6 References
1. Samaram, S.; Mirhosseini, H.; Tan, C. P.; Ghazali, H. M.,
Ultrasound-assisted extraction and solvent extraction of papaya seed
oil: Crystallization and thermal behavior, saturation degree, color and
oxidative stability. Industrial Crops and Products 2014,52, 702-708.
2. Barbut, S.; Youssef, M. K., Effect of Gradual Heating and Fat/Oil
Type on Fat Stability, Texture, Color, and Microstructure of Meat
Batters. Journal of Food Science 2016, 81, (9),
C2199-C2205.
3. de Almeida, M. M. C.; Francisco, C. R. L.; de Oliveira, A.; de
Campos, S. S.; Bilck, A. P.; Fuchs, R. H. B.; Gonçalves, O. H.;
Velderrama, P.; Genena, A. K.; Leimann, F. V., Textural, Color,
Hygroscopic, Lipid Oxidation, and Sensory Properties of Cookies
Containing Free and Microencapsulated Chia Oil. Food and
Bioprocess Technology 2018, 11, (5), 926-939.
4. Muzzio, C. R.; Díaz, R. J.; Dini, N. G., In-line measurement of
sunflower oil color in the Lovibond scale using a low-cost robust
device. Journal of Food Engineering 2014, 120, 88-93.
5. Leong, Y. S.; Ker, P. J.; Jamaludin, M. Z.; Nomanbhay, S. M.; Ismail,
A.; Abdullah, F.; Looe, H. M.; Lo, C. K., UV-Vis Spectroscopy: A New
Approach for Assessing the Color Index of Transformer Insulating Oil.Sensor 2018, 18, (7), 2175.
6. Yong, J.; Chen, F.; Yang, Q.; Bian, H.; Du, G.; Shan, C.; Huo, J.;
Fang, Y.; Hou, X., Oil-Water Separation: A Gift from the Desert.Advanced Materials Interfaces 2016, 3, (7), 1500650.
7. Story, B. W.; Kalichevsky, V. A., Photoelectric Colorimeter for
Measuring Color Intensities of Liquid Petroleum Products.Industrial & Engineering Chemistry Analytical Edition1933, 5, (3), 214-217.
8. Lykken, L.; Treseder, R. S.; Zahn, V., Colorimetric Determination of
Phenols. Application to Petroleum and Allied Products. Industrial
& Engineering Chemistry Analytical Edition 1946, 18, (2),
103-109.
9. Oje, O.; Ubani, C.; Onwurah, I., Variation in the Carbon (C),
Phosphorus (P) and Nitrogen (N) Utilization during the Biodegradation of
Crude Oil in Soil. Journal of Petroleum and Environmental
Biotechnology 2018, 6, (2), 1000206.
10. Fei, Y.; Wu, N.; Ma, J.; Hao, J., Thermal cracking of poly α-olefin
aviation lubricating base oil. IOP Conference Series: Earth and
Environmental Science 2018, 121, (2), 022031.
11. Ma, J.; Fei, Y.; Wu, N.; Sun, S.; Wang, Y., The influence of high
temperature oxidation on molecular structure and performance of aviation
base oils. Asia-Pac. J. Chem. Eng. 2018, 14, (1), e2273.
12. Wu, N.; Zong, Z.; Fei, Y.; Ma, J.; Guo, F., Thermal Degradation of
Aviation Synthetic Lubricating Base Oil. Petroleum Chemistry2018, 58, (3), 250-257.
13. Gough, M. A.; Rowland, S. J., Characterization of unresolved complex
mixtures of hydrocarbons in petroleum. Nature 1990, 344,
648-650.
14. Santos, J. C. O.; Santos, I. M. G.; Souza, A. G., Thermal
Degradation Process of Synthetic Lubricating Oils: Part
I—Spectroscopic Study. Petroleum Science and Technology2015, 33, (11), 1238-1245.
15. Wang, J.; Zhang, B.; Zhong, Z.; Ding, K.; Deng, A.; Min, M.; Chen,
P.; Ruan, R., Catalytic fast co-pyrolysis of bamboo residual and waste
lubricating oil over an ex-situ dual catalytic beds of MgO and HZSM-5:
Analytical PY-GC/MS study. Energy Conversion and Management2017, 139, 222-231.
16. Yang, C.; Yang, Z.; Zhang, G.; Hollebone, B.; Landriault, M.; Wang,
Z.; Lambert, P.; Brown, C. E., Characterization and differentiation of
chemical fingerprints of virgin and used lubricating oils for
identification of contamination or adulteration sources. Fuel2016, 163, 271-281.