“…in an open pan -β = 5-20˚C/min -Flow rate = 166 mL/min -Corn: E a = 69.5±9.7; A = 1.25x108 -Linseed: E a = 132.7±8.8; A = 1.15x1016 Onset temperature -Corn +47 mmol O 2 /kg = 146˚C -Corn + 70 mmol O 2 /kg = 142˚C -Corn + 93 mmol O 2 /kg = 137˚C -Corn + 136 mmol O 2 /kg = 137˚C -Corn + 145 mmol O 2 /kg = 128˚C -Corn + 158 mmol O 2 /kg = 127˚C -Linseed + 31 mmol O 2 /kg = 144˚C -Linseed + 119 mmol O 2 /kg = 131˚C -Linseed + 180 mmol O 2 /kg = 129˚C -Linseed + 252 mmol O 2 /kg = 125˚C -Linseed + 349 mmol O 2 /kg = 117˚C -Linseed + 383 mmol O 2 /kg = 121˚C [56] Linolenic acid and soy lecithin -50-300˚C -5 mg in an open pan -β = 2-20˚C/min -Flow rate = 6600 mL/min-Linolenic: E a from T on : 65±4; A = 2.3x107 ; k 100˚C = 0.016 -Linolenic: E a from T p : 78.9±6.9; A = 9.9x107 -Lecithin: E a from T on : 97±8l; A = 2.4x1011 ; k 100˚C = 0.001 -Linolenic: E a from T p : 141.4±4; A = 9in an open pan -β = 2, 5, 7.5, 10, and 15˚C/min -Flow rate = 100 mL/min -From onset: E a = 90.6; A = 3.4x109 ; k 225˚C = 0.97 -From 1st peak: E a = 88.5; A = 1.4x109 ; k 225˚C = 0.90 -From 2nd peak: E a = 84.6; A = 4.4x107 ; k 225˚C = 1in an open pan -β = 4, 5, 7.5, 10, 12.5, 15˚C/min -Flow rate = 100 mL/min -E a calculated from T on : 72-104; A = 3.31x10 8 -1.1x10 12 ; k 120˚C = 0.09-0.015 [59] Blends of soybean/AMF -100 to 350˚C -5-15 mg in an open pan -β = 2.5-12.5˚C/min -Flow rate = 100 mL/min Soybean/AMF -100/0: E a = 93.5; A = 1.25.6x10 10 ; k 200˚C = 0.57 -90/10: E a = 59.5; A = 2.5x10 6 ; k 200˚C = 0.68 -80/20: E a = 58.4; A = 2.1x10 6 ; k 200˚C = 0.71 -70/30: E a = 64.5; A = 1.1x10 7 ; k 200˚C = 0.80 -60/40: E a = 70.2; A = 5.2x10 7 ; k 200˚C = 0.88 -50/50: E a = 73.2; A = 1.1x10 8 ; k 200˚C = 0.95 -40/60: E a = 102.7; A = 2.6x10 11 ; k 200˚C = 1.18 -30/70: E a = 102.8; A = 2.7x10 11 ; k 200˚C = 1.20 -20/80: E a = 105.8; A = 5.3x10 11 ; k 200˚C = 1.26 -10/90: E a = 117.4; A = 1.4x10 13 ; k 200˚C = 1.55 -0/100: E a = 89.5; A = 8.4x10 9 ; k 200˚C = 1.09 [62] Oleic, erucic, linoleic, linolenic and their ethyl esters and glycerol trioleate and trilinoleate -Temperature = 50-300˚C -5 mg in an open pan -β = 2-20˚C/min -Flow rate = 600 mL/min -Erucic: E a = 89.6±4.4; A = 4.9 x10 10 ; k 90˚C = 0.006 -Oleic: E a = 88.4±4.7; A = 1.0 x10 11 ; k 90˚C = 0.021 -Oleate: E a = 95±4.7; A = 9.4 x10 10 ; k 90˚C = 0.002 -Trioleate: E a = 91.8±13.3; A = 4.4 x10 10 ; k 90˚C = 0.002 -Linoleic: E a = 72±2.9; A = 1.6 x10 9 ; k 90˚C = 0.071 -Linoleate: E a = 76.4±5; A = 2.4x10 9 ; k 90˚C = 0.024 -Trilinoleate: E a = 74.3±3; A = 9.6x10 8 ; k 90˚C = 0.020 -Linolenic: E a = 62.4±3.7; A = 2.6x10 8 ; k 90˚C = 0.027 -Linolenate: E a = 74.5±8.2; A = 4.2x10 9 ; k 90˚C = 0in an sealed pan -β = 3, 6, 9, 12 and 15˚C/min -Flow rate = 50 mL/min -Low CLA: E a = 146.5; A = 4.1x10 14 ; k 200˚C = 0.026 -Med CLA: E a = 112.4; A = 3.6x10 10 ; k 200˚C = 0.014 -High CLA: E a = 87.6; A = 6.3x10 7 ; k 200˚C = 0.013 [9] Cotton, corn, canola, safflower, high oleic safflower, high -1-1.5 mg in a sealed pan -β = 1, 5, 10, 15 and 20˚C/min -Cotton: E a = 63.3; A = 9.2x10 6 ; k = 0.37 -Corn: E a = 77.7; A = 2.4x10 8 ; k = 0.43 [7] Lipid Experimental protocol Kinetics parameters (E a , kJ/mol; A min -1 ; k, min) Ref. linoleic safflower, high oleic sunflower, soybean and sunflower -Canola: E a = 88.4; A = 7.6x10 9 ; k = 0.51 -Sufflower: E a = 75.2; A = 1.8x10 8 ; k = 0.44 -High oleic sufflower: E a = 88.7; A = 3.1x10 9 ; k = 0.48 -High linoleic suff...…”