Biodiesel fuels

Progress in Energy and Combustion Science

Volumn 58, Issue , 2017, Pages 36-59

  Knothe, Gerhard ^a   Razon, Luis F ^b  

^a NATIONAL CENTER FOR AGRICULTURAL UTILIZATION RESEARCH   (United States)

^b DE LA SALLE UNIVERSITY   (Philippines)

Author keywords

Biodiesel; Biodiesel feedstocks; Fatty acid methyl esters; Fuel properties; Property optimization

Indexed keywords

BIODIESEL; DIESEL ENGINES; DIESEL FUELS; ESTERS; FEEDSTOCKS; FUELS;

BIODIESEL FEEDSTOCK; BIODIESEL PRODUCTION; COMPRESSION IGNITION ENGINE; FATTY ACID COMPOSITION; FATTY ACID METHYL ESTER; FATTY ACID PROFILES; FUEL PROPERTIES; INDIVIDUAL COMPONENTS;

FATTY ACIDS;

EID: 84995390278     PISSN: 03601285     EISSN: None     Source Type: Journal    
DOI: 10.1016/j.pecs.2016.08.001     Document Type: Review

References (350)

1. [1] Kovarik, W., Henry Ford, Charles Kettering and the “Fuel of the Future”. Automot Hist Rev 32 (1998), 7–27 http://www.environmentalhistory.org/billkovarik/about-bk/research/henry-ford-charles-kettering-and-the-fuel-of-the-future/.
2. [2] Knothe, G., Historical perspectives on vegetable oil-based diesel fuels. Inform 12:11 (2001), 1103–1107.
3. [3] Walton, J., The fuel possibilities of vegetable oils. Gas Oil Power 33 (1938), 167–168 Chem Abstr 1939;33:833.
4. [4] Chavanne, G., Procédé de transformation d'huiles végétales en vue de leur utilisation comme carburants (Procedure for the transformation of vegetable oils for their uses as fuels). Belgian Patent 422,877; 31 August, 1937 Chem Abstr 1938;32:43132.
5. [5] Chavanne, G., Sur un mode d'utilization possible de l'huile de palme à la fabrication d'un carburant lourd (A method of possible utilization of palm oil for the manufacture of a heavy fuel). Bulletin des Sociétés Chimiques, 10(52), 1943, 58 Chem Abstr 1944;38:21839.
6. [6] van den Abeele, M., L'huile de palme: matière première pour la préparation d'un carburant lourd utilisable dans les moteurs à combustion interne (Palm oil as raw material for the production of a heavy motor fuel). Bulletin Agricole du Congo Belge, 33(3), 1942, 90 Chemical Abstracts 1944;38:28051.
7. [7] Mittelbach, M., Remschmidt, C., Biodiesel – the comprehensive handbook. 2004, M Mittelbach, Graz, Austria.
8. [8] Knothe, G., Van Gerpen, J., Krahl, J., (eds.) The biodiesel handbook, 2010, AOCS Press, Urbana, IL.
9. [9] Bruwer, J.J., van d. Boshoff, B., Hugo, F.J.C., du Plessis, L.M., Fuls, J., Hawkins, C., et al. Sunflower seed oil as an extender for diesel fuel in agricultural tractors. Symp South Afr Inst Agr Engineers, 1980.
10. [10] Schwab, A.W., Bagby, M.O., Freedman, B., Preparation and properties of diesel fuels from vegetable oils. Fuel 66:10 (1987), 1372–1378.
11. [11] Huber, G.W., Corma, A., Synergies between bio- and oil refineries for the production of fuels from biomass. Angew Chem 46 (2007), 7184–7201.
12. [12] Knothe, G., Biodiesel and renewable diesel: a comparison. Progr Energy Combust Sci 36:3 (2010), 364–373.
13. [13] CEN (European Committee for Standardization). EN 14214. Automotive fuels – fatty acid methyl esters (FAME) for diesel engines – requirements and test methods. Brussels, Belgium: CEN.
14. [14] ASTM (American Society for Testing and Materials) International. D6751 Standard test method for biodiesel fuel blend stock (B100) for middle distillate fuels. ASTM, West Conshohocken, PA.
15. [15] ASTM (American Society for Testing and Materials) International. D7467 standard specification for diesel fuel oil, biodiesel blend (B6 to B20). ASTM, West Conshohocken, PA.
16. [16] ASTM (American Society for Testing and Materials) International. WK52154 new specification for biodiesel or biodiesel, diesel blends with greater than 20% biodiesel for use as a compression ignition fuel. ASTM, West Conshohocken, PA.
17. [17] ASTM (American Society for Testing and Materials) International. D975. Standard specification for diesel fuel oils. ASTM, West Conshohocken, PA.
18. [18] Staat, F., Vallet, E., Vegetable oil methyl ester as a diesel substitute. Chem Ind (London), 1994, 863–865.
19. [19] Mushrush, G., Beal, E.J., Spencer, G., Wynne, J.H., Lloyd, C.L., Hughes, J.M., et al. An environmentally benign soybean derived fuel as a blending stock or replacement for home heating oil. J Environ Sci Health A36 (2001), 613–622.
20. [20] Çetinkaya, M., Karaosmanoğlu, F., A new application area for used cooking oil originated biodiesel: generators. Energy Fuels 19:2 (2005), 645–652.
21. [21] Wichmann, H., Bahadir, M., Bio-based ester oils for use as lubricants in metal working. Clean 35:1 (2007), 49–51.
22. [22] Wehlmann, J., Use of esterified rapeseed oil as plasticizer in plastics processing. Fett/Lipid 101 (1999), 249–256.
23. [23] Bay, K., Wanko, H., Ulrich, J., Biodiesel – high-boiling absorbent for gas purification (biodiesel hoch siedendes absorbens für die gasreinigung). Chemie Ingenieur Technik 76 (2004), 328–333.
24. [24] Zhang, X., Peterson, C., Reece, D., Haws, R., Möller, G., Biodegradability of biodiesel in the aquatic environment. Trans ASAE 41 (1998), 1423–1430.
25. [25] DeMello, J.A., Carmichael, C.A., Peacock, E.E., Nelson, R.K., Arey, J.S., Reddy, C.M., Biodegradation and environmental behavior of biodiesel mixtures in the sea: an initial study. Marine Poll Bull 54 (2007), 894–904.
26. [26] Prince, R.C., Haitmanek, C., Lee, C.C., The primary aerobic biodegradation of biodiesel B20. Chemosphere 71 (2008), 1446–1451.
27. [27] Mudge, S.M., Shoreline treatment of spilled vegetable oils. Spill Sci Technol Bull 5 (1999), 303–304.
28. [28] Mudge, S.M., Pereira, G., Stimulating the biodegradation of crude oil with biodiesel preliminary results. Spill Sci Technol Bull 5 (1999), 353–355.
29. [29] Pereira, M.G., Mudge, S.M., Cleaning oiled shores: laboratory experiments testing the potential use of vegetable oil biodiesels. Chemosphere 54 (2004), 297–304.
30. [30] Fernández-Álvarez, P., Vila, J., Garrido, J.M., Grifoll, M., Feijoo, G., Lema, J.M., Evaluation of biodiesel as bioremediation agent for the treatment of the shore affected by the heavy oil spill of the Prestige. J Hazard Mater 147 (2007), 914–922.
31. [31] Ng, Y.F., Ge, L., Chan, W.K., Tan, S.N., Yong, J.W.H., Tan, T.T.Y., An environmentally friendly approach to treat oil spill: investigating the biodegradation of petrodiesel in the presence of different biodiesels. Fuel 139 (2015), 523–528.
32. [32] Passman, F.J., Microbial contamination and its control in fuels and fuel systems since 1980 – a review. Int Biodeterior Biodegrad 81 (2013), 88–104.
33. [33] Soriano, A.U., Martins, L.F., de Assumpção Ventura, E.S., Gerken de Landa, F.H.T., de Araújo Valoni, É., Dutra Faria, F.R., et al. Microbiological aspects of biodiesel and biodiesel/diesel blends biodeterioration. Int Biodeterior Biodegrad 99 (2015), 102–114.
34. [34] Pradhan, A., Shrestha, D.S., McAloon, A., Yee, W., Haas, M., Duffield, J.A., Energy life-cycle assessment of soybean biodiesel revisited. Trans ASABE 54 (2011), 1031–1039.
35. [35] Manik, Y., Halog, A., A meta-analytic review of life cycle assessment and flow analyses studies of palm oil biodiesel. Integr Environ Assess Manag 9 (2012), 134–141.
36. [36] Diesel, R., Die Entstehung des Dieselmotors. 1913, Verlag von Julius Springer, Berlin, Germany.
37. [37] Diesel, R., The diesel oil-engine. Engineering 93 (1912), 395–406 Chem Abstr 1912;6:1984.
38. [38] Diesel R. The diesel oil-engine and its industrial importance particularly for Great Britain. Proceedings of the Institution of Mechanical Engineers 1912;179–280. Chem Abstr 1913;7:1605.
39. [39] Diesel, E., Diesel – Der Mensch – das Werk – das Schicksal. 1937, Hanseatische Verlagsgesellschaft, Hamburg, Germany.
40. [40] National Biodiesel Board, Press release “U.S. Biodiesel Slumps in 2014 Amid Policy Uncertainty”. www.nbb.org http://nbb.org/news/nbb-press-releases/press-release-display/2015/01/15/u.s.-biodiesel-slumps-in-2014-amid-policy-uncertainty, 2015.
41. [41] European Biodiesel Board (EBB), www.ebb-eu.org Statistics. http://www.ebb-eu.org/stats.php#.
42. [42] REN 21 (Renewable Energy Policy Network for the 21st Century), Renewables 2015 global status report. http://www.ren21.net/wp-content/uploads/2015/07/REN12-GSR2015_Onlinebook_low1.pdf.
