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Table A.2

Literature and Redhead-TST desorption energies

Moleculea Surfaceb Precursor(s)c Processingd Tpeak K β K s−1 Λ pm qrot,3D qtr,3D vlit s−1 Edes,lit K vTST s−1 Edes,red K Reference
C2H4 (P) ASW C2H4 No 68 0.033 40 125 62 4.0E+15 2800 1.1E+16 2780 Behmard et al. (2019)
C2H4 Compact ASW C2H4 No 60 0.033 43 103 55 4.0E+15 2400 7.1E+15 2420 Behmard et al. (2019)
CH2NH Ag CH3NH2 5 keV e− 115 0.008 30 201 109 – – 5.3E+16 5110 Zhu et al. (2019b)
(CH2-O)x Au H2CO:H2CO UV 230 0.067 21 426 226 – – 4.6E+17 10390 Butscher et al. (2016)
(CH2-O)x Au H2O:NH3:H2CO Thermal 225 0.067 21 412 221 – – 4.3E+17 10140 Duvernay et al. (2014)
C2H6 MgF2 CH4 UV 66 0.017 39 503 65 – 2060 4.5E+16 2840 Carrascosa et al. (2020)
C2H6 (P) ASW C2H6 No 67 0.033 39 514 66 6.0E+16 3000 4.7E+16 2840 Behmard et al. (2019)
C2H6 Compact ASW C2H6 No 58 0.033 42 414 57 6.0E+16 2500 2.9E+16 2420 Behmard et al. (2019)
C2H6 ASW C2H6 No – 1.000 0 0 – 9.5E+15 2490 – - Smith et al. (2016)
C2H6 Graphene C2H6 No – 1.000 0 0 – 5.1E+28 2980 – - Smith et al. (2016)
C2H6 MgO(lOO) C2H6 No 75 0.600 37 609 74 7.9E+14 2670 7.0E+16 3000 Tait et al. (2005a)
N2H2 Ag CH4:NH3 5 keV e− 110 0.008 30 237 108 – – 5.9E+16 4890 Förstel et al. (2017)
CH3NH2 Ag CH4:NH3 5 keV e− 108 0.008 30 827 110 – – 2.0E+17 4930 Förstel et al. (2017)
CH3NH2 Cu HCN H 148 0.083 26 1326 151 – – 6.2E+17 6630 Theulé et al. (2011)
CH3NH2 Cu CH2NH H 125 0.083 28 1029 127 – – 3.4E+17 5510 Theulé et al. (2011)
CH3NH2 HOPG CH3NH2 No 160 0.200 25 1490 163 – 7000 8.1E+17 7080 Chaabouni et al. (2018)
CH3NH2 np-ASW CH3NH2 No 137 0.200 27 1181 139 – 4200 4.7E+17 5970 Chaabouni et al. (2018)
N2H4 Ag CH4:NH3 5 keV e− 145 0.008 26 957 152 – – 4.4E+17 6780 Förstel et al. (2017)
NH2OH (A) silicate NO H 188 0.017 22 1107 204 1.0E+13 6520 8.8E+17 8840 Congiu et al. (2012)
NH2OH (C) H2O NO H 188 0.017 22 1107 204 – – 8.8E+17 8840 Congiu et al. (2012)
NH2OH Au NO H 170 0.083 23 952 184 – – 6.2E+17 7640 Fedoseev et al. (2016)
NH2OH Au NO:CO H 200 0.083 21 1214 217 – – 1.1E+18 9140 Fedoseev et al. (2016)
NH2OH (A) Silicate NH3:O O 180 1.000 23 1037 195 – – 7.6E+17 7690 He et al. (2015)
NH2OH Rh NH3:O2 5 keV e− 191 0.008 22 1133 207 – – 9.3E+17 9130 Tsegaw et al. (2017)
NH2OH Ag NH3:H2O 5 keV e− 180 0.008 23 1037 195 – – 7.6E+17 8550 Zheng & Kaiser (2010)
NH2OH Graphite NO2 H 245 0.017 19 1646 265 – – 2.2E+18 11810 Ioppolo et al. (2014)
CH3CCH Pt(lll) CH3CCH No 138 4.000 23 767 181 – – 4.0E+17 5580 Peck et al. (1998)
CH3CCH Ag C2H2:NH3 5 keV e− 105 0.017 27 509 138 – – 1.5E+17 4690 Turner et al. (2021)
CH3CCH (P) ASW C3H4 No 97 0.033 28 452 127 1.0E+19 4700 1.2E+17 4230 Behmard et al. (2019)
CH3CCH Compact ASW C3H4 No 92 0.033 29 418 121 1.0E+19 4400 9.7E+16 3990 Behmard et al. (2019)
CH3NC α-quartz(0001) CH3NC No 120 0.200 25 527 161 3.0E+17 4990 2.1E+17 5120 Bertin et al. (2017)
CH3NC α-quartz(0001) CH3NC No 120 0.200 25 527 161 3.0E+17 5340 2.1E+17 5120 Bertin et al. (2017)
CH3NC ASW CH3NC No 135 0.167 23 629 182 1.0E+18 6270 3.2E+17 5850 Bertin et al. (2017)
CH3NC ASW CH3NC No 135 0.167 23 629 182 1.0E+18 6380 3.2E+17 5850 Bertin et al. (2017)
CH3NC (C) H2O CH3NC No 138 0.167 23 650 186 5.0E+16 5690 3.5E+17 6000 Bertin et al. (2017)
CH3NC (C) H2O CH3NC No 138 0.167 23 650 186 5.0E+16 5690 3.5E+17 6000 Bertin et al. (2017)
HCCNH2 Ag C2H2:NH3 5 keV e− 160 0.017 22 2175 215 – – 1.6E+18 7590 Turner et al. (2021)
c-NCHCH2 Ag C2H2:NH3 5 keV e− 200 0.017 19 3862 269 – – 4.3E+18 9730 Turner et al. (2021)
CH2CHCH3 (P) ASW C3H6 No 86 0.033 29 2087 119 6.0E+18 4100 4.4E+17 3860 Behmard et al. (2019)
CH2CHCH3 Compact ASW C3H6 No 80 0.033 30 1873 110 6.0E+18 3800 3.4E+17 3560 Behmard et al. (2019)
H2CCO Ag CO:CH4 5 keV e− 93 0.008 28 381 128 – – 9.5E+16 4160 Maity et al. (2014)
H2CCO Ag CH3OH 5 keV e− 121 0.008 24 566 167 – – 2.4E+17 5560 Maity et al. (2015)
H2CCO Ag CH3OH:CO 5 keV e− 123 0.008 24 580 169 – – 2.5E+17 5660 Maity et al. (2015)
H2CCO Ag H2O:CO 5 keV e− 95 0.017 28 394 131 – – 1.0E+17 4200 Turner et al. (2020)
HCCOH Ag H2O:CO 5 keV e− 170 0.017 21 1460 234 – – 1.2E+18 8030 Turner et al. (2020)
CH2CHNH2 Au C2H2:NH3 UV 138 0.083 23 3336 195 – – 1.9E+18 6330 Chuang in prep.
