trees irrigated by rain water of crops 2014 and 2013. To analyze olive oil samples of trees irrigated by rain water, reclaimed waste water and waste water by fluorescence spectroscopy technique . To analyze olive oil samples of trees irrigated by rain water, reclaimed waste water and waste water by UV-Visible spectrophotometer technique at different temperatures. To study the chemical and physical properties of olive oil samples irrigated by )rain, reclaimed and waste water(, such as viscosity, density and acidity at different temperatures and to compare the properties of samples with the standard values. Region Type of irrigation Sample Crops %FF A Olive oil classification Deir Sharaf Waste water D14 2014 3.79 Lampante oil Anabta Reclaimed waste water A14 2.95 Ordinary virgin olive oil Misseli Rain water M14 1.89 Virgin olive oil M13 2013 2.32 Hawara H14 1.69 H13 Technical objectives: Temperature (°C) Viscosity(cP) of H14 Density in (g/cm3) of H14 Acidity (%FFA) of H14 15 93.9 0.9167 1.69 at room temperature 20 73.3 0.9161 25 55.8 0.9123 30 43.1 0.9101 35 33.4 0.9061 40 25.8 0.9021 45 19.9 0.8973 50 14.8 0.8952 Viscosity(cP) of H13 Density in (g/cm3) of H13 Acidity (%FFA) of H13 87.5 0.9164 2.32 at room temperature 66.6 0.9157 50.8 0.9120 38.8 0.9100 0.9058 23 0.9017 17.5 0.8962 14.5 0.8935 UV-Visible Spectrophotometer results Conclusions: The results from emission spectra of olive oil samples irrigated by rain water contains vitamin E more than other samples irrigated by other two systems. The results from absorption spectra of olive oil sample of trees irrigated by waste water contains amounts of chlorophylls more than other samples of trees irrigated by rain and reclaimed waste water. The viscosities for the samples irrigated by waste water of crop 2014 were greater than the viscosities of olive oil irrigated by reclaimed water and rain water at different temperatures. The acidity of olive oil samples of trees irrigated by waste water of crop 2014 is (3.79) and classified as Lampante oil. The acidity of olive oil samples of trees irrigated by rain water of crop 2014 is (1.69) and classified as virgin olive oil. The densities of olive oil samples of trees irrigated by rain water for crop 2014 were lower than samples of trees irrigated by waste water for crop 2014 at different temperatures. The viscosities, densities and refractive indices of olive oil samples irrigated by different systems decreased as temperatures increased. Fig. (2): Absorption spectra of olive oil samples irrigated by different systems at room temperature of crop 2014. References Wala’ A. Droube M.A. An-Najah N. University, Nablus, Palestine Tel.: 00970 599040731 Email: nahralamal1990@ gmail.com For more information contact: Boskou D., "Olive Oil", World Review of Nutrition and Dietetics, 97, 180–210, (2007). Sikorska E, Khmelinskii I and Sikorski M., "Analysis of Olive Oils by Fluorescence Spectroscopy: Methods and Applications, Olive Oil - Constituents, Quality, Health Properties and Bioconversions, ISBN: 978-953-307-921-9, (2012). Scott S. M., James D., Ali Z., O’Hare W. T. & Rowell F. J., "Total Luminescence Spectroscopy With Pattern Recognition for Classification of Edible Oils", 128(7), 966-973, ISSN 0003-2654, (2003). Kongbonga Y. G. M, Ghalila H, Onana M. B, Majdi Y, Ben Lakhdar Z, Mezlini H, Sevestre-Ghalila S, "Characterization of Vegetable Oils by Fluorescence Spectroscopy", Food and Nutrition Sciences, 2, 692-699, (2011). Commission of the European Communities, Regulation No: 2568/91, "On the characteristics of olive oil and olive-residue oil and on the relevant methods of analysis". Official Journal of the European Commission No:L248, (1991). IOOC "Trade Standards Applying to Olive Oil and Olive Pomace Oil", COI/T.15/NC, (2); Madrid: International Olive Oil Council, (1999).