43. [43] Freedman, B., Pryde, E.H., Mounts, T.L., Variables affecting the yield of fatty esters from transesterified vegetable oils. J Am Oil Chem Soc 61:10 (1984), 1638–1643.
44. [44] Canakci, M., Van Gerpen, J., Biodiesel production from oils and fats with high free fatty acids. Trans ASAE 44:6 (2001), 1429–1436.
45. [45] Qiu, Z., Zhao, L., Weatherley, L., Process intensification technologies in continuous biodiesel production. Chem Eng Proc Proc Intensif 49 (2010), 323–330.
46. [46] Thompson, J.C., He, B.B., Biodiesel production using static mixers. Trans ASABE 50 (2007), 161–165.
47. [47] Xie, T.M., Zhang, L.X., Xu, N.P., Biodiesel synthesis in microreactors. Green Proc Synth 1 (2012), 61–70.
48. [48] Kalu, E.E., Chen, K.S., Gedris, T., Continuous-flow biodiesel production using slit-channel reactors. Bioresour Technol 102 (2011), 4456–4461.
49. [49] Harvey, A.P., Mackley, M.R., Seliger, T., Process intensification of biodiesel production using a continuous oscillatory flow reactor. J Chem Technol Biotechnol 78 (2003), 338–341.
50. [50] Lodha, H., Jachuck, R., Suppiah Singaram, S., Intensified biodiesel production using a rotating tube reactor. Energy Fuels 26 (2012), 7037–7040.
51. [51] Luo, J., Fang, Z., Smith, R.L. Jr, Ultrasound-enhanced conversion of biomass to biofuels. Prog Energy Combust Sci 41 (2014), 56–93.
52. [52] Gole, V.L., Gogate, P.R., A review on intensification of synthesis of biodiesel from sustainable feed stock using sonochemical reactors. Chem Eng Process Intensif 53 (2012), 1–9.
53. [53] Silva, C.D., Oliveira, J.V., Biodiesel production through non-catalytic supercritical transesterification: current state and perspectives. Brazil J Chem Eng 31 (2014), 271–285.
54. [54] Parvizsedghy, R., Sadrameli, S.M., Consequence modeling of hazardous accidents in a supercritical biodiesel plant. Appl Therm Eng 66 (2014), 282–289.
55. [55] Boocock, D.G.B., Konar, S.K., Mao, V., Lee, C., Buligan, S., Fast formation of high-purity methyl esters from vegetable oils. J Am Oil Chem Soc 75 (1998), 1167–1172.
56. [56] Guan, G., Sakurai, N., Kusakabe, K., Synthesis of biodiesel from sunflower oil at room temperature in the presence of various cosolvents. Chem Eng J 146 (2009), 302–306.
57. [57] Casas, A., Fernández, C.M., Ramos, M.J., Pérez, Á., Rodríguez, J.F., Optimization of the reaction parameters for fast pseudo single-phase transesterification of sunflower oil. Fuel 89 (2010), 650–658.
58. [58] Lee, A.F., Bennett, J.A., Manayil, J.C., Wilson, K., Heterogeneous catalysis for sustainable biodiesel production via esterification and transesterification. Chem Soc Rev 43 (2014), 7887–7916.
59. [59] Lee, A.F., Wilson, K., Recent developments in heterogeneous catalysis for the sustainable production of biodiesel. Catal Today 242 (2015), 3–18.
60. [60] Deshmane, V.G., Adewuyi, Y.G., Synthesis and kinetics of biodiesel formation via calcium methoxide base catalyzed transesterification reaction in the absence and presence of ultrasound. Fuel 107 (2013), 474–482.
61. [61] Lukić, I., Kesić, Ž., Maksimović, S., Zdujić, M., Liu, H., Krstić, J., et al. Kinetics of sunflower and used vegetable oil methanolysis catalyzed by CaO⋅ZnO. Fuel 113 (2013), 367–378.
62. [62] Tasić, M.B., Miladinović, M.R., Stamenković, O.S., Veljković, V.B., Skala, D.U., Kinetic modeling of sunflower oil methanolysis catalyzed by calcium-based catalysts. Chem Eng Technol 38 (2015), 1550–1556.
63. [63] Fjerbaek, L., Christensen, K.V., Norddahl, B., A review of the current state of biodiesel production using enzymatic transesterification. Biotechnol Bioeng 102 (2009), 1298–1315.
64. [64] Christopher, L.P., Kumar, H., Zambare, V.P., Enzymatic biodiesel: challenges and opportunities. Appl Energy 119 (2014), 497–520.
65. [65] Guldhe, A., Singh, B., Mutanda, T., Permaul, K., Bux, F., Advances in synthesis of biodiesel via enzyme catalysis: novel and sustainable approaches. Renew Sustain Energy Rev 41 (2015), 1447–1464.
66. [66] Jegannathan, K.R., Eng-Seng, C., Ravindra, P., Economic assessment of biodiesel production: comparison of alkali and biocatalyst processes. Renew Sustain Energy Rev 15 (2011), 745–751.
67. [67] Aguieiras, E.C.G., Cavalcanti-Oliveira, E.D., Freire, D.M.G., Current status and new developments of biodiesel production using fungal lipases. Fuel 159 (2015), 52–67.
68. [68] Muhammad, N., Elsheikh, Y.A., Mutalib, M.I.A., Bazmi, A.A., Khan, R.A., Khan, H., et al. An overview of the role of ionic liquids in biodiesel reactions. J Ind Eng Chem 21 (2015), 1–10.
69. [69] Haas, M.J., Scott, K.M., Marmer, W.N., Foglia, T.A., In situ alkaline transesterification: an effective method for the production of fatty acid esters from vegetable oils. J Am Oil Chem Soc 81 (2004), 83–89.
70. [70] Khang, D.S., Razon, L.F., Madrazo, C.F., Tan, R.R., In situ transesterification of coconut oil using mixtures of methanol and tetrahydrofuran. Chem Eng Res Des 92 (2014), 1512–1518.
71. [71] Park, J.-Y., Park, M.S., Lee, Y.-C., Yang, J.-W., Advances in direct transesterification of algal oils from wet biomass. Bioresour Technol 184 (2015), 267–275.
72. [72] Shuit, S.H., Ong, Y.T., Lee, K.T., Subhash, B., Tan, S.H., Membrane technology as a promising alternative in biodiesel production: a review. Biotechnol Adv 30 (2012), 1364–1380.
73. [73] Kiss, A.A., Heat-integrated reactive distillation process for synthesis of fatty esters. Fuel Proc Technol 92 (2011), 1288–1296.
74. [74] Noshadi, I., Amin, N.A.S., Parnas, R.S., Continuous production of biodiesel from waste cooking oil in a reactive distillation column catalyzed by solid heteropolyacid: optimization using response surface methodology (RSM). Fuel 94 (2012), 156–164.
75. [75] Sajjadi, B., Abdul Aziz, A.R., Ibrahim, S., Investigation, modelling and reviewing the effective parameters in microwave-assisted transesterification. Renew Sustain Energy Rev 37 (2014), 762–777.
76. [76] Pinzi, S., Leiva, D., López-García, I., Redel-Macías, M.D., Dorado, M.P., Latest trends in feedstocks for biodiesel production. Biofuels, Bioprod Biorefining 8 (2014), 126–143.
77. [77] Foidl, N., Foidl, G., Sanchez, M., Mittelbach, M., Hackel, S., Jatropha curcas L. as a source for the production of biofuel in Nicaragua. Bioresour Technol 58 (1996), 77–82.
78. [78] Wood, P., Out of Africa. Could Jatropha vegetable oil be Europe's biodiesel feedstock?. Refocus 6 (2005), 40–44.
79. [79] Kant, P., Wu, S., The extraordinary collapse of Jatropha as a global biofuel. Environ Sci Technol 45 (2011), 7114–7115.
80. [80] Afiff, S.A., Engineering the Jatropha hype in Indonesia. Sustainability 6 (2014), 1686–1704.
81. [81] von Maltitz, G., Gasparatos, A., Fabricius, C., The rise, fall and potential resilience benefits of Jatropha in Southern Africa. Sustainability 6 (2014), 3615–3643.
82. [82] Razon, L., Alternative crops for biodiesel feedstock. CAB Rev Perspect Agric Vet Sci Nutr Nat Resour 4 (2009), 1–15.
83. [83] Chu, J., Xu, X., Zhang, Y., Production and properties of biodiesel produced from Amygdalus pedunculata Pall. Bioresour Technol 134 (2013), 374–376.
84. [84] Branco, P.C., Castilho, P.C., Rosa, M.F., Ferreira, J., Characterization of Annona cherimola Mill. seed oil from Madeira Island: a possible biodiesel feedstock. J Am Oil Chem Soc 87:4 (2010), 429–436.
85. [85] Knothe, G., Avocado and olive oil methyl esters. Biomass Bioenergy 58 (2013), 143–148.
86. [86] Lima, J., Silva, R., Silva, C., Biodiesel from babassu (Orbignya sp.) synthesized via ethanolic route. Quim Nova 30 (2007), 600–603.
87. [87] Modiba, E., Osifo, P., Rutto, H., Biodiesel production from baobab (Adansonia digitata L.) seed kernel oil and its fuel properties. Ind Crops Prod 59 (2014), 50–54.
88. [88] Atapour, M., Kariminia, H.R., Characterization and transesterification of Iranian bitter almond oil for biodiesel production. Appl Energy 88 (2011), 2377–2381.
89. [89] Knothe, G., Fuel properties of methyl esters of borage and black currant oils containing methyl γ-linolenate. Eur J Lipid Sci Technol 115:8 (2013), 901–908.
90. [90] Fadhil, A.B., Ahmed, K.M., Dheyab, M.M., Silybum marianum L. seed oil: a novel feedstock for biodiesel production. Arab J Chem, 2012, 1–8.
