J. T. Moss, A. M. Berkowitz, M. A. Oehlschlaeger, J. Biet, V. Warth et al., Extended Third Millennium Thermodynamic Database for Combustion and Air-Pollution Use with updates from Active Thermochemical Tables, J. Phys. Chem. A Combust. Flame Combust. Flame Fournet, R.; Billaud, F Int. J. Chem. Kinet, vol.112, issue.3734, pp.10843-10855, 1998.

G. Scalmani, V. Barone, B. Mennucci, and G. A. Petersson, Gaussian 09, Revision B.01 Wallingford CT, 2009.

. K. Chem, L. B. Harding, S. J. Klippenstein, Y. J. Georgievskii, B. Phys-sirjean et al., (a) From Sirjean and Fournet 37 (b) Estimated rate coefficients from Allara and Shaw 55 . (c) Adapted from Wang and Frenklach 56 . (d) Calculated as proposed by Ingham et al. 38 . (e) From Sirjean and Fournet 24 . (f) Upper limit of the reported rate coefficient (within its uncertainty range). (g) Analogy with the reaction C3H6 + O 57 . (h) From Simmie and Metcalfe 18 . (i) Analogy with the reaction C3H6 + C2H3 57 . (j) Analogy with the reaction C3H6 + HO2 57 . (k) This work, CBS-QB3, following the computational method described in 37 (l) Calculated using reaction rate rules proposed by Heyberger et al. 58 . (m) From Sirjean and Fournet 25 (n) Estimated from analogy with furan 27 . (o) This work, CBS-QB3, 31G(d), following the computational method described in 25 . (p) Analogy with the reaction C3H6 + H 57 . (q) Analogy with the reaction C3H6 + OH 57 . (r) Analogy with the reaction C3H6 + CH3 57 . (s) Analogy with the reaction C3H5 + H 59 . (t) Based on the correlation proposed by Sirjean et al. 60 . (u) Estimated, rate coefficient based on furan + OH from Atkinson 41 . (v) Analogy with phenoxy + H 61 . (w) Analogy with phenol + cyclopentadienyl radical from Tian et al. 27 . (x) Analogy with reaction (125). (y) Analogy with the reaction (169). (z) Analogy with reaction, pp.666-677, 1986.