|
| 1 | +# Recommended RMG libraries per chemistry type. |
| 2 | +# Used by RMG's 'auto' library selection mode. |
| 3 | +# Each set maps to thermo, kinetics, and transport library lists. |
| 4 | +# Kinetics entries can be plain strings or dicts of {name: str, seed: bool}. |
| 5 | +# |
| 6 | +# CH pyrolysis is split into two sets: |
| 7 | +# CH_pyrolysis_core — fundamental high-T C/H chemistry (acetylene initiation, |
| 8 | +# alkane cracking, small radical thermo). Auto-included when |
| 9 | +# C present, T >= 800 K, and no O in species. |
| 10 | +# PAH_formation — first ring formation, naphthalene pathways (CPD + HACA), |
| 11 | +# second ring growth, larger PAH chemistry, alkyl-aromatics. |
| 12 | +# Only auto-included when no O in species; otherwise requires |
| 13 | +# the explicit <PAH_libs> keyword in the input file. |
| 14 | + |
| 15 | +primary: |
| 16 | + thermo: |
| 17 | + - primaryThermoLibrary |
| 18 | + - BurkeH2O2 # H/O |
| 19 | + - Spiekermann_refining_elementary_reactions # RMG's own high-level calculations for small species |
| 20 | + - thermo_DFT_CCSDTF12_BAC # Trusted thermo library |
| 21 | + - DFT_QCI_thermo # Trusted thermo library |
| 22 | + - CBS_QB3_1dHR # Trusted thermo library |
| 23 | + kinetics: |
| 24 | + - name: primaryH2O2 # H/O seed |
| 25 | + seed: true |
| 26 | + transport: |
| 27 | + - PrimaryTransportLibrary |
| 28 | + - OneDMinN2 |
| 29 | + - NOx2018 |
| 30 | + - GRI-Mech |
| 31 | + |
| 32 | +oxidation: |
| 33 | + thermo: |
| 34 | + - FFCM1(-) # H2/CO/C1 reaction model |
| 35 | + - FormicAcid # C1 oxidation pathways, inc. HOCO and HOCHO PESs |
| 36 | + - NOx2018 # C1/C1/C-N/N |
| 37 | + kinetics: |
| 38 | + - FormicAcid # C1 oxidation pathways, inc. HOCO and HOCHO PESs |
| 39 | + - FFCM1(-) # H2/CO/C1 reaction model |
| 40 | + - NOx2018 # C1/C1/C-N/N |
| 41 | + - 2005_Senosiain_OH_C2H2 # OH + acetylene surface reactions |
| 42 | + transport: [] |
| 43 | + |
| 44 | +nitrogen: |
| 45 | + thermo: |
| 46 | + - NH3 # foundational NH3 thermo |
| 47 | + - NOx2018 # C1/C1/C-N/N |
| 48 | + - NitrogenCurran # computations for nitrogen-containing compounds |
| 49 | + - CHON_G4 # CHON small molecule G4 |
| 50 | + kinetics: |
| 51 | + - primaryNitrogenLibrary # foundational nitrogen kinetics in combustion |
| 52 | + - NOx2018 # C1/C1/C-N/N |
| 53 | + - HydrazinePDep # well-skipping pressure-dependent reactions on the N3H5 and N4H6 PESs |
| 54 | + - Ethylamine |
| 55 | + transport: [] |
| 56 | + |
| 57 | +sulfur: |
| 58 | + thermo: |
| 59 | + - SulfurLibrary |
| 60 | + kinetics: |
| 61 | + - primarySulfurLibrary |
| 62 | + - Sulfur/DMDS |
| 63 | + - Sulfur/DMS |
| 64 | + transport: [] |
| 65 | + |
| 66 | +# Core high-T C/H chemistry: acetylene initiation, alkane cracking, fundamental radicals |
| 67 | +CH_pyrolysis_core: |
| 68 | + thermo: |
| 69 | + - NOx2018 # C1/C1/C-N/N |
| 70 | + - Butadiene_Dimerization |
| 71 | + - Chernov |
| 72 | + - heavy_oil_ccsdtf12_1dHR |
| 73 | + - Klippenstein_Glarborg2016 |
| 74 | + kinetics: |
| 75 | + - C2H2_init |
| 76 | + - Klippenstein_Glarborg2016 |
| 77 | + - Chernov |
| 78 | + transport: [] |
| 79 | + |
| 80 | +# PAH formation and growth: first ring, naphthalene, polycyclic aromatics, alkyl-aromatics |
| 81 | +PAH_formation: |
| 82 | + thermo: |
| 83 | + - Butadiene_Dimerization |
| 84 | + - C10H11 |
| 85 | + - s3_5_7_ane |
| 86 | + - Fulvene_H |