91. [91] Jham, G.N., Moser, B.R., Shah, S.N., Holser, R.A., Dhingra, O.D., Vaughn, S.F., et al. Wild Brazilian mustard (Brassica juncea L.) seed oil methyl esters as biodiesel fuel. J Am Oil Chem Soc 86:9 (2009), 917–926.
92. [92] Encinar, J.M., Gonzalez, J.F., Sabio, E., Ramiro, M.J., Preparation and properties of biodiesel from Cynara cardunculus L. oil. Ind Eng Chem Res 38 (1999), 2927–2931.
93. [93] Gunawan, S., Wasista, H.W., Kuswandi, K., Widjaja, A., Ju, Y.-H., The utilization of Xylocarpus moluccensis seed oil as biodiesel feedstock in Indonesia. Ind Crops Prod 52 (2014), 286–291.
94. [94] Yang, F.X., Su, Y.Q., Li, X.H., Zhang, Q., Sun, R.C., Studies on the preparation of biodiesel from Zanthoxylum bungeanum Maxim seed oil. J Agric Food Chem 56 (2008), 7891–7896.
95. [95] Zhang, J., Jiang, L., Acid-catalyzed esterification of Zanthoxylum bungeanum seed oil with high free fatty acids for biodiesel production. Bioresour Technol 99 (2008), 8995–8998.
96. [96] Chakraborty, M., Baruah, D.C., Production and characterization of biodiesel obtained from Sapindus mukorossi kernel oil. Energy 60 (2013), 159–167.
97. [97] Wang, W., Lei, M., Jiang, J.-X., Jiang, L., Zhang, Z., Transesterified Chinese Spicehush (Lindera communis) seed oil as a biodiesel fuel. For Stud China 9 (2007), 132–136.
98. [98] Wang, R., Hanna, M.A., Zhou, W.W., Bhadury, P.S., Chen, Q., Song, B.A., et al. Production and selected fuel properties of biodiesel from promising non-edible oils: Euphorbia lathyris L., Sapium sebiferum L. and Jatropha curcas L. Bioresour Technol 102 (2011), 1194–1199.
99. [99] Oliveira, L.S., Franca, A.S., Camargos, R.R.S., Ferraz, V.P., Coffee oil as a potential feedstock for biodiesel production. Bioresour Technol 99 (2008), 3244–3250.
100. [100] Kondamudi, N., Mohapatra, S.K., Misra, M., Spent coffee grounds as a versatile source of green energy. J Agric Food Chem 56 (2008), 11757–11760.
101. [101] Moser, B.R., Vaughn, S.F., Coriander seed oil methyl esters as biodiesel fuel: unique fatty acid composition and excellent oxidative stability. Biomass Bioenergy 34 (2010), 550–558.
102. [102] Knothe, G., Cermak, S.C., Evangelista, R.L., Cuphea oil as source of biodiesel with improved fuel properties caused by high content of methyl decanoate. Energy Fuels 23 (2009), 1743–1747.
103. [103] Amani, M.A., Davoudi, M.S., Tahvildari, K., Nabavi, S.M., Davoudi, M.S., Biodiesel production from Phoenix dactylifera as a new feedstock. Ind Crops Prod 43 (2013), 40–43.
104. [104] Giwa, S.O., Chuah, L.A., Adam, N.M., Fuel properties and rheological behavior of biodiesel from egusi (Colocynthis citrullus L.) seed kernel oil. Fuel Proc Technol 122 (2014), 42–48.
105. [105] Moser, B.R., Knothe, G., Vaughn, S.F., Isbell, T.A., Production and evaluation of biodiesel from field pennycress (Thlaspi arvense L.) oil. Energy Fuels 23 (2009), 4149–4155.
106. [106] Nehdi, I.A., Sbihi, H., Tan, C.P., Al-Resayes, S.I., Garden cress (Lepidium sativum Linn.) seed oil as a potential feedstock for biodiesel production. Bioresour Technol 126 (2012), 193–197.
107. [107] Nehdi, I.A., Sbihi, H.M., Al-Resayes, S.I., Rhazya stricta Decne seed oil as an alternative, non-conventional feedstock for biodiesel production. Energy Convers Manag 81 (2014), 400–406.
108. [108] Moser, B.R., Preparation of fatty acid methyl esters from hazelnut, high-oleic peanut and walnut oils and evaluation as biodiesel. Fuel 92 (2012), 231–238.
109. [109] Li, S.Y., Stuart, J.D., Li, Y., Parnas, R.S., The feasibility of converting Cannabis sativa L. oil into biodiesel. Bioresour Technol 101 (2010), 8457–8460.
110. [110] Dodos, G.S., Karonis, D., Zannikos, F., Lois, E., Renewable fuels and lubricants from Lunaria annua L. Ind Crops Prod 75 (2015), 43–50.
111. [111] Reyes-Trejo, B., Guerra-Ramírez, D., Zuleta-Prada, H., Cuevas-Sánchez, J.A., Reyes, L., Reyes-Chumacero, A., et al. Annona diversifolia seed oil as a promising non-edible feedstock for biodiesel production. Ind Crops Prod 52 (2014), 400–404.
112. [112] Phoo, Z.W.M.M., Razon, L.F., Knothe, G., Ilham, Z., Goembira, F., Madrazo, C.F., et al. Evaluation of Indian milkweed (Calotropis gigantea) seed oil as alternative feedstock for biodiesel. Ind Crops Prod 54 (2014), 226–232.
113. [113] Wang, R., Zhou, W.-W., Hanna, M.A., Zhang, Y.-P., Bhadury, P.S., Wang, Y., et al. Biodiesel preparation, optimization, and fuel properties from non edible feedstock, Datura stramonium L. Fuel 91 (2012), 182–186.
114. [114] Rashid, U., Knothe, G., Yunus, R., Evangelista, R.L., Kapok oil methyl esters. Biomass Bioenergy 66 (2014), 419–425.
115. [115] Knothe, G., Razon, L.F., Bacani, F.T., Kenaf oil methyl esters. Ind Crops Prod 49 (2013), 568–572.
116. [116] Bahadur, I., Bux, F., Guldhe, A., Tumba, K., Singh, B., Ramjugernath, D., et al. Assessment of potential of Croton gratissimus oil for macroscale production of biodiesel based on thermophysical properties. Energy Fuels 28 (2014), 7576–7581.
117. [117] Knothe, G., Cermak, S.C., Evangelista, R.L., Methyl esters from vegetable oils with hydroxy fatty acids: comparison of lesquerella and castor methyl esters. Fuel 96 (2012), 535–540.
118. [118] Ajiwe, V.I.E., Ndukwe, G.I., Anyadiegwu, I.E., Vegetable diesel fuels from Luffa cylindrica oil, its methylester and ester diesel blends. ChemClass J 2 (2005), 1–4.
119. [119] Knothe, G., de Castro, M.E.G., Razon, L.F., Methyl esters (biodiesel) from and fatty acid profile of Gliricidia sepium seed oil. J Am Oil Chem Soc 92 (2015), 769–775.
120. [120] Rashid, U., Ibrahim, M., Yasin, S., Yunus, R., Taufiq-Yap, Y.H., Knothe, G., Biodiesel from Citrus reticulata (mandarin orange) seed oil, a potential non-food feedstock. Ind Crops Prod 45 (2013), 355–359.
121. [121] Gandure, J., Ketlogetswe, C., Temu, A., Fuel properties of biodiesel produced from selected plant kernel oils indigenous to Botswana: a comparative analysis. Renew Energy 68 (2014), 414–420.
122. [122] Kansedo, J., Lee, K.T., Bhatia, S., Cerbera odollam (sea mango) oil as a promising non-edible feedstock for biodiesel production. Fuel 88 (2009), 1148–1150.
123. [123] Holser, R.A., Harry-O'Kuru, R., Transesterified milkweed (Asclepias) seed oil as a biodiesel fuel. Fuel 85:14–15 (2006), 2106–2110.
124. [124] Rashid, U., Anwar, F., Knothe, G., Biodiesel from Milo (Thespesia populnea L.) seed oil. Biomass Bioenergy 35 (2011), 4034–4039.
125. [125] Rashid, U., Anwar, F., Moser, B.R., Knothe, G., Moringa oleifera oil: a possible source of biodiesel. Bioresour Technol 99 (2008), 8175–8179.
126. [126] Anwar, F., Rashid, U., Ashraf, M., Nadeem, M., Okra (Hibiscus esculentus) seed oil for biodiesel production. Appl Energy 87:3 (2010), 779–785.
127. [127] Moser, B.R., Eller, F.J., Tisserat, B.H., Gravett, A., Preparation of fatty acid methyl esters from Osage orange (Maclura pomifera) oil and evaluation as biodiesel. Energy Fuels 25 (2011), 1869–1877.
128. [128] Charvet, C.T.S.P., Duya, M.R.J.V., Miller, A.V.G., Razon, L.F., Evaluation of the biodiesel fuel properties of fatty acid methyl esters from Carica papaya L. Philipp Agric Scientist 94:1 (2011), 88–92.
129. [129] Borges, K.A., Batista, A.C.F., Rodrigues, H., Terrones, M.H., Vieira, A.T., de Oliveira, M.F., Production of methyl and ethyl biodiesel fuel from pequi oil (Caryocar brasiliensis Camb.). Chem Technol Fuels Oils 48:2 (2012), 83–89.
130. [130] Sanford, S.D., White, J.M., Shah, P.S., Wee, C., Valverde, M.A., Meier, G.R., (Renewable Energy Group, Ames, IA). Feedstock and biodiesel characteristics report [Internet]. Ames, Iowa: Renewable Energy Group, 136 p http://biodiesel.org/reports/20091117_gen-398.pdf, 2009 accessed 27.09.16.
131. [131] Bicol, J.P.G., Razon, L.F., Evaluation of biodiesel from Canarium ovatum (pili) pulp oil and Psophocarpus tetragonolobus (winged bean) seed oil. Philipp Agric Sci 90 (2007), 215–221.