CH3CHNH Au C2H2:NH3 UV 138 0.083 23 3351 195 – – 1.9E+18 6330 Chuang in prep.
HNCO HOPG HNCO H 120 0.200 24 676 169 1.0E+28 3960 2.9E+17 5150 Noble et al. (2015)
HNCO HOPG HNCO H 120 0.200 24 676 169 1.0E+28 3730 2.9E+17 5150 Noble et al. (2015)
C3H8 MgF2 CH4 UV 84 0.017 29 3050 121 – 2580 6.5E+17 3860 Carrascosa et al. (2020)
C3H8 (P) ASW C3H8 No 73 0.033 31 2471 105 4.0E+18 3500 4.0E+17 3250 Behmard et al. (2019)
C3H8 Compact ASW C3H8 No 84 0.033 29 3050 121 4.0E+18 4000 6.5E+17 3800 Behmard et al. (2019)
C3H8 ASW C3H8 No – 1.000 0 0 – 1.1E+16 2840 – - Smith et al. (2016)
C3H8 Graphene C3H8 No – 1.000 0 0 – 4.2E+28 3750 – - Smith et al. (2016)
C3H8 MgO(lOO) C3H8 No 93 0.600 27 3553 134 4.0E+15 3490 9.2E+17 3980 Tait et al. (2005a)
CH2CHOH Au O2:C2H2 H 145 0.083 22 3157 209 – – 2.0E+18 6660 Chuang et al. (2020)
CH2CHOH Ag CO:CH4 5 keV e− 147 0.008 22 3222 212 – – 2.1E+18 7100 Abplanalp et al. (2016)
CH2CHOH Ag CO:CH4 5 keV e− 147 0.008 22 3222 212 – – 2.1E+18 7100 Zhu et al. (2022b)
CH3CH2NH2 Ag CH4:NH3 5 keV e− 125 0.008 24 4933 180 – – 2.3E+18 6030 Förstel et al. (2017)
CH3CHO Au O2:C2H2 H 130 0.083 23 3218 188 – – 1.6E+18 5930 Chuang et al. (2020)
CH3CHO Ni CH3CHO No 105 1.210 26 2333 151 1.0E+12 2850 7.7E+17 4410 Corazzi et al. (2021)
CH3CHO Olivine grains CH3CHO No 103 1.210 26 2270 149 – – 7.2E+17 4320 Corazzi et al. (2021)
CH3CHO Ni CH3CHO:H2O No 108 1.210 25 2420 155 1.0E+12 3080 8.4E+17 4530 Corazzi et al. (2021)
CH3CHO Olivine grains CH3CHO:H2O No 108 1.210 25 2444 156 – – 8.6E+17 4560 Corazzi et al. (2021)
CH3CHO ASW CH3CHO No 100 0.017 26 2171 144 – 4330 6.5E+17 4610 Lasne et al. (2012)
CH3CHO Ag CO:CH4 5 keV e− 122 0.008 24 2926 176 – – 1.3E+18 5820 Zhu et al. (2022b)
N2O (A) silicate NO H 85 0.017 29 0 123 1.0E+13 2770 – – Congiu et al. (2012)
Au HCN:NH3 Thermal 160 0.083 21 7415 231 – – 1.6E+17 6970 Danger et al. (2011a)
Au HCN:NH3:CH2NH Thermal 180 0.083 20 8848 260 – – 1.6E+17 7860 Danger et al. (2011a)
CH3CH2OH Ag CH3OH:CH4 5 keV e− 147 0.008 21 5875 222 – – 4.0E+18 7200 Bergantim et al. (2018d)
CH3CH2OH Au CH3CHO:H H 160 0.033 20 6671 241 – – 5.4E+18 7670 Bisschop et al. (2007)
CH3CH2OH HOPG CH3CH2OH No 151 0.500 21 6116 228 – – 4.4E+18 6790 Burke et al. (2008)
CH3CH2OH Au O2:C2H2 H 162 0.083 20 6797 244 – – 5.6E+18 7630 Chuang et al. (2020)
CH3CH2OH (C) H2O CH3CH2OH No 169 0.167 20 7242 255 – – 6.5E+18 7880 Lattelais et al. (2011)
CH3CH2OH HOPG CH3CH2OH No 162 1.000 20 6797 244 2.0E+15 6010 5.6E+18 7230 Ulbricht et al. (2006)
CH3OCH3 Ag CH3OH:CH4 5 keV e− 135 0.008 22 3419 204 – – 2.0E+18 6500 Bergantim et al. (2018d)
CH3OCH3 (C) H2O CH3OCH3 No – 0.167 0 0 – 1.0E+14 4080 – – Lattelais et al. (2011)
HCOOH Au HCOOH No 145 0.200 21 2482 219 – – 1.6E+18 6510 Chaabouni et al. (2020)
HCOOH Au CO:O2 H 160 0.008 20 2877 241 – – 2.3E+18 7760 Ioppolo et al. (2011)
NO2 (SiO)2 NO + O 0 129 0.083 23 676 195 – – 3.5E+17 5690 Minissale & Dulieu (2014)
NO2 (SiO)2 NO + O2 0 122 0.083 23 621 184 – – 2.9E+17 5350 Minissale & Dulieu (2014)
NO2 (SiO)2 NO + O3 0 125 0.083 23 644 189 – – 3.2E+17 5500 Minissale & Dulieu (2014)
NO2 HOPG NO2 No 144 0.500 21 797 217 6.0E+16 4450 5.2E+17 6170 Ulbricht et al. (2006)
HOCH2NH2 Au H2O:NH3:H2CO Thermal 205 0.017 18 8543 316 – 6980 1.2E+19 10180 Bossa et al. (2009a)
HOCH2NH2 Au H2CO:NH3:HCN Thermal 214 0.083 17 9112 330 3.0E+12 6980 1.3E+19 10330 Danger et al. (2012)
HOCH2NH2 Au HOCH2NH2 Thermal 200 0.083 18 8233 308 – – 1.1E+19 9590 Danger et al. (2012)
HOCH2NH2 Ag CH3NH2:O2 5 keV e− 210 0.017 18 8858 324 – – 1.3E+19 10450 Singh et al. (2022)
CH3OOH Ag CH3OH:O2 5 keV e− 162 0.017 20 4903 255 – – 4.2E+18 7850 Zhu et al. (2022a)
CH3PH2 Ag CH4:PH3 5 keV e− 102 0.017 25 1294 161 – – 4.4E+17 4660 Turner et al. (2016)
