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Table C.5

Compilation of collisional quenching processes*

No. Reaction Rate coefficient cm3 s−1 Reference
1 O+(2D) + e → O+(4S) + e 6.03 × 10−8(Te/300)-0.50 FS01
2 O+(2P) + e → O+(4S) + e 3.03 × 10−8(Te/300)-0.50 FS01
3 O+(2P) + e → O+(2D) + e 1.84 × 10−7(Te/300)-0.50 FS01
4 O(1D)+e→O+e 2.87 × 10−10(Te/300)0.91 FS01
5 O(1S) + e → O(1D) + e 8.50 × 10−9 FS01
6 O(1S)+e→O+e 1.56 × 10−10(Te/300)0.94 FS01
7 N(2D) + e → N + e 3.86 × 10−10(Te/300)0.81 FS01
8 N(2P) + e → N + e 2.04 × 10−10(Te/300)0.85 FS01
9 N(2P) + e → N(2D) + e 9.50 × 10−9 FS01
10 C(1D)+e→C+e 1 . 48 × 10−8 Thomas &Nesbet (1975)
11 C(1S) + e → C(1D) + e 1.19 × 10−8 Thomas &Nesbet (1975)
12 O+ (2D) + O → O+(4S) + O 1.00 × 10−11 FS01
13 O+(2P) + N → O+(4S) + N(2D) 1.00 × 10−11 FS01
14 O+(2P) + N2 → O+ (4S) + N2 6.20 × 10−10exp(−340/Ti) FS01
15 O+ (2P) + O → O+(2D) + O 5.20 × 10−10 FS01
16 O+(2P) + O2 → O+ (4S) + O2 1.30 × 10−10 FS01
17 O(1D) + Ar → O + Ar 5.60 × 10−13exp(10.64/Tn) Grondin et al. (2016)
18 O(1D) + CO → O + CO 4.70 × 10−11exp(63/Tn) Lo et al. (2020)
19 O(1D) + CO2 → O + CO2 1.26 × 10−10exp(12.4/Tn) Nuñez-Reyes & Hickson (2018)
20 O(1D) + N2 → O + N2 3.16 × 10−11exp(40.4/Tn) Grondin et al. (2016)
21 O(1D) + NO → O + NO 4.00 × 10−11 Lo et al. (2020)
22 O(1D)+O→O+O 6.47 × 10−12(Tn/300)0.14 FS01
23 O(1D) + O2 → O + O2 3.95 × 10−11exp(27.9/Tn) Grondin et al. (2016)
24 O(1S) + Ar → O(1D) + Ar 4.80 × 10−18 Schofield (1978)
25 O(1S) + CO → O(1D) + CO 7.40 × 10−14exp(−961/Tn) FS01
26 O(1S) + CO2 → O(1D) + CO2 2.02 × 10−11exp(−1327/Tn) FS01
27 O(1S) + CO2 → O + CO2 1.19 × 10−11exp(−1327/Tn) FS01
28 O(1S) + H2 → O(1D) + H2 2.86 × 10−16 FS01
29 O(1S) + O → O(1D) + O 5.00 × 10−11exp(−300/Tn) Schofield (1978)
30 O(1S) + N2 → O(1D) + N2 5.00 × 10−17 FS01
31 O(1S) + NO → O(1D) + NO 5.70 × 10−10(Tn/300)0.50 Schofield (1978)
32 O(1S) + O2 → O(1D) + O2 1.36 × 10−12exp(−815/Tn) 3.04 × 10−12exp(−815/Tn) FS01
33 O(1S) + O2 → O + O2 FS01
34 N(2D) + CO → N + CO 1.90 × 10−12 Lo et al. (2020)
35 N(2D) + N2 → N + N2 1.70 × 10−14 Lo et al. (2020)
36 N(2D) + O → N + O 1.65 × 10−12exp(−260/Tn) Vuitton et al. (2019)
37 N(2D) + O → N + O(1D) 1.65 × 10−12exp(−260/Tn) Vuitton et al. (2019)
38 N(2P) + CO → N(2D) + CO 6.00 × 10−15 FS01
39 N(2P) + CO2 → N(2D) + CO2 2.00 × 10−15 FS01
40 N(2P) + H2 → N(2D) + H2 2.50 × 10−15 FS01
41 N(2P) + N → N(2D) + N 6.20× 10−13 FS01
42 N(2P) + N2 → N(2D) + N2 5.00 × 10−17 FS01
43 N(2P) + NO → N(2D) + NO 2.90 × 10−11 FS01
44 N(2P) + O → N(2D) + O 1 . 70 × 10−11 FS01
45 C(*D) + CO → C + CO 1.60× 10−11 Husain & Newton (1982)
46 C(D) + N2 → C + N2 4.71 × 10−12exp(59.4/Tn) Hickson et al. (2016)
47 C(1S) + H2 → C(1D) + H2 5.00× 10−13 Husain & Norris (1979)
48 C(1S) + N2 → C(1D) + N2 3.20× 10−12 Husain & Newton (1982)
49 C(1S) + O2 → C(1D) + O2 9.90× 10−12 Husain & Norris (1979)
50 C(1S) + NO → C(1D) + NO 4.80 × 10−11 Husain & Norris (1979)
51 C(1S) + CO → C(1D) + CO 4.60× 10−14 Husain & Newton (1982)
52 C(1S) + CO2 → C(1D) + CO2 3.00 × 10−12 Husain & Newton (1982)

* Various collisional quenching processes included in our model, along with the rate coefficients in Gaussian units (Te and Tn in units of K) and the respective source references.

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