132. [132] Schinas, P., Karavalakis, G., Davaris, C., Anastopoulos, G., Karonis, D., Zannikos, F., et al. Pumpkin (Cucurbita pepo L.) seed oil as an alternative feedstock for the production of biodiesel in Greece. Biomass Bioenergy 33:1 (2009), 44–49.
133. [133] Moser, B.R., Winkler-Moser, J.K., Shah, S.N., Vaughn, S.F., Composition and physical properties of arugula, shepherd's purse, and upland cress oils. Eur J Lipid Sci Technol 112 (2010), 734–740.
134. [134] Nakpong, P., Wootthikanokkhan, S., High free fatty acid coconut oil as a potential feedstock for biodiesel production in Thailand. Renew Energy 35 (2010), 1682–1687.
135. [135] Chang, F., Hanna, M.A., Zhang, D.-J., Li, H., Zhou, Q., Song, B.-A., et al. Production of biodiesel from non-edible herbaceous vegetable oil: Xanthium sibiricum Patr. Bioresour Technol 140 (2013), 435–438.
136. [136] Moser, B.R., Dien, B.S., Seliskar, D.M., Gallagher, J.L., Seashore mallow (Kosteletzkya pentacarpos) as a salt-tolerant feedstock for production of biodiesel and ethanol. Renew Energy 50 (2013), 833–839.
137. [137] Knothe, G., Moser, B.R., Fatty acid profile of seashore mallow (Kosteletzkya pentacarpos) seed oil and properties of the methyl esters. Eur J Lipid Sci Technol 117 (2015), 1287–1294.
138. [138] Nehdi, I.A., Sbihi, H.M., Mokbli, S., Rashid, U., Al-Resayes, S.I., Yucca aloifolia oil methyl esters. Ind Crops Prod 69 (2015), 257–262.
139. [139] Stavarache, C.E., Morris, J., Maeda, Y., Oyane, I., Vinatoru, M., Syringa (Melia azedarach L.) berries oil: a potential source for biodiesel fuel. Rev Chim 59 (2008), 672–677.
140. [140] Giuffrè, A.M., Capocasale, M., Zappia, C., Sicari, V., Pellicanò, T.M., Poiana, M., et al. Tomato seed oil for biodiesel production. Eur J Lipid Sci Technol 118 (2016), 640–650.
141. [141] dos Santos, I.C.F., de Carvalho, S.H.V., Solleti, J.I., Ferreira de La Salles, W., Teixeira da Silva de La Salles, K., Meneghetti, S.M.P., Studies of Terminalia catappa L. oil: characterization and biodiesel production. Bioresour Technol 99 (2008), 6545–6549.
142. [142] Lima, J.R.D.O., da Silva, R.B., Miranda de Moura, E., Rodarte de Moura, C.V., Biodiesel of tucum oil, synthesized by methanolic and ethanolic routes. Fuel 87 (2008), 1718–1723.
143. [143] Park, J.Y., Kim, D.K., Wang, Z.M., Lu, P., Park, S.C., Lee, J.S., Production and characterization of biodiesel from tung oil. Appl Biochem Biotechnol 148 (2008), 109–117.
144. [144] Ciubota-Rosie, C., Macoveanu, M., Fernández, C.M., Ramos, M.J., Pérez, A., Moreno, A., Sinapis alba seed as a prospective biodiesel source. Biomass Bioenergy 51 (2013), 83–90.
145. [145] Yang, F.-X., Su, Y.-Q., Li, X.-H., Zhang, Q., Sun, T.-C., Preparation of biodiesel from Idesia polycarpa var. vestita fruit oil. Industr Crops Prods 29:2–3 (2009), 622–628.
146. [146] Zhang, H.Y., Hanna, M.A., Ali, Y., Nan, L., Yellow nut-sedge (Cyperus esculentus L.) tuber oil as a fuel. Ind Crops Prod 5 (1996), 177–181.
147. [147] Deka, D.C., Basumatary, S., High quality biodiesel from yellow oleander (Thevetia peruviana) seed oil. Biomass Bioenergy 35 (2011), 1797–1803.
148. [148] Gumus, M., Kasifoglu, S., Performance and emission evaluation of a compression ignition engine using a biodiesel (apricot seed kernel oil methyl ester) and its blends with diesel fuel. Biomass Bioenergy 34 (2010), 134–139.
149. [149] Chakraborty, R., Gupta, A.K., Chowdhury, R., Conversion of slaughterhouse and poultry farm animal fats and wastes to biodiesel: parametric sensitivity and fuel quality assessment. Renew Sustain Energy Rev 29 (2014), 120–134.
150. [150] Moser, B.R., Vaughn, S.F., Evaluation of alkyl esters from Camelina sativa oil as biodiesel and as blend components in ultra low-sulfur diesel fuel. Bioresour Technol 101 (2010), 646–653.
151. [151] Drenth, A.C., Olsen, D.B., Cabot, P.E., Johnson, J.J., Compression ignition engine performance and emission evaluation of industrial oilseed biofuel feedstocks camelina, carinata, and pennycress across three fuel pathways. Fuel 136 (2014), 143–155.
152. [152] Özçelik, A.E., Aydoğan, H., Acaroğlu, M., Determining the performance, emission and combustion properties of camelina biodiesel blends. Energy Convers Manag 96 (2015), 47–57.
153. [153] Zapata, N., Vargas, M., Reyes, J.F., Belmar, G., Quality of biodiesel and press cake obtained from Euphorbia lathyris, Brassica napus and Ricinus communis. Ind Crops Prod 38 (2012), 1–5.
154. [154] Islam, S., Ahmed, A.S., Islam, A., Aziz, S.A., Xian, L.C., Mridha, M., Study on emission and performance of diesel engine using castor biodiesel. J Chem 2014 (2014), 1–8.
155. [155] Zhang, H., Zhou, Q., Chang, F., Pan, H., Liu, X.-F., Li, H., et al. Production and fuel properties of biodiesel from Firmiana platanifolia L.f. as a potential non-food oil source. Ind Crops Prod 76 (2015), 768–771.
156. [156] Qin, S., Sun, Y., Shi, C., He, L., Meng, Y., Ren, X., Deacidification of Pistacia chinensis oil as a promising non-edible feedstock for biodiesel production in China. Energies 5 (2012), 2759–2770.
157. [157] Chapagain, B.P., Yehoshua, Y., Wiesman, Z., Desert date (Balanites aegyptiaca) as an arid lands sustainable bioresource for biodiesel. Bioresour Technol 100:3 (2009), 1221–1226.
158. [158] Cardone, M., Mazzoncini, M., Menini, S., Rocco, V., Senatore, A., Seggiani, M., et al. Brassica carinata as an alternative oil crop for the production of biodiesel in Italy: agronomic evaluation, fuel production by transesterification and characterization. Biomass Bioenergy 25 (2003), 623–636.
159. [159] Gumus, M., A comprehensive experimental investigation of combustion and heat release characteristics of a biodiesel (hazelnut kernel oil methyl ester) fueled direct injection compression ignition engine. Fuel 89 (2010), 2802–2814.
160. [160] Ashraful, A.M., Masjuki, H.H., Kalam, M.A., Rizwanul Fattah, I.M., Imtenan, S., Shahir, S.A., et al. Production and comparison of fuel properties, engine performance, and emission characteristics of biodiesel from various non-edible vegetable oils: a review. Energy Convers Manag 80 (2014), 202–228.
161. [161] Takase, M., Zhao, T., Zhang, M., Chen, Y., Liu, H., Yang, L., et al. An expatiate review of neem, jatropha, rubber and karanja as multipurpose non-edible biodiesel resources and comparison of their fuel, engine and emission properties. Renew Sustain Energy Rev 43 (2015), 495–520.
162. [162] Scott, P.T., Preglj, L., Chen, N., Hadler, J.S., Djordjevic, M.A., Gresshoff, P.M., Pongamia pinnata: an untapped resource for the biofuels industry of the future. Bioenergy Research 1 (2008), 2–11.
163. [163] Serin, H., Akar, N.Y., The performance and emissions of a diesel engine fueled with tea seed (Camellia sinensis) oil biodiesel-diesel fuel blends. Int J Green Energy 11 (2013), 292–301.
164. [164] Silitonga, A.S., Masjuki, H.H., Mahlia, T.M.I., Ong, H.C., Kusumo, F., Aditiya, H.B., et al. Schleichera oleosa L oil as feedstock for biodiesel production. Fuel 156 (2015), 63–70.
165. [165] Sharma, Y.C., Singh, B., An ideal feedstock, Kusum (Schleichera trijuga) for preparation of biodiesel. Optimization of parameters. Fuel 89 (2010), 1470–1474.
166. [166] Agarwal, D., Kumar, L., Agarwal, A.K., Performance evaluation of a vegetable oil fuelled compression ignition engine. Renew Energy 33 (2008), 1147–1156.
167. [167] Solaimuthu, C., Ganesan, V., Senthilkumar, D., Ramasamy, K.K., Emission reductions studies of a biodiesel engine using EGR and SCR for agriculture operations in developing countries. Appl Energy 138 (2015), 91–98.
168. [168] Wang, L., Properties of Manchurian apricot (Prunus mandshurica Skv.) and Siberian apricot (Prunus sibirica L.) seed kernel oils and evaluation as biodiesel feedstocks. Ind Crops Prod 50 (2013), 838–843.
169. [169] Rashed, M.M., Kalam, M.A., Masjuki, H.H., Mofijur, M., Rasul, M.G., Zulkifli, N.W.M., Performance and emission characteristics of a diesel engine fueled with palm, jatropha, and moringa oil methyl ester. Ind Crops Prod 79 (2016), 70–76.
170. [170] Kivevele, T.T., Kristóf, L., Bereczky, Á., Mbarawa, M.M., Engine performance, exhaust emissions and combustion characteristics of a CI engine fuelled with Croton megalocarpus methyl ester with antioxidant. Fuel 90 (2011), 2782–2789.