CH3SH Au(111) CH3SH No 139 3.000 21 2116 219 1.0E+13 4030 1.3E+18 5830 Liu et al. (2002)
CH3SH Au(111) CH3SH No 160 0.240 20 2614 252 – – 2.2E+18 7220 Rzeznicka et al. (2005)
HOCH2OH Au H2O:NH3:H2CO Thermal 225 0.067 17 9052 354 – – 1.5E+19 10940 Duvernay et al. (2014)
HOCH2OH Ag CH3OH:O2 5 keV e− 181 0.017 19 6531 285 – – 7.0E+18 8880 Zhu et al. (2022a)
H2POH Ag CO2:PH3 5 keV e− 205 0.017 17 2433 336 – – 3.5E+18 9940 Turner et al. (2018)
H2POH Ag H2O:PH3 5 keV e− 205 0.017 17 2433 336 – – 3.5E+18 9940 Turner et al. (2018)
H2POH Ag H2O:PH3 5 keV e− 177 0.017 19 1952 290 – – 2.1E+18 8460 Turner et al. (2018)
HC2CHO Ag CO:C2H2 5 keV e− 140 0.002 20 6387 248 – – 4.6E+18 7090 Abplanalp & Kaiser (2019)
HC2CHO Ag C2H2:CO 5 keV e− 135 0.002 20 6048 239 – – 4.1E+18 6820 Kleimeier et al. (2021a)
c-H2C3O Ag CO:C2H2 5 keV e− 190 0.002 17 9994 337 – – 1.3E+19 9890 Abplanalp & Kaiser (2019)
c-H2C3O Ag C2H2:CO 5 keV e− 180 0.002 18 9215 319 – – 1.1E+19 9320 Kleimeier et al. (2021a)
CH2CHCHO Ag CO:C2H4 5 keV e− 140 0.008 20 7896 257 – – 5.9E+18 6900 Abplanalp et al. (2015)
CH2CHCHO Ag(111) CH2CHCHO No 164 1.000 18 10011 301 – – 1.0E+19 7420 Muir et al. (2020)
NH2CH2CN Au HCN:NH3:NHCH2 Thermal 185 0.083 17 15275 340 – – 2.0E+19 8970 Danger et al. (2011a)
NH2CH2CN Au CH3CN:NH3 UV 205 0.067 16 17818 377 – – 2.9E+19 10080 Danger et al. (2011b)
c-C3H4O Ag CO:C2H4 5 keV e− 110 0.008 22 6220 202 – – 2.9E+18 5320 Abplanalp et al. (2015)
CH3NCO Au CH4:HNCO UV 145 0.083 19 8334 271 – – 6.8E+18 6840 Ligterink et al. (2017)
HOCH2CN Au H2CO:NH3:HCN Thermal 214 0.083 16 17898 400 3.0E+12 6980 3.2E+19 10510 Danger et al. (2012)
HOCH2CN Au HCN:H2CO:H2O Thermal 208 0.067 16 17151 389 – – 2.9E+19 10240 Danger et al. (2014)
C4H10 Al2O3(0001) C4H10 No – – 0 0 – 4.0E+10 4230 – – Slayton et al. (1995)
C4H10 MgO(100) C4H10 No 110 0.600 22 11628 209 5.0E+15 4200 5.6E+18 4920 Tait et al. (2005b)
C4H10 MgO(100) C4H10 No 111 0.600 22 11787 211 5.0E+15 4200 5.8E+18 4970 Tait et al. (2005a)
CH2CHCH2OH Pd(111) CH3CH2CHO No 200 0.017 16 20780 381 – 6010 3.3E+19 10140 Dostert et al. (2016)
CH3CH2CHO Ag(111) CH3CH2CHO No 162 1.000 18 15542 308 – – 1.6E+19 7400 Muir et al. (2020)
CH3CH2CHO Au C2H2:CO H 125 0.083 21 10534 238 – – 6.5E+18 5870 Qasim et al. (2019)
CH3CH2CHO Ag CO:CH3CH3 5 keV e− 127 0.008 20 10788 242 – – 6.9E+18 6270 Abplanalp et al. (2016)
CH3CH2CHO Ag P:C:E 5 keV e− 120 0.008 21 9908 228 – – 5.7E+18 5890 Abplanalp et al. (2016)
CH3CHCH2O Ag CO2:C3H6 5 keV e− 117 0.008 21 8139 223 – – 4.4E+18 5710 Bergantim et al. (2018b)
CH3CHCHOH Ag CO:CH3CH3 5 keV e− 165 0.008 18 14991 314 – – 1.6E+19 8330 Abplanalp et al. (2016)
CH3COCH3 ASW CH3C(O)CH3 No 130 0.017 20 11159 247 – 4690 7.5E+18 6340 Lasne et al. (2012)
CH3COCH3 (C) H2O CH3C(O)CH3 No 140 5.000 19 12471 266 1.0E+13 4210 9.7E+18 6080 Schaff & Roberts (1994)
CH3COCH3 ASW CH3C(O)CH3 No 157 5.000 18 14811 299 1.0E+13 4810 1.4E+19 6900 Schaff & Roberts (1994)
CH3COCH3 ASW CH3C(O)CH3 No 157 4.500 18 14811 299 1.0E+13 4690 1.4E+19 6910 Schaff & Roberts (1998)
CH3COCH3 (P) ASW CH3C(O)CH3 No 145 0.083 19 13145 276 – – 1.1E+19 6910 Souda (2011)
CH3COCH3 non-(P) ASW CH3C(O)CH3 No 120 0.083 21 9897 228 – – 5.7E+18 5620 Souda (2011)
CH2CH(OH)CH3 Ag(lll) CH2CH(OH)CH3 No 202 1.000 16 20048 391 – – 3.3E+19 9420 Muir et al. (2020)
CH3CONH2 Au NH2CH(CH3)OH UV 220 0.067 15 21555 426 – – 4.2E+19 10920 Duvernay et al. (2010)
CH3CONH2 Au HNCO:CH4 UV 215 0.083 16 20825 416 – – 3.9E+19 10600 Ligterink et al. (2018a)
CH3NHCHO Au CH3NH2:CO UV 200 0.067 16 15173 387 – – 2.4E+19 9800 Bossa et al. (2012)
CH3NHCHO Ag CH3NH2:CO 5 keV e− 225 0.008 15 18105 436 – – 3.7E+19 11610 Frigge et al. (2018b)