| 87 | + - naphthalene_H |
| 88 | + - vinylCPD_H |
| 89 | + - Lai_Hexylbenzene |
| 90 | + - Narayanaswamy |
| 91 | + - SABIC_aromatics_1dHR_extended |
| 92 | + - SABIC_aromatics_1dHR |
| 93 | + - SABIC_aromatics |
| 94 | + - bio_oil |
| 95 | + kinetics: |
| 96 | + # First aromatic ring formation |
| 97 | + - 2001_Tokmakov_H_Toluene_to_CH3_Benzene |
| 98 | + - 2003_Miller_Propargyl_Recomb_High_P |
| 99 | + - 2009_Sharma_C5H5_CH3_highP |
| 100 | + - 2015_Buras_C2H3_C4H6_highP |
| 101 | + - fascella |
| 102 | + - kislovB |
| 103 | + # Naphthalene pathways (CPD route + HACA) |
| 104 | + - Butadiene_Dimerization |
| 105 | + - C10H11 |
| 106 | + - Fulvene_H |
| 107 | + - biCPD_H_shift |
| 108 | + - naphthalene_H |
| 109 | + - vinylCPD_H |
| 110 | + - Mebel_C6H5_C2H2 |
| 111 | + - Mebel_Naphthyl |
| 112 | + # Larger aromatics and PAH growth |
| 113 | + - C6H5_C4H4_Mebel |
| 114 | + - C12H11_pdep |
| 115 | + - c-C5H5_CH3_Sharma |
| 116 | + - Lai_Hexylbenzene |
| 117 | + - Narayanaswamy |
| 118 | + # First-to-second aromatic ring sub-libraries |
| 119 | + - First_to_Second_Aromatic_Ring/2005_Ismail_C6H5_C4H6_highP |
| 120 | + - First_to_Second_Aromatic_Ring/2012_Matsugi_C3H3_C7H7_highP |
| 121 | + - First_to_Second_Aromatic_Ring/2016_Mebel_C10H9_highP |
| 122 | + - First_to_Second_Aromatic_Ring/2016_Mebel_C9H9_highP |
| 123 | + - First_to_Second_Aromatic_Ring/2016_Mebel_Indene_CH3_highP |
| 124 | + - First_to_Second_Aromatic_Ring/2017_Buras_C6H5_C3H6_highP |
| 125 | + - First_to_Second_Aromatic_Ring/2017_Mebel_C6H4C2H_C2H2_highP |
| 126 | + - First_to_Second_Aromatic_Ring/2017_Mebel_C6H5C2H2_C2H2_highP |
| 127 | + - First_to_Second_Aromatic_Ring/2017_Mebel_C6H5_C2H2_highP |
| 128 | + - First_to_Second_Aromatic_Ring/2017_Mebel_C6H5_C4H4_highP |
| 129 | + - First_to_Second_Aromatic_Ring/phenyl_diacetylene_effective |
| 130 | + # Aromatics high pressure PES libraries |
| 131 | + - Aromatics_high_pressure/C10H10_1 |
| 132 | + - Aromatics_high_pressure/C10H10_2 |
| 133 | + - Aromatics_high_pressure/C10H10_H_abstraction |
| 134 | + - Aromatics_high_pressure/C10H11_1 |
| 135 | + - Aromatics_high_pressure/C10H11_2 |
| 136 | + - Aromatics_high_pressure/C10H11_3 |
| 137 | + - Aromatics_high_pressure/C10H11_4 |
| 138 | + - Aromatics_high_pressure/C10H7 |
| 139 | + - Aromatics_high_pressure/C10H8_H_abstraction_H_recomb |
| 140 | + - Aromatics_high_pressure/C10H9_1 |
| 141 | + - Aromatics_high_pressure/C10H9_2 |
| 142 | + - Aromatics_high_pressure/C10H9_3 |
| 143 | + - Aromatics_high_pressure/C10H9_4 |
| 144 | + - Aromatics_high_pressure/C12H10_1 |
| 145 | + - Aromatics_high_pressure/C12H10_2 |
| 146 | + - Aromatics_high_pressure/C12H10_H_abstraction |
| 147 | + - Aromatics_high_pressure/C12H11 |
| 148 | + - Aromatics_high_pressure/C12H8_H_abstraction |
| 149 | + - Aromatics_high_pressure/C12H9 |
| 150 | + - Aromatics_high_pressure/C14H10_H_abstraction_H_recomb |
| 151 | + - Aromatics_high_pressure/C14H11_1 |
| 152 | + - Aromatics_high_pressure/C14H11_2 |
| 153 | + - Aromatics_high_pressure/C14H11_3 |
| 154 | + - Aromatics_high_pressure/C14H11_4 |
| 155 | + - Aromatics_high_pressure/C14H9 |
| 156 | + - Aromatics_high_pressure/C16H11 |
| 157 | + - Aromatics_high_pressure/C7H8 |
| 158 | + - Aromatics_high_pressure/C7H8_H_abstraction |
| 159 | + - Aromatics_high_pressure/C7H9 |
| 160 | + - Aromatics_high_pressure/C8H6_H_abstraction |
| 161 | + - Aromatics_