171. [171] Aliyu, B., Shitanda, D., Walker, S., Agnew, B., Masheiti, S., Atan, R., Performance and exhaust emissions of a diesel engine fuelled with Croton megalocarpus (musine) methyl ester. Appl Therm Eng 31 (2011), 36–41.
172. [172] Nabi, M.N., Akhter, M.S., Zaglul Shahadat, M.M., Improvement of engine emissions with conventional diesel fuel and diesel–biodiesel blends. Bioresour Technol 97 (2006), 372–378.
173. [173] Sarin, R., Sharma, M., Khan, A.A., Studies on Guizotia abyssinica L. oil: biodiesel synthesis and process optimization. Bioresour Technol 100 (2009), 4187–4192.
174. [174] Redel-Macías, M.D., Pinzi, S., Leiva, D., Cubero-Atienza, A.J., Dorado, M.P., Air and noise pollution of a diesel engine fueled with olive pomace oil methyl ester and petrodiesel blends. Fuel 95 (2012), 615–621.
175. [175] Devan, P.K., Mahalakshmi, N.V., Utilization of unattended methyl ester of paradise oil as fuel in diesel engine. Fuel 88 (2009), 1828–1833.
176. [176] Kaul, S., Saxena, R.C., Kumar, A., Negi, M.S., Bhatnagar, A.K., Goyal, H.B., et al. Corrosion behavior of biodiesel from seed oils of Indian origin on diesel engine parts. Fuel Proc Technol 88 (2007), 303–307.
177. [177] Atabani, A.E., César, A., Calophyllum inophyllum L. – a prospective non-edible biodiesel feedstock. Study of biodiesel production, properties, fatty acid composition, blending and engine performance. Renew Sustain Energy Rev 37 (2014), 644–655.
178. [178] Devan, P.K., Mahalakshmi, N.V., Study of the performance, emission and combustion characteristics of a diesel engine using poon oil-based fuels. Fuel Proc Technol 90 (2009), 513–519.
179. [179] Bindhu, C., Reddy, J.R.C., Rao, B.V.S.K., Ravinder, T., Chakrabarti, P.P., Karuna, M.S.L., et al. Preparation and evaluation of biodiesel from Sterculia foetida seed oil. J Am Oil Chem Soc 89 (2012), 891–896.
180. [180] Chammoun, N., Geller, D.P., Das, K.C., Fuel properties, performance testing and economic feasibility of Raphanus sativus (oilseed radish) biodiesel. Ind Crops Prod 45 (2013), 155–159.
181. [181] Shah, S.N., Iha, O.K., Alves, F.C.S.C., Sharma, B.K., Erhan, S.Z., Suarez, P.A.Z., Potential application of turnip oil (Raphanus sativus L.) for biodiesel production: physical–chemical properties of neat oil, biofuels and their blends with ultra low sulphur diesel (ULSD). Bioener Res 6:2 (2013), 841–850.
182. [182] Cao, L., Zhang, S., Production and characterization of biodiesel derived from Hodgsonia macrocarpa seed oil. Appl Energy 146 (2015), 135–140.
183. [183] Bora, B.J., Saha, U.K., Comparative assessment of a biogas run dual fuel diesel engine with rice bran oil methyl ester, pongamia oil methyl ester and palm oil methyl ester as pilot fuels. Renew Energy 81 (2015), 490–498.
184. [184] Li, S., Wang, Y., Dong, S., Chen, Y., Cao, F., Chai, F., et al. Biodiesel production from Eruca Sativa Gars vegetable oil and motor, emissions properties. Renew Energy 34:7 (2009), 1871–1876.
185. [185] Ikwuagwu, O.E., Ononogbu, I.C., Njoku, O.U., Production of biodiesel using rubber [Hevea brasiliensis (Kunth Muell.)] seed oil. Ind Crops Prod 12:1 (2000), 57–62.
186. [186] Rashid, U., Anwar, F., Production of biodiesel through base-catalyzed transesterification of safflower oil using an optimized protocol. Energy Fuels 22 (2008), 1306–1312.
187. [187] Banapurmath, N.R., Tewari, P.G., Hosmath, R.S., Performance and emission characteristics of a DI compression ignition engine operated on Honge, Jatropha and sesame oil methyl esters. Renew Energy 33 (2008), 1982–1988.
188. [188] Saydut, A., Duz, M.Z., Kaya, C., Kafadar, A.B., Hamamci, C., Transesterified sesame (Sesamum indicum L.) seed oil as a biodiesel fuel. Bioresour Technol 99 (2008), 6656–6660.
189. [189] Özcanlı, M., Keskin, A., Aydın, K., Biodiesel production from terebinth (Pistacia terebinthus) oil and its usage in diesel engine. Int J Green Energy 8 (2011), 518–528.
190. [190] Giannelos, P.N., Zannikos, F., Stournas, S., Lois, E., Anastopoulos, G., Tobacco seed oil as alternative diesel fuel: physical and chemical properties. Industr Crops Prods 16 (2002), 1–9.
191. [191] Jiao, J., Gai, Q.-Y., Wei, F.-Y., Luo, M., Wang, W., Fu, Y.-J., et al. Biodiesel from Forsythia suspense [(Thunb.) Vahl (Oleaceae)] seed oil. Bioresour Technol 143 (2013), 653–656.
192. [192] Li, J., Fu, Y.-J., Qu, X.-J., Wang, W., Luo, M., Zhao, C.-J., et al. Biodiesel production from yellow horn (Xanthoceras sorbifolia Bunge.) seed oil using ion exchange resin as heterogeneous catalyst. Bioresour Technol 108 (2012), 112–118.
193. [193] Sims, R.E.H., Tallow esters as an alternative diesel fuel. Trans ASAE 28 (1985), 716–721.
194. [194] Zheng, D., Hanna, M.A., Preparation and properties of methyl esters of beef tallow. Bioresour Technol 57:2 (1996), 137–142.
195. [195] Foglia, T.A., Nelson, L.A., Dunn, R.O., Marmer, W., Low-temperature properties of alkyl esters of tallow and grease. J Am Oil Chem Soc 74 (1997), 951–955.
196. [196] Banković-Ilić, I.B., Stojković, I.J., Stamenković, O.S., Veljkovic, V.B., Hung, Y.T., Waste animal fats as feedstocks for biodiesel production. Renew Sustain Energy Rev 32 (2014), 238–254.
197. [197] Adewale, P., Dumont, M.-J., Ngadi, M., Recent trends of biodiesel production from animal fat wastes and associated production techniques. Renew Sustain Energy Rev 45 (2015), 574–588.
198. [198] Knothe, G., A technical evaluation of biodiesel from vegetable oils vs. algae. Will algae-derived biodiesel perform?. Green Chem 13 (2011), 3048–3065.
199. [199] Haas, M.J., Adawi, N., Berry, W.W., Feldman, E., Kasprzyk, S., Ratigan, B., et al. Butter as a feedstock for biodiesel production. J Agric Food Chem 58:13–14 (2010), 7680–7684.
200. [200] Knothe, G., Steidley, K.R., A comparison of used cooking oils: a very heterogeneous feedstock for biodiesel. Bioresour Technol 100 (2009), 5796–5801.
201. [201] Huang, C., Chen, X., Xiong, L., Chen, X., Ma, L., Chen, Y., Single cell oil production from low-cost substrates: the possibility and potential of its industrialization. Biotechnol Adv 31 (2013), 129–139.
202. [202] Markou, G., Nerantzis, E., Microalgae for high-value compounds and biofuels production: a review with focus on cultivation under stress conditions. Biotechnol Adv 31 (2013), 1532–1542.
203. [203] Reijnders, L., Lipid-based liquid biofuels from autotrophic microalgae: energetic and environmental performance. Wiley Interdiscip Rev Energy Environ 2 (2013), 73–85.
204. [204] Chisti, Y., Constraints to commercialization of algal fuels. J Biotechnol 167 (2013), 201–214.
205. [205] Usher, P.K., Ross, A.B., Camargo-Valero, M.A., Tomlin, A.S., Gale, W.F., An overview of the potential environmental impacts of large-scale microalgae cultivation. Biofuels 5 (2014), 331–349.
206. [206] Biello, D., How to Survive as a biofuel-maker: sell algae to bakers. Scientific American [Internet] http://www.scientificamerican.com/article/how-to-survive-as-former-algae-biofuel-maker-solazyme/, 2013 accessed 27.09.16.
207. [207] Lam, M.K., Lee, K.T., Microalgae biofuels: a critical review of issues, problems and the way forward. Biotechnol Adv 30 (2012), 673–690.
208. [208] Olguín, E.J., Dual purpose microalgae–bacteria-based systems that treat wastewater and produce biodiesel and chemical products within a biorefinery. Biotechnol Adv 30 (2012), 1031–1046.
209. [209] Sitepu, I.R., Garay, L.A., Sestric, R., Levin, D., Block, D.E., German, J.B., et al. Oleaginous yeasts for biodiesel: current and future trends in biology and production. Biotechnol Adv 32 (2014), 1336–1360.
210. [210] Kosa, M., Ragauskas, A.J., Lipids from heterotrophic microbes: advances in metabolism research. Trends Biotechnol 29 (2011), 53–61.
211. [211] Čičková, H., Newton, G.L., Lacy, R.C., Kozánek, M., The use of fly larvae for organic waste treatment. Waste Manag 35 (2015), 68–80.
212. [212] Manzano-Agugliaro, F., Sanchez-Muros, M.J., Barroso, F.G., Martínez-Sánchez, A., Rojo, S., Pérez-Bañón, C., Insects for biodiesel production. Renew Sustain Energy Rev 16 (2012), 3744–3753.
213. [213] Zheng, L., Li, Q., Zhang, J., Yu, Z., Double the biodiesel yield: rearing black soldier fly larvae, Hermetia illucens, on solid residual fraction of restaurant waste after grease extraction for biodiesel production. Renew Energy 41 (2012), 75–79.