CH3OCH2CH3 Ag H2O:CH4 5 keV e− 170 0.008 17 18173 329 – – 2.1E+19 8630 Bergantim et al. (2018c)
(CH2NH2)2 Ag CH3NH2 5 keV e− 160 0.008 18 17907 315 – – 1.9E+19 8100 Zhu et al. (2019b)
(CHO)2 Ag CH3OH:CO 5 keV e− 145 0.008 19 7227 285 – – 6.2E+18 7160 Maity et al. (2015)
CH3CH2CH2OH Ag(111) CH3CH2CH2OH No 219 1.000 15 29470 431 – – 5.8E+19 10350 Muir et al. (2020)
CH3CH2CH2OH Au CH3CH2CHO H 155 0.083 18 17548 305 – – 1.7E+19 7470 Qasim et al. (2019)
CH3COOH Ag CH4:CO2 5 keV e− 165 0.017 18 13305 325 – – 1.5E+19 8200 Bergantim et al. (2018a)
CH3COOH ASW CH3COOH No 157 0.017 18 12349 309 1.0E+00 – 1.2E+19 7770 Bertin et al. (2011)
CH3COOH HOPG CH3COOH No 155 0.500 18 12114 305 – – 1.2E+19 7130 Burke et al. (2015b)
CH3COOH (C) H2O CH3COOH No 160 0.500 18 12705 315 – – 1.3E+19 7390 Burke et al. (2015c)
CH3COOH (C) H2O CH3COOH No 160 0.017 18 12705 315 – – 1.3E+19 7930 Lattelais et al. (2011)
CH3COOH Ag CH4:CO2 5 keV e− 155 0.017 18 12114 305 – – 1.2E+19 7660 Zhu et al. (2018b)
CH3OCHO ASW CH3OCHO No 128 0.017 20 6717 252 1.0E+14 4450 4.5E+18 6180 Bertin et al. (2011)
CH3OCHO (C) H2O CH3OCHO No 129 0.017 20 6795 254 1.0E+14 4570 4.6E+18 6230 Bertin et al. (2011)
CH3OCHO HOPG CH3OCHO No 104 0.500 22 4919 205 – 2160 2.2E+18 4570 Burke et al. (2015b)
CH3OCHO HOPG CH3OCHO No 104 0.500 22 4919 205 – 3320 2.2E+18 4570 Burke et al. (2015b)
CH3OCHO HOPG CH3OCHO No 104 0.500 22 4919 205 – 3910 2.2E+18 4570 Burke et al. (2015b)
CH3OCHO HOPG CH3OCHO No 104 0.500 22 4919 205 – 4140 2.2E+18 4570 Burke et al. (2015b)
CH3OCHO ASW CH3OCHO No 127 0.500 20 6638 250 – 4410 4.4E+18 5690 Burke et al. (2015c)
CH3OCHO (C) H2O CH3OCHO No 127 0.500 20 6638 250 – 4620 4.4E+18 5690 Burke et al. (2015c)
CH3OCHO (C) H2O CH3OCHO No 127 0.017 20 6638 250 1.0E+14 4480 4.4E+18 6120 Lattelais et al. (2011)
CH3OCHO Ag(111) CH3OCHO No 144 1.500 19 8015 283 – 4450 6.8E+18 6380 Schwaner et al. (1997)
CH3OCHO Ag(111) CH3OCHO No 160 1.500 18 9387 315 – – 9.9E+18 7160 Schwaner et al. (1997)
CH3OCHO Cu(111) CH3OCHO No 155 2.000 18 8950 305 – – 8.8E+18 6870 Sexton et al. (1985)
CH3OCHO Ni(111) CH3OCHO No 142 0.500 19 7848 280 – – 6.5E+18 6440 Zahidi et al. (1994)
CH3OCHO Mo(110) CH3OH 20/1 keV e− 105 0.017 22 4990 207 – – 2.3E+18 4970 Sullivan et al. (2016)
H2CC(OH)2 Ag CO2:CH4 5 keV e− 215 0.017 15 18061 423 – – 3.4E+19 10920 Kleimeier & Kaiser (2021)
H2CC(OH)2 Ag CH3OH 5 keV e− 210 0.008 16 17435 413 – – 3.2E+19 10790 Maity et al. (2015)
H2CC(OH)2 Ag CH3OH:CO 5 keV e− 218 0.008 15 18440 429 – – 3.6E+19 11240 Maity et al. (2015)
HOCH2CHO HOPG HOCH2CHO No 145 0.500 19 11502 285 – – 9.9E+18 6640 Burke et al. (2015b)
HOCH2CHO ASW HOCH2CHO No 160 0.500 18 13332 315 – – 1.4E+19 7390 Burke et al. (2015c)
HOCH2CHO (C) H2O HOCH2CHO No 160 0.500 18 13332 315 – – 1.4E+19 7390 Burke et al. (2015c)
HOCH2CHO Au H2CO:H2CO UV 200 0.067 16 18632 394 – – 3.1E+19 9850 Butscher et al. (2016)
HOCH2CHO Ag CH3OH 5 keV e− 166 0.008 17 14089 327 – – 1.6E+19 8380 Maity et al. (2014)
HOCH2CHO Mo(110) CH3OH 1k eV e− 145 0.017 19 11502 285 – – 9.9E+18 7130 Sullivan et al. (2016)
HOCHCHOH Ag CH3OH 5 keV e− 210 0.008 16 14261 413 – – 2.6E+19 10750 Kleimeier et al. (2021b)
HOCHCHOH Ag CH3OH 5 keV e− 225 0.008 15 15816 443 – – 3.3E+19 11590 Kleimeier et al. (2021b)
HOCHCHOH Ag CH3OH:CO 5 keV e− 198 0.008 16 13056 390 – – 2.1E+19 10080 Kleimeier et al. (2021b)
HOCHCHOH Ag CH3OH:CO 5 keV e− 217 0.008 15 14980 427 – – 2.9E+19 11140 Kleimeier et al. (2021b)
HOCHCHOH Ag CH3OH 5 keV e− 210 0.008 16 14261 413 1.0E+00 – 2.6E+19 10750 Maity et al. (2014)
HOCHCHOH Ag CH3OH:CO 5 keV e− 218 0.008 15 15083 429 2.0E+00 – 2.9E+19 11200 Maity et al. (2014)