214. [214] ASTM (American Society for Testing and Materials) International. D6584 standard test method for determination of total monoglycerides, total diglycerides, total triglycerides, and free and total glycerin in B-100 biodiesel methyl esters by gas chromatography. ASTM, West Conshohocken, PA.
215. [215] CEN (European Committee for Standardization). EN 14105. Fat and oil derivatives. Fatty acid methyl esters (FAME). Determination of free and total glycerol and mono-, di-, tri-glyceride contents. Brussels, Belgium: CEN.
216. [216] Knothe, G., Analyzing biodiesel: standards and other methods. J Am Oil Chem Soc 83 (2006), 823–833.
217. [217] Monteiro, M.R., Ambrozin, A.R.P., Lião, L.M., Ferreira, A.G., Critical review on analytical methods for biodiesel characterization. Talanta 77:2 (2008), 593–605.
218. [218] He, B., Van Gerpen, J., Analyzing biodiesel for contaminants and moisture retention. Biofuels 3:3 (2012), 351–360.
219. [219] Lepri, F.G., Chaves, E.S., Vieira, M.A., Ribeiro, A.S., Curtius, A.J., De Oliveira, L.C.C., et al. Determination of trace elements in vegetable oils and biodiesel by atomic spectrometric techniques – a review. Appl Spectros Rev 46 (2011), 175–206.
220. [220] Zhang, W.-B., Review on analysis of biodiesel with infrared spectroscopy. Renew Sustain Energy Rev 16 (2012), 6048–6058.
221. [221] ASTM (American Society for Testing and Materials) International. D7371 standard test method for determination of biodiesel (fatty acid methyl esters) content in diesel fuel oil using mid infrared spectroscopy (FTIR-ATR-PLS method). ASTM, West Conshohocken, PA.
222. [222] ASTM (American Society for Testing and Materials) International. D7806 standard test method for determination of the fatty acid methyl ester (FAME) content of a blend of biodiesel and petroleum-based diesel fuel oil using mid-infrared spectroscopy. ASTM, West Conshohocken, PA.
223. [223] CEN (European Committee for Standardization). EN 14078 Liquid petroleum products. Determination of fatty acid methyl ester (FAME) content in middle distillates. Infrared spectrometry method. CEN, Brussels, Belgium.
224. [224] ASTM (American Society for Testing and Materials) International. D7797 test method for determination of the fatty acid methyl esters content of aviation turbine fuel using flow analysis by Fourier transform infrared spectroscopy – rapid screening method. ASTM, West Conshohocken, PA.
225. [225] ASTM (American Society for Testing and Materials) International. D445 standard test method for kinematic viscosity of transparent and opaque liquids (and calculation of dynamic viscosity). ASTM, West Conshohocken, PA.
226. [226] ISO (International Organization for Standardization). ISO 3104 Petroleum products – transparent and opaque liquids – determination of kinematic viscosity and calculation of dynamic viscosity. ISO, Geneva, Switzerland.
227. [227] Knothe, G., Steidley, K.R., Kinematic viscosity of biodiesel fuel components and related compounds. Influence of compound structure and comparison to petrodiesel fuel components. Fuel 84 (2005), 1059–1065.
228. [228] Knothe, G., Steidley, K.R., Kinematic viscosity of fatty acid methyl esters: prediction, calculated viscosity contribution of esters with unavailable data, and carbon–oxygen equivalents. Fuel 90 (2011), 3217–3224.
229. [229] Knothe, G., Fuel properties of highly polyunsaturated fatty acid methyl esters. Prediction of fuel properties of algal biodiesel. Energy Fuels 26 (2012), 5265–5273.
230. [230] Knothe, G., Steidley, K.R., Kinematic viscosity of biodiesel components (fatty acid alkyl esters) and related compounds at low temperatures. Fuel 86 (2007), 2560–2567.
231. [231] Tat, M.E., Van Gerpen, J.H., The kinematic viscosity of biodiesel and its blends with diesel fuel. J Am Oil Chem Soc 76 (1999), 1511–1513.
232. [232] ASTM (American Society for Testing and Materials) International. D613 standard test method for cetane number of diesel fuel oil. ASTM, West Conshohocken, PA.
233. [233] CEN (European Committee For Standardization). EN 590. Automotive fuels – diesel – requirements and test methods. Brussels, Belgium: CEN.
234. [234] Puckett, A.D., Caudle, B.H., Ignition quality of hydrocarbons in the diesel fuel boiling range. U.S. Bur. Mines, Inform Circ. No. 7474, 14 pp. 1948.
235. [235] Clothier, P.Q.E., Aguda, B.D., Moise, A., Pritchard, H., How do diesel-fuel ignition improvers work?. Chem Soc Rev 22 (1993), 101–108.
236. [236] ASTM (American Society for Testing and Materials) International. D6890 standard test method for determination of ignition delay and derived cetane number (DCN) of diesel fuel oils by combustion in a constant volume chamber. ASTM, West Conshohocken, PA.
237. [237] Knothe, G., Matheaus, A.C., Ryan, T.W. III., Cetane numbers of branched and straight-chain fatty esters determined in an ignition quality tester. Fuel 82 (2003), 971–975.
238. [238] Knothe, G., A comprehensive evaluation of the cetane numbers of fatty acid methyl esters. Fuel 119 (2014), 6–13.
239. [239] Harrington, K.J., Chemical and physical properties of vegetable oil esters and their effect on diesel fuel performance. Biomass 9 (1986), 1–17.
240. [240] Klopfenstein, W.E., Effect of molecular weights of fatty acid esters on cetane numbers as diesel fuels. J Am Oil Chem Soc 62 (1985), 1029–1031.
241. [241] Freedman, B., Bagby, M.O., Callahan, T.J., Ryan, T.W. III., Cetane numbers of fatty esters, fatty alcohols and triglycerides determined in a constant volume combustion bomb. SAE Tech Pap Ser 900343, 1990.
242. [242] Knothe, G., Bagby, M.O., Ryan, T.W. III., Cetane numbers of fatty compounds: influence of compound structure and of various potential cetane improvers. SAE Tech Pap Ser 971681, 1997.
243. [243] Knothe, G., “Designer” biodiesel: optimizing fatty ester composition to improve fuel properties. Energy Fuels 22 (2008), 1358–1364.
244. [244] Ladommatos, N., Parsi, M., Knowles, A., The effect of fuel cetane improver on diesel pollutant emissions. Fuel 75 (1996), 8–14.
245. [245] U.S. Environmental Protection Agency (EPA), A comprehensive analysis of biodiesel impacts on exhaust emissions. U.S. EPA Draft Technical Report 420-P-02-001; National Service Center for Environmental Publications: Cincinnati, OH http://www.epa.gov/otaq/models/analysis/biodsl/p02001.pdf, 2002 accessed 27.09.16.
246. [246] McCormick, R.L., Graboski, M.S., Alleman, T.L., Herring, A.M., Impact of biodiesel source material and chemical structure on emissions of criteria pollutants from a heavy-duty engine. Environ Sci Technol 35 (2001), 1742–1747.
247. [247] Knothe, G., Sharp, C.A., Ryan, T.W. III., Exhaust emissions of biodiesel, petrodiesel, neat methyl esters, and alkanes in a new technology engine. Energy Fuels 20 (2006), 403–408.
248. [248] Mueller, C.J., Boehman, A.L., Martin, G.C., An experimental investigation of the origin of increased NOx emissions when fueling a heavy-duty compression-ignition engine with soy biodiesel. SAE Int J Fuels Lubr 2 (2009), 789–816.
249. [249] Daridon, J.L., Coutinho, J.A.P., Ndiaye, E.-H., Paredes, M.L.L., Novel data and a group contribution method for the prediction of the speed of sound and isentropic compressibility of pure fatty acids methyl and ethyl esters. Fuel 105 (2013), 466–470.
250. [250] Ott, L.S., Huber, M.L., Bruno, T.J., Density and speed of sound measurements on five fatty acid methyl esters at 83'kPa and temperatures from (278.15 to 338.15) K. J Chem Eng Data 53:10 (2008), 2412–2416.
251. [251] Tat, M.E., Van Gerpen, J.H., Speed of sound and isentropic bulk modulus of alkyl monoesters at elevated temperatures and pressures. J Am Oil Chem Soc 80:12 (2003), 1249–1256.
252. [252] Tat, M.E., Van Gerpen, J.H., Effect of temperature and pressure on the speed of sound and isentropic bulk modulus of mixtures of biodiesel and diesel fuel. J Am Oil Chem Soc 80:11 (2003), 1127–1130.
253. [253] Freitas, S.V.D., Paredes, M.L.L., Daridon, J.L., Lima, Á.S., Coutinho, J.A.P., Measurement and prediction of the speed of sound of biodiesel fuels. Fuel 103 (2013), 1018–1022.
254. [254] Freitas, S.V.D., Santos, Â., Moita, M.L.C.J., Follegatti Romero, L.A., Dias, T.P.V.B., Meirelles, A.J.A., et al. Measurement and prediction of speeds of sound of fatty acid ethyl esters and ethylic biodiesels. Fuel 108 (2013), 840–845.
255. [255] Lammert, M.P., McCormick, R.L., Sindler, P., Williams, A., Effect of B20 and low aromatic diesel on transit bus NOx emissions over driving cycles with a range of kinetic intensity. SAE Int J Fuels Lubricants 5:3 (2012), 1345–1359.
256. [256] Finch, G.L., Hobbs, C.H., Blair, L.F., Barr, E.B., Hahn, F.F., Jaramillo, J.R., et al. Effects of subchronic inhalation exposure of rats to emissions from a diesel engine burning soybean oil-derived biodiesel fuel. Inhalat Toxicol 14:10 (2002), 1017–1018.
257. [257] Bünger, J., Krahl, J., Schröder, O., Schmidt, L., Westphal, G.A., Potential hazards associated with combustion of bio derived versus petroleum derived diesel fuel. Crit Rev Toxicol 42 (2012), 732–750.
258. [258] Schwarze, P.E., Totlandsdal, A.I., Låg, M., Refsnes, M., Holme, J.A., Øvrevik, J., Inflammation-related effects of diesel engine exhaust particles: studies on lung cells in vitro. Biomed Res Int, 2013 http://dx.doi.org/10.1155/2013/685142.
259. [259] Larcombe, A.N., Kicic, A., Mullins, B.J., Knothe, G., Biodiesel exhaust: the need for a systematic approach to health effects research. Respirology 20 (2015), 1634–1645.
260. [260] Krahl, J., Baum, K., Hackbarth, U., Jeberien, H.-E., Munack, A., Schütt, C., et al. Gaseous compounds, ozone precursors, particle number and particle size distributions, and mutagenic effects due to biodiesel. Trans ASAE 44 (2001), 179–191.
261. [261] Bünger, J., Krahl, J., Franke, H.-U., Munack, A., Hallier, E., Mutagenic and cytotoxic effects of exhaust particulate matter of biodiesel compared to fossil diesel fuel. Mutation Res 415 (1998), 13–23.
262. [262] Bünger, J., Müller, M.M., Krahl, J., Baum, K., Weigel, A., Hallier, E., et al. Mutagenicity of diesel exhaust particles from two fossil and two plant oil fuels. Mutagenesis 15 (2000), 391–397.
263. [263] Lutz, E.A., Reed, R.J., Lee, V.S.T., Burgess, J.L., Occupational exposures to emissions from combustion of diesel and alternative fuels in underground mining – a simulated pilot study. J Occupat Environ Hygiene 12 (2015), D18–25.
264. [264] Swanson, K.J., Madden, M.C., Ghio, A.J., Biodiesel exhaust: the need for health effects research. Environ Health Perspect 115:4 (2007), 496–499.
265. [265] CEN (European Committee for Standardization). EN 14213. Automotive fuels – fatty acid methyl esters (FAME) for diesel engines – requirements and test methods. Brussels, Belgium: CEN.
266. [266] Levine, F., Kayea, R.V. III, Wexler, R., Sadvary, D.J., Melick, C., La Scala, J., Heats of combustion of fatty acids and fatty acid esters. J Am Oil Chem Soc 91 (2014), 235–249.
267. [267] ASTM (American Society for Testing and Materials) International. D2500 standard test method for cloud point of petroleum products. ASTM, West Conshohocken, PA.
268. [268] ASTM (American Society for Testing and Materials) International. D97 standard test method for pour point of petroleum products. ASTM, West Conshohocken, PA.
269. [269] Benjumea, P., Agudelo, J., Agudelo, A., Basic properties of palm oil biodiesel-diesel blends. Fuel 87:10–11 (2008), 2069–2075.
270. [270] Knothe, G., Dunn, R.O., A comprehensive evaluation of the melting points of fatty acids and esters determined by differential scanning calorimetry. J Am Oil Chem Soc 86 (2009), 843–856.
271. [271] Imahara, H., Minami, E., Saka, S., Thermodynamic study on cloud point of biodiesel with its fatty acid composition. Fuel 85:12–13 (2006), 1666–1670.
272. [272] Dunn, R.O., Shockley, M.W., Bagby, M.O., Improving the low-temperature properties of alternative diesel fuels: vegetable oil-derived methyl esters. J Am Oil Chem Soc 73 (1996), 1719–1728.
273. [273] ASTM (American Society for Testing and Materials) International. D4539 standard test method for filterability of diesel fuels by low temperature flow test (LTFT). ASTM, West Conshohocken, PA.
274. [274] CEN European Committee for Standardization (CEN). EN 116 diesel and domestic heating fuels – determination of cold filter plugging point. CEN, Brussels, Belgium.
275. [275] Owen, K., Coley, T., Automotive fuels reference book. 2nd ed, 1995, Society of Automotive Engineers, Warrendale, PA.
276. [276] Dunn, R.O., Bagby, M.O., Low-temperature properties of triglyceride-based diesel fuels: transesterified methyl esters and petroleum middle distillate/ester blends. J Am Oil Chem Soc 72 (1995), 895–904.
277. [277] ASTM (American Society for Testing and Materials) International. D7501 standard test method for determination of fuel filter blocking potential of biodiesel (B100) blend stock by cold soak filtration test (CSFT). ASTM, West Conshohocken, PA.
278. [278] Dunn, R.O., Cold flow properties of biodiesel: a guide to getting an accurate analysis. Biofuels 6 (2015), 115–128.
279. [279] Knothe, G., Dunn, R.O., Bagby, M.O., Biodiesel: the use of vegetable oils and their derivatives as alternative diesel fuels. In: vol. 666. ACS Symp Ser, 1997, 172–208.
280. [280] Knothe, G., Dunn, R.O., Shockley, M.W., Bagby, M.O., Synthesis and characterization of some long-chain diesters with branched or bulky moieties. J Am Oil Chem Soc 77 (2000), 865–871.
281. [281] Monirul, I.M., Masjuki, H.H., Kalam, M.A., Zulkifli, N.W.M., Rashedul, H.K., Rashed, M.M., et al. A comprehensive review on biodiesel cold flow properties and oxidation stability along with their improvement processes. RSC Adv 5 (2015), 86631–86655.
282. [282] Lee, I., Johnson, L.A., Hammond, E.G., Use of branched-chain esters to reduce the crystallization temperature of biodiesel. J Am Oil Chem Soc 72 (1995), 1155–1160.
283. [283] Dunn, R.O., Ngo, H.L., Haas, M.J., Branched chain fatty acid methyl esters as cold flow improvers for biodiesel. J Am Oil Chem Soc 92 (2015), 853–869.
284. [284] Lee, I., Johnson, L.A., Hammond, E.G., Reducing the crystallization temperature of biodiesel by winterizing methyl soyate. J Am Oil Chem Soc 73 (1996), 631–636.
285. [285] Dunn, R.O., Shockley, M.W., Bagby, M.O., Winterized methyl esters from soybean oil: an alternative diesel fuel with improved low-temperature flow properties. SAE Tech Pap Ser 971682, 1997.
286. [286] Yu, L., Lee, I., Hammond, E.G., Johnson, L.A., Van Gerpen, J.H., The influence of trace components on the melting point of methyl soyate. J Am Oil Chem Soc 75 (1998), 1821–1824.
287. [287] Dunn, R.O., Effects of minor constituents on cold flow properties and performance of biodiesel. Prog Energy Comb Sci 35 (2009), 481–489.
288. [288] Dunn, R.O., Effects of monoacylglycerols on the cold flow properties of biodiesel. J Am Oil Chem Soc 89 (2012), 1509–1520.
289. [289] He, B.B., Van Gerpen, J.H., Analyzing biodiesel for contaminants and moisture retention. Biofuels 3 (2012), 351–360.
290. [290] Chupka, G.M., Yanowitz, J., Chiu, G., Alleman, T.L., McCormick, R.L., Effect of saturated monoglyceride polymorphism on low temperature performance of biodiesel. Energy Fuels 25:1 (2011), 398–405.
291. [291] Chupka, G.M., Fouts, L., McCormick, R.L., Effect of low level impurities on low temperature performance properties of biodiesel. Energy Environ Sci 5:9 (2012), 8734–8742.
292. [292] Chupka, G.M., Fouts, L., Lennon, J.A., Alleman, T.L., Daniels, D.A., McCormick, R.L., Saturated monoglyceride effects on low-temperature performance of biodiesel blends. Fuel Proc Technol 118 (2014), 302–309.
293. [293] O'Neil, G.W., Knothe, G., Williams, J.R., Burlow, N.P., Culler, A.R., Corliss, J.M., et al. Synthesis and analysis of an alkenone-free biodiesel from Isochrysis sp. Energy Fuels 28 (2014), 2677–2683.
294. [294] Dunn, R.O., Effect of antioxidants on the oxidative stability of methyl soyate (biodiesel). Fuel Proc Technol 86 (2005), 1071–1085.
295. [295] Knothe, G., Some aspects of biodiesel oxidative stability. Fuel Proc Technol 88 (2007), 669–677.
296. [296] Jain, S., Sharma, M.P., Stability of biodiesel and its blends: a review. Renew Sustain Energy Rev 14 (2010), 667–678.
297. [297] Xin, J., Saka, S., Test methods for the determination of biodiesel stability. Biofuels 1 (2010), 275–289.
298. [298] He, B.B., Thompson, J.C., Routt, D.W., Van Gerpen, J.W., Moisture absorption in biodiesel and its petro-diesel blends. Appl Eng Agricult 23 (2007), 71–76.
299. [299] Ryu, D., Katta, S.K., Bullerman, L.B., Hanna, M.A., Gennadios, A., Viability in methyl soyate of microbial contaminants from farm fuel storage tanks. Trans ASAE 39 (1996), 2001–2004.
300. [300] Lee, J.S., Ray, R.I., Little, B.J., An assessment of alternative diesel fuels: microbiological contamination and corrosion under storage conditions. Biofouling 26 (2010), 623–625.
301. [301] Knothe, G., Dunn, R.O., Dependence of oil stability index of fatty compounds on their structure and concentration and presence of metals. J Am Oil Chem Soc 80:10 (2003), 1021–1026.
302. [302] CEN (European Committee for Standardization). EN 14112 Fat and oil derivatives. Fatty acid methyl esters (FAME). Determination of oxidation stability (accelerated oxidation test). CEN, Brussels, Belgium.
303. [303] CEN (European Committee for Standardization). EN 15751 Automotive fuels. Fatty acid methyl ester (FAME) fuel and blends with diesel fuel. Determination of oxidation stability by accelerated oxidation method. CEN, Brussels, Belgium.