NH2CONH2 Ag CO:NH3 5 keV e− 250 0.008 14 11337 492 – – 2.9E+19 12870 Förstel et al. (2016a)
NH2CONH2 Ag CO:NH3 5 keV e− 260 0.008 14 12024 512 – – 3.3E+19 13430 Förstel et al. (2016b)
NH2CONH2 Au HNCO:CH4 UV 267 0.083 14 12512 526 – – 3.7E+19 13210 Ligterink et al. (2018a)
NH2CONH2 KBr H2O:NH3:CO2 UV 270 0.033 14 12724 532 – – 3.8E+19 13620 Potapov et al. (2022)
OCS HOPG CS2:0 O 78 0.017 26 0 154 5.3E+14 2430 – – Ward et al. (2012)
Au CO:N2 H/N 185 0.083 17 0 364 – – 2.9E+17 8190 Fedoseev et al. (2015b)
Au NO:CO UV/H 160 0.083 18 0 315 – – 2.9E+17 7060 Fedoseev et al. (2016)
Au HNCO:CH4 UV 205 0.083 16 0 404 – – 2.9E+17 9100 Ligterink et al. (2018a)
c-C3H2O Ag CO:C2H2 UV 177 0.008 17 4493 348 – – 5.8E+18 8770 Wang et al. (2022a)
NH2CH(CH3)OH Au NH3:CH3CHO Thermal 200 0.067 16 25103 400 – – 4.2E+19 9910 Duvernay et al. (2010)
NH2COOH Au CO,:NH3 Thermal 265 0.083 14 23435 530 1.0E+13 9150 6.9E+19 13280 Noble et al. (2014)
[H3O+][OCN−] Cu HNCO:H2O No 155 0.017 18 0 310 2.9E+12 4810 3.0E+17 7090 Theulé et al. (2011)
(CH2OH)2 Ag CH3OH:CH4 5 keV e− 195 0.008 16 22980 397 – – 3.7E+19 10040 Bergantim et al. (2018d)
(CH2OH)2 Au H2CO:H2CO UV 212 0.067 15 26050 431 – – 5.0E+19 10550 Butscher et al. (2016)
(CH2OH)2 Au CO+H H 200 0.083 16 23870 407 – – 4.0E+19 9860 Fedoseev et al. (2015a)
(CH2OH)2 Au HOCH2CHO:CO H 200 0.333 16 23870 407 – – 4.0E+19 9580 Fedoseev et al. (2017)
(CH2OH)2 Rh HOCH2CHO H 214 0.017 15 26420 435 – – 5.1E+19 10960 Leroux et al. (2021)
(CH2OH)2 Ag CH3OH 5 keV e− 200 0.008 16 23870 407 – – 4.0E+19 10320 Maity et al. (2014)
(CH2OH)2 Ag CH3OH:CO 5 keV e− 198 0.008 16 23513 403 – – 3.9E+19 10210 Maity et al. (2014)
(CH2OH)2 Ag CH3OH 5 keV e− 198 0.008 16 23513 403 – – 3.9E+19 10210 Maity et al. (2015)
(CH2OH)2 Ag CH3OH:CO 5 keV e− 198 0.008 16 23513 403 – – 3.9E+19 10210 Maity et al. (2015)
CH3OCH2OH Ag CH3OH:CH4 5 keV e− 162 0.008 17 15000 330 – – 1.7E+19 8180 Bergantim et al. (2018d)
CH3OCH2OH Mo(110) CH3OH 20 eV e− 165 0.017 17 15419 336 – – 1.8E+19 8230 Boamah et al. (2014)
CH3OCH2OH Ag CH3OH 5 keV e− 170 0.008 17 16125 346 – – 2.0E+19 8620 Maity et al. (2015)
CH3OCH2OH Ag CH3OH:CO 5 keV e− 184 0.008 16 18157 374 – – 2.6E+19 9400 Maity et al. (2015)
CH3OCH2OH Ta(110) CH3OH UV 155 0.017 18 14038 315 – – 1.4E+19 7690 Schneider et al. (2019)
CH3OCH2OH Ag CH3OH 5 keV e− 161 0.008 17 14861 328 – – 1.6E+19 8130 Zhu et al. (2019a)
CH3OCH2OH Mo(110) CH3OH 1keV e− 180 0.017 17 17568 366 – – 2.4E+19 9050 Sullivan et al. (2016)
CH3OOCH3 Ag CH3OH:CH4 5 keV e− 113 0.008 21 7590 230 – – 4.1E+18 5510 Bergantim et al. (2018d)
CH3OOCH3 Ag CH3OH 5 keV e− 115 0.008 21 7792 234 – – 4.4E+18 5610 Zhu et al. (2019a)
CH3SCH3 ? H2S:CH3OH:NH3:H2O 10 keV e− 290 0.008 13 29827 590 – – 1.1E+20 15350 Mahjoub et al. (2017)
H2CO3 Ag H2O:CO2 5 keV e− 245 0.017 14 22261 498 – – 5.7E+19 12600 Jones et al. (2014)
H2CO3 Al OH:H:O:CO OH 235 0.067 14 20912 478 – – 4.9E+19 11720 Oba et al. (2010)
HCOPH2 Ag PH3:CO 5 keV e− 125 0.017 20 5629 254 – – 3.7E+18 6010 Frigge et al. (2018a)
HCOSH Rh CO:H2S 5 keV e− 131 0.017 19 5157 266 – – 3.8E+18 6300 Wang et al. (2022b)
CsI NH3:HCOOH No 203 0.083 15 0 420 – – 2.0E+18 9400 Bergner et al. (2016)
Au HCOOH:NH3 No 208 0.200 15 0 430 7.7E+15 8290 2.0E+18 9450 Kruczkiewicz et al. (2021)
SO2 Au(111) SO2 No 142 3.000 18 0 298 – 3920 – – Liu et al. (2002)
H2P(O)OH Ag CO2:PH3 5 keV e− 290 0.017 13 21057 628 – – 8.0E+19 15070 Turner et al. (2018)
H2P(O)OH Ag H2O:PH3 5 keV e− 295 0.017 13 21604 639 – – 8.5E+19 15350 Turner et al. (2018)
H2S2 ? H2S UV 138 0.023 18 3315 299 – – 2.8E+18 6560 Jimenez-Escobar & Muñoz Caro (2011)
H2SO2 ? H2S:H2O UV 106 0.017 21 5052 230 – – 2.6E+18 5040 Jimenez-Escobar & Muñoz Caro (2011)
P2H4 Ag CH4:PH3 5 keV e− 130 0.017 19 2897 282 – – 2.2E+18 6180 Turner et al. (2016)
CH2OCHCN HOPG C2H3CN O 145 0.017 17 18968 328 – – 1.9E+19 7220 Kimber et al. (2018)
CH2OCHCN HOPG C2H3CN O 177 0.017 16 25582 401 – – 3.8E+19 8980 Kimber et al. (2018)
CH3COCN HOPG C2H3CN O 145 0.017 17 22310 328 – – 2.2E+19 7250 Kimber et al. (2018)
CH3COCN HOPG C2H3CN O 177 0.017 16 30089 401 – – 4.4E+19 9000 Kimber et al. (2018)
CHOCH2CN HOPG C2H3CN O 145 0.017 17 18968 328 – – 1.9E+19 7220 Kimber et al. (2018)
CHOCH2CN HOPG C2H3CN O 177 0.017 16 25582 401 – – 3.8E+19 8980 Kimber et al. (2018)
H3SiC(H)CO Rh SiH4:CO 5 keV e− 130 0.008 18 9491 307 – – 7.9E+18 6440 Tarczay et al. (2017)
(CH3)2NCHO HOPG (CH3)2NCHO No 186 1.000 15 38565 445 1.0E+14 6370 6.7E+19 8780 Ulbricht et al. (2006)
CH3C(O)OCH3 Ni(111) CH3C(O)OCH3 No 165 0.500 16 29623 401 – – 4.1E+19 7810 Zahidi et al. (1994)
CH3CH2OCHO HOPG CH3CH2OCHO No 120 0.500 19 18004 291 4.2E+20 5200 1.3E+19 5500 Salter et al. (2019)
CH3CH2OCHO ASW CH3CH2OCHO No 134 0.500 18 21245 325 1.0E+16 5830 1.9E+19 6210 Salter et al. (2019)
CH3CH2OCHO CH3CH2OH CH3CH2OCHO No 116 0.500 19 17111 282 – – 1.2E+19 5300 Salter et al. (2019)
CH3CH2OCHO Ni(111) CH3CH2OCHO No 136 0.500 17 21722 330 – – 2.0E+19 6310 Zahidi et al. (1994)
HCOCOOH Ag H2O:CO 5 keV e− 210 0.017 14 35060 510 – – 7.8E+19 10840 Eckhardt et al. (2019)
Au HNCO:CH4 UV 214 0.083 14 0 520 – – 6.8E+17 9690 Ligterink et al. (2018a)
HC5N ASW HC5N No 150 0.012 16 0 369 1.0E+13 10820 – – Coupeaud et al. (2008)
NH2CH2COOH Au CO:CH3NH2:O2 H 245 0.083 13 55385 603 – – 1.7E+20 12480 Ioppolo et al. (2021)
NH2CH2COOH Αl2O3 NH2CH2COOH No 310 1.000 11 78829 763 – – 3.9E+20 15350 Tzvetkov et al. (2004b)
NH2CH2COOH ASW / LDA NH2CH2COOH No 310 1.000 11 78829 763 – – 3.9E+20 15350 Tzvetkov et al. (2004a)
CH3CH2CH2SH Au(111) CH3CH2CH2SH No 205 0.240 14 43957 511 – – 9.6E+19 10070 Rzeznicka et al. (2005)
CH3OCOOH Ag CO2:CH3OH 5 keV e− 195 0.008 14 33355 486 – – 6.6E+19 10150 Marks et al. (2023)
HOCH2COOH Mo(110) CH3OH 20 eV e− 235 0.017 13 51211 586 – – 1.5E+20 12300 Boamah et al. (2014)
HOCH2COOH Ag CO2:CH3OH 5 keV e− 247 0.008 13 55184 616 – – 1.7E+20 13160 Marks et al. (2023)
NCCCCN ASW NCCCCN No 159 0.013 16 0 396 1.0E+13 5050 – – Guennoun et al. (2005)
NCCCCN Au NCCCCN No – 0.013 0 0 – 1.0E+13 6130 – – Guennoun et al. (2005)
Au CH3COOH:NH3 No 199 0.200 14 0 503 3.0E+20 9980 1.3E+19 9410 Kruczkiewicz et al. (2021)
C6H6 Rh C2H2 5 keV e− 140 0.008 17 4872 358 – – 5.1E+18 6880 Abplanalp et al. (2019)
C6H6 ASW C6H6 No 141 0.050 17 4924 361 1.0E+13 4690 5.2E+18 6680 Bahr & Kempter (2007)
C6H6 HOPG C6H6 No 148 0.500 16 5296 379 1.0E+13 5470 6.2E+18 6710 Salter et al. (2018)
C6H6 Graphene C6H6 No 160 1.000 16 5953 409 1.0E+17 6560 8.1E+18 7200 Smith & Kay (2018)
C6H6 Cu(lll) C6H6 No 155 4.000 16 5676 397 - - 7.3E+18 6730 Xi et al. (1994)
C6H6 Cu(lll) C6H6 No 195 4.000 14 8009 499 - - 1.6E+19 8670 Xi et al. (1994)
QHo Cu(111) C6H6 No 213 4.000 14 9143 545 - - 2.2E+19 9560 Xi et al. (1994)
C6H6 Cu(111) C6H6 No 225 4.000 13 9927 576 - - 2.7E+19 10150 Xi et al. (1994)
C6H6 (A) silica C6H6 No - 0.100 0 0 - 1.0E+13 6250 - - Thrower et al. (2009)
C6H6 (A) silica C6H6 No - 0.100 0 0 - 1.0E+13 5890 - - Thrower et al. (2009)
C6H6 (A) silica C6H6 No - 0.100 0 0 - 1.0E+13 5290 - - Thrower et al. (2009)
QHo (A) silica C6H6 No - 0.100 0 0 - 1.0E+13 4990 - - Thrower et al. (2009)
C6H6 (A) silica C6H6 No - 0.100 0 0 - 1.0E+13 4930 - - Thrower et al. (2009)
C6H6 (A) silica C6H6 No - 0.100 0 0 - 1.0E+13 4750 - - Thrower et al. (2009)
C6H6 HOPG C6H6 No 151 0.750 16 5458 386 9.0E+15 5770 6.6E+18 6800 Ulbricht et al. (2006)
H2PCOOH Ag PH3:CO2 5 keV e− 192 0.017 14 32421 491 - - 6.4E+19 9850 Zhu et al. (2018a)
[NH+4][NH2COO−] Au CO2:NH3 Thermal 240 0.083 13 104054 614 1.0E+13 8300 6.9E+19 12000 Noble et al. (2014)
[NH+4][NH2COO−] (A) carbon CO2:NH3 Thermal 240 0.033 13 104054 614 - - 6.9E+19 12220 Potapov et al. (2019)
[NH+4][NH2COO−] MgFeSiO4 CO2:NH3 Thermal 240 0.033 13 104054 614 - - 6.9E+19 12220 Potapov et al. (2019)
[NH+4][NH2COO−] KBr CO2:NH3 Thermal 240 0.033 13 104054 614 - - 6.9E+19 12220 Potapov et al. (2019)
CH3P2H3 Ag CH3:P2H3 5 keV e− 135 0.017 17 14034 354 - - 1.4E+19 6670 Turner et al. (2016)
PH2CH2PH2 Ag CH4:PH3 5 keV e− 165 0.017 15 18920 433 - - 2.8E+19 8310 Turner et al. (2016)
C4H4S Au(111) C4H4S No 186 3.000 14 36209 513 1.0E+13 5540 7.2E+19 8590 Liu et al. (2002)
C4H4S Au(111) C4H4S No 142 3.000 16 24153 391 - - 2.8E+19 6390 Liu et al. (2002)
c-C6H12 Graphene C6H6 No 153 1.000 15 46526 422 1.7E+16 6440 6.3E+19 7190 Smith & Kay (2018)
C6H14 Al2O3(0001) QHI4 No - - 0 0 - 5.4E+09 5230 - - Slayton et al. (1995)
CH6H14 MgO(lOO) QH14 No 144 0.600 16 70101 406 1.0E+16 5580 8.5E+19 6870 Tait et al. (2005a)
CH3COCOCH3 Ag CH3CHO 5 keV e− 236 0.008 12 90763 666 - - 3.0E+20 12690 Kleimeier et al. (2020b)
CH3COCOCH3 Ag CH3COCOCH3 No 135 0.008 16 39268 381 - - 4.2E+19 6920 Kleimeier et al. (2020b)
CH3COCOCH3 Ag CH3COCOCH3 No 158 0.008 15 49719 446 - - 7.3E+19 8210 Kleimeier et al. (2020b)
CH3COCOCH3 Ag P:A 5 keV e− 160 0.008 15 50666 451 - - 7.6E+19 8320 Kleimeier et al. (2020b)
CH3COCOCH3 Ag P:A 5 keV e− 206 0.008 13 74018 581 - - 1.8E+20 10950 Kleimeier et al. (2020b)
CH3COCOCH3 Ag P:A 5 keV e− 236 0.008 12 90763 666 - - 3.0E+20 12690 Kleimeier et al. (2020b)
CH3COCOCH3 Ag H2O:CH3CHO 5 keV e− 160 0.008 15 50666 451 - - 7.6E+19 8320 Kleimeier et al. (2020b)
CH3COCOCH3 Ag H2O:CH3CHO 5 keV e− 170 0.008 14 55490 480 - - 9.4E+19 8890 Kleimeier et al. (2020b)
CH3COCOCH3 Ag H2O:CH3CHO 5 keV e− 200 0.008 13 61496 577 - - 1.5E+20 10580 Kleimeier et al. (2020a)
CH3COCOOH Ag CH3CHO:CO2 5 keV e− 235 0.008 12 81777 679 - - 2.7E+20 12610 Kleimeier et al. (2020a)
CH3COCOOH Ag CH3COCOOH No 185 0.008 14 57120 534 - - 1.2E+20 9730 Kleimeier et al. (2020a)
HOCH2CH(OH)CHO Au HOCH2CHO:CO H 215 0.333 13 93892 635 - - 2.7E+20 10720 Fedoseev et al. (2017)
HOCH2CH(OH)CHO Cu H20:H2CO UV 225 0.033 12 100518 664 - - 3.1E+20 11780 Layssac et al. (2020)
HOCH2CH(OH)CHO Pt(111) G No 230 4.000 12 103887 679 - - 3.4E+20 10970 McManus et al. (2014)
HOCH2CH(OH)CHO Pt(111) G No 300 4.000 11 154758 886 - - 8.6E+20 14660 McManus et al. (2014)
CH3C6H5 HOPG CH3C6H5 No 149 0.500 15 20673 450 1.0E+13 5650 2.9E+19 6980 Salter et al. (2018)
CH3C6H5 HOPG CH3C6H5 No 179 1.000 14 27221 540 1.0E+19 8180 5.5E+19 8410 Ulbricht et al. (2006)
HOCH(CH2OH)2 Mo(llO) CH3OH 20 eV e− 280 0.017 11 158901 845 - - 7.8E+20 15180 Boamah et al. (2014)
HOCH(CH2OH)2 Au HOCH2CHO:CO H 240 0.333 12 126098 724 - - 4.6E+20 12120 Fedoseev et al. (2017)
HOCH(CH2OH)2 Ag CH3OH 5 keV e− 238 0.008 12 124525 718 - - 4.4E+20 12890 Kaiser & Maksyutenko (2015)
HOCH(CH2OH)2 Cu H2O:H2CO UV 250 0.033 12 134060 755 - - 5.3E+20 13250 Layssac et al. (2020)
HOCH(CH2OH)2 Ag CH3OH 5 keV e− 234 0.008 12 121399 706 - - 4.2E+20 12660 Maity et al. (2014)
HOCH(CH2OH)2 Mo(llO) CH3OH lk eV e− 280 0.017 11 158901 845 - - 7.8E+20 15180 Sullivan et al. (2016)
CH3P(O)(OH)2 Ag H20:C¾:P¾ 5 keV e− 250 0.017 11 62113 787 - - 2.5E+20 13240 Turner et al. (2019)
S3 ? H2S:CH3OH:NH3:H2O 10 keV e− 282 0.008 11 38093 888 - - 2.0E+20 15100 Mahjoub et al. (2017)
s3 9 H2S UV 275 0.023 11 73366 866 - - 3.6E+20 14600 Jimenez-Escobar & Muñoz Caro (2011)
P3H5 Ag CH4:PH3 5 keV e− 162 0.017 14 25261 521 - - 4.4E+19 8230 Turner et al. (2016)
C6H5CCH Rh C2H2 5 keV e− 170 0.008 13 55058 569 - - 1.1E+20 8910 Abplanalp et al. (2019)
c-C6H5CN Au(lOO) C6H5CN No 285 4.000 10 119327 963 1.0E+14 9020 6.8E+20 13850 Solomun et al. (1989)
c-C6H5CN Cu C6H6:CH3CN 2 keV e− 183 0.033 13 61397 618 - - 1.4E+20 9400 Maksyutenko et al. (2022)
C6H5CHCH2 Rh C2H2 5 keV e− 163 0.008 13 111250 556 - - 2.1E+20 8640 Abplanalp et al. (2019)
C6H5CHCH2 Ag(111) C8H8 No 265 2.000 11 230615 904 1.0E+13 7940 1.2E+21 13180 Wei et al. (2004)
C6H5CHCH2 Ag(111) C8H8 No 211 2.000 12 163848 720 1.0E+13 5650 5.2E+20 10280 Wei et al. (2004)
C6H5CHCH2 Ag(lOO) C8H8 No 330 5.000 9 320471 1126 2.0E+11 8540 2.5E+21 16440 Williams et al. (2003)
(CH3)2C6H4 HOPG (CH3)2C6H4 No 155 0.500 14 54464 539 3.1E+17 6130 9.5E+19 7450 Salter et al. (2018)
(CH3)2C6H4 HOPG (CH3)2C6H4 No 153 0.500 14 109806 532 1.0E+16 5990 1.9E+20 7460 Salter et al. (2018)
C6H5CHO ASW C6H5CHO No 180 0.017 13 126806 626 – 4810 3.0E+20 9500 Lasne et al. (2012)
CH3CH2C6H5 HOPG CH3CH2C6H5 No 205 1.000 12 173146 713 5.0E+19 9500 5.3E+20 10130 Ulbricht et al. (2006)
C4H5N3O Au Cytosine No 433 0.250 8 1212828 1577 1.0E+13 14670 1.7E+22 23820 Demers et al. (2002)
C4H5N3O Au(100) Cytosine No 428 0.250 8 1191882 1559 – 15400 1.7E+22 23530 Demers et al. (2002)
C8H18 Al2O3(0001) C8H18 No – – 0 0 – 1.6E+12 7350 – – Slayton et al. (1995)
C8H18 MgO(100) C8H18 No 175 0.600 12 250305 655 7.9E+17 7560 6.0E+20 8730 Tait et al. (2005a)
C5H6N2O2 Au Thymine No 373 0.250 8 519385 1542 1.0E+13 12510 6.2E+21 20090 Demers et al. (2002)
C5H6N2O2 Au(100) Thymine No 378 0.250 8 529864 1563 – 13350 6.5E+21 20380 Demers et al. (2002)
C10H8 Rh C10H8 5 keV e− 185 0.008 11 114642 777 – – 3.4E+20 9930 Abplanalp et al. (2019)
C10H8 HOPG C10H8 No 235 1.000 10 164130 987 6.0E+16 9260 7.9E+20 11740 Ulbricht et al. (2006)
S4 ? H2S:CH3OH:NH3:H2O 10 keV e− 282 0.008 9 118863 1184 – – 8.3E+20 15500 Mahjoub et al. (2017)
C6H15N3 Au HCOOH:CH3CHNH Thermal 230 0.067 10 363127 973 – – 1.7E+21 12280 Vinogradoff et al. (2012)
C5H5N5 Au(100) Adenine No 448 0.250 7 841125 1984 – 15760 1.6E+22 24620 Demers et al. (2002)
C5H5N5 Au Adenine binding site 1 No 363 0.250 8 613484 1608 1.0E+13 12150 7.5E+21 19600 Östblom et al. (2005)
C5H5N5 Au Adenine binding site 2 No 443 0.250 7 827083 1962 1.0E+13 14910 1.5E+22 24320 Östblom et al. (2005)
C5H5N5 Au Adenine binding site 3 No 483 0.250 7 941595 2139 1.0E+13 16360 2.0E+22 26710 Östblom et al. (2005)
C10H22 MgO(100) C10H22 No 204 0.600 10 679726 950 1.3E+19 9370 2.7E+21 10520 Tait et al. (2005a)
CH3I ASW CH3I No 115 3.000 14 721 536 – – 9.3E+17 4760 DeSimone et al. (2013)
CH3I (P) ASW CH3I No 115 3.000 14 721 536 – – 9.3E+17 4760 DeSimone et al. (2013)
C5H5N5O Au(100) Guanine No 488 0.250 6 1451100 2418 – 17560 3.6E+22 27260 Demers et al. (2002)
C5H5N5O Au Guanine No 453 0.250 7 1297821 2244 1.0E+13 15280 2.7E+22 25160 Östblom et al. (2005)
[C6Hl5N3H+][HCOO−] Au HCOOH:CH3CHNH Thermal 270 0.067 8 0 1550 – – 1.7E+21 14460 Vinogradoff et al. (2012)
[C6Hl5N3H+][HCOO−] Au HCOOH:C6H15N3 Thermal 260 0.067 8 0 1493 – – 1.7E+21 13910 Vinogradoff et al. (2012)
C14H10 Rh C2H2 5 keV e− 232 0.008 9 491510 1355 – – 3.2E+21 13020 Abplanalp et al. (2019)
C24H12 HOPG C24H12 No 390 2.000 5 1572181 3839 2.0E+16 15280 4.9E+22 21010 Ulbricht et al. (2006)
C32H14 HOPG C32H14 No 490 2.000 4 15999447 6399 5.0E+21 27660 1.0E+24 28010 Ulbricht et al. (2006)
C60 HOPG C60 No 573 2.000 3 25544230 13536 2.0E+13 19600 4.1E+24 33630 Ulbricht et al. (2006)

Notes. aPOM = Polyoxymethylene, AAT = Acetaldehyde Ammonia Trimer, AATF salt = Acetaldehyde Ammonia Trimer Formate salt. b(P) = porous, (C) = crystalline cP:C:E = CH3CH2CHO:CO:CH3CH3, PA = CH3COCOCH3:CH3CHO, G = HOCH2CH(OH)CHO dH = Hydrogenation, O = Oxygenation

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