304. [304] Canakci, M., Monyem, A., Van Gerpen, J., Accelerated oxidation processes in biodiesel. Trans ASAE 42 (1999), 1565–1572.
305. [305] Knothe, G., Structure indices in FA chemistry. How relevant is the iodine value?. J Am Oil Chem Soc 79 (2002), 847–854.
306. [306] Frankel, E.N., Lipid oxidation. 2nd ed, 2005, The Oily Press, PJ Barnes & Associates, Bridgwater, England.
307. [307] Fröhlich, A., Schober, S., The influence of tocopherols on the oxidation stability of methyl esters. J Am Oil Chem Soc 84 (2007), 579–585.
308. [308] Nikanjam, M., Henderson, P.T., Lubricity of low sulfur diesel fuels. SAE Tech Pap Ser 932740, 1993.
309. [309] Wang, J.C., Reynolds, D.J., The lubricity requirement of low sulfur diesel fuels. SAE Tech Pap Ser 942015, 1994.
310. [310] Tucker, R.F., Stradling, R.J., Wolveridge, P.E., Rivers, K.J., Ubbens, A., The lubricity of deeply hydrogenated diesel fuels. The Swedish experience. SAE Tech Pap Ser 942016, 1994.
311. [311] Wei, D., Spikes, H.A., The lubricity of diesel fuels. Wear 111 (1986), 217–235.
312. [312] Barbour, R.H., Rickeard, D.J., Elliott, N.G., Understanding diesel lubricity. SAE Tech Pap Ser, 2000 2000-01-1918.
313. [313] Knothe, G., Steidley, K.R., Lubricity of components of biodiesel and petrodiesel. The origin of biodiesel lubricity. Energy Fuels 19 (2005), 1192–1200.
314. [314] ASTM (American Society for Testing and Materials) International. D6079 standard test method for evaluating lubricity of diesel fuels by the high frequency reciprocating rig (HFRR). ASTM, West Conshohocken, PA.
315. [315] ISO (International Organization for Standardization). ISO 12156-1 Diesel fuel – assessment of lubricity using the high-frequency reciprocating rig (HFRR) – part 1: test method; ISO 12156-2 Diesel fuel – assessment of lubricity using the high-frequency reciprocating rig (HFRR) – part 2: Limit. ISO, Geneva, Switzerland.
316. [316] Knothe, G., Evaluation of ball and disc wear scar data in the HFRR lubricity test. Lubricat Sci 20 (2008), 35–45.
317. [317] Hillion, G., Montagne, X., Marchand, P., Methyl esters of plant oils used as additives or organic fuel (Les esters méthyliques d'huiles végétales: additif ou biocarburant?). Oleagineux, Corps Gras, Lipides 6 (1999), 435–438.
318. [318] Goodrum, J.W., Geller, D.P., Influence of fatty acid methyl esters from hydroxylated vegetable oils on diesel fuel lubricity. Bioresour Technol 96 (2005), 851–855.
319. [319] Hu, J., Du, Z., Li, C., Min, E., Study on the lubrication properties of biodiesel as fuel lubricity enhancers. Fuel 84 (2005), 1601–1606.
320. [320] Wadumesthrige, K., Ara, M., Salley, S.O., Ng, K.Y.S., Investigation of lubricity characteristics of biodiesel in petroleum and synthetic fuel. Energy Fuels 23 (2009), 2229–2234.
321. [321] Lapuerta, M., Sánchez-Valdepeñas, J., Sukjit, E., Effect of ambient humidity and hygroscopy on the lubricity of diesel fuels. Wear 309 (2014), 200–207.
322. [322] Knothe, G., Steidley, K.R., A comprehensive evaluation of the density of fatty acids and esters. J Am Oil Chem Soc 91 (2014), 1711–1722.
323. [323] Knothe, G., Improving biodiesel fuel properties by modifying fatty ester composition. Energy Environ Sci 2 (2009), 759–766.
324. [324] Pinzi, S., Mata-Granados, J.M., Lopez-Gimenez, F.J., Luque de Castro, M.D., Dorado, M.P., Influence of vegetable oils fatty-acid composition on biodiesel optimization. Bioresour Technol 102 (2011), 1059–1065.
325. [325] Pinzi, S., Garcia, L.L., Lopez-Gimenez, F.J., Luque de Castro, M.D., Dorado, G., Dorado, M.P., The ideal vegetable oil-based biodiesel composition: a review of social, economical and technical implications. Energy Fuels 23 (2009), 2325–2341.
326. [326] Pinzi, S., Rounce, P., Herreros, J.M., Tsolakis, A., Dorado, M.P., The effect of biodiesel fatty acid composition on combustion and diesel engine exhaust emissions. Fuel 104 (2013), 170–182.
327. [327] Habibullah, M., Rizwanul Fattah, I.M., Masjuki, H.H., Kalam, M.A., Effects of palm–coconut biodiesel blends on the performance and emission of a single-cylinder diesel engine. Energy Fuels 29 (2015), 734–743.
328. [328] Roessler, P.G., Brown, L.M., Dunahay, T.G., Heacox, D.A., Jarvis, E.E., Schneider, J.C., et al. Genetic engineering approaches for enhanced production of biodiesel fuel from microalgae. Enzymatic conversion of biomass for fuels production ACS Symp Ser, vol. 566, 1994, 255–270.
329. [329] Dunahay, T.G., Jarvis, E.E., Dais, S.S., Roessler, P.G., Manipulation of microalgal lipid production using genetic engineering. Appl Biochem Biotechnol 57–58 (1996), 223–231.
330. [330] Kalscheuer, R., Stölting, T., Steinbüchel, A., Microdiesel: Escherichia coli engineered for fuel production. Microbiology 152 (2006), 2529–2536.
331. [331] Keasling, J.D., Hu, Z., Somerville, C., Church, G., Berry, D., Friedman, L., et al. Production of fatty acids and derivatives thereof. WO/2007/136762 http://www.wipo.int/pctdb/en/wo.jsp?WO=2007136762, 2007 accessed 27.09.16.
332. [332] Wackett, L.P., Biomass to fuels via microbial transformations. Curr Opin Chem Biol 12 (2008), 187–193.
333. [333] Stöveken, T., Steinbüchel, A., Bacterial acyltransferases as an alternative for lipase-catalyzed acylation for the production of oleochemicals and fuels. Angew Chem Int Ed Engl 47 (2008), 3688–3694.
334. [334] Steen, E.J., Kang, Y., Bokinsky, G., Hu, Z., Schirmer, A., McClure, A., et al. Microbial production of fatty-acid-derived fuels and chemicals from plant biomass. Nature 463 (2010), 559–563.
335. [335] Bringe, N.A., Soybean oil composition for biodiesel. Knothe, G., Van Gerpen, J., Krahl, J., (eds.) The biodiesel handbook, 2005, AOCS Press, Champaign, IL, 161–164.
336. [336] Knothe, G., Biodiesel derived from a model oil enriched in palmitoleic acid, macadamia nut oil. Energy Fuels 24 (2010), 2098–2103.
337. [337] Lovestead, T.M., Windom, B.C., Bruno, T.J., Investigating the unique properties of Cuphea-derived biodiesel fuel with the advanced distillation curve method. Energy Fuels 24 (2010), 3665–3675.
338. [338] Fisher, B.T., Knothe, G., Mueller, C.J., Liquid-phase penetration under unsteady in-cylinder conditions: soy- and Cuphea-derived biodiesel fuels versus conventional diesel. Energy Fuels 24 (2010), 5163–5180.
339. [339] Dehesh, K., How can we genetically engineer oilseed crops to produce high levels of medium chain fatty acids?. Eur J Lipid Sci Technol 103 (2001), 688–697.
340. [340] Wildes, S., Methyl soyate: a new green alternative solvent. Chem Health Safety 9 (2002), 24–26.
341. [341] Salehpour, S., Dubé, M.A., Biodiesel: a green polymerization solvent. Green Chem 10 (2008), 321–326.
342. [342] Salehpour, S., Dubé, M.A., Murphy, M., Solution polymerization of styrene using biodiesel as a solvent: effect of biodiesel feedstock. Can J Chem Eng 87 (2009), 129–135.
343. [343] Spear, S.K., Griffin, S.T., Granger, K.S., Huddleston, J.G., Rogers, R.D., Renewable plant-based soybean oil methyl esters as alternatives to organic solvents. Green Chem 9 (2007), 1008–1015.
344. [344] Adhami, L., Griggs, B., Himebrook, P., Taconi, K., Liquid–liquid extraction of butanol from dilute aqueous solutions using soybean-derived biodiesel. J Am Oil Chem Soc 86 (2009), 1123–1128.
345. [345] ASTM (American Society for Testing and Materials) International. D1133 Standard test method for Kauri-Butanol value of hydrocarbon solvents. ASTM, West Conshohocken, PA.
346. [346] Knothe, G., Steidley, K.R., Fatty acid alkyl esters as solvents: evaluation of the Kauri-butanol value. Comparison to hydrocarbons, dimethyl diesters, and other oxygenates. Ind Eng Chem Res 50 (2011), 4177–4182.
347. [347] Batista, M.M., Guirardello, R., Krähenbühl, M.A., Determination of the solubility parameters of biodiesel from vegetable oils. Energy Fuels 27 (2013), 7497–7509.
348. [348] Hansen, C.M., Hansen solubility parameters. A user's handbook. 2007, CRC Press, Boca Raton, FL.
349. [349] Srinivas, K., Potts, T.M., King, J.W., Characterization of solvent properties of methyl soyate by inverse gas chromatography and solubility parameters. Green Chem 11 (2009), 1581–1588.
350. [350] Batista, M.M., Guirardello, R., Krähenbühl, M.A., Determination of the Hansen solubility parameters of vegetable oils, biodiesel, diesel, and biodiesel–diesel blends. J Am Oil Chem Soc 92 (2015), 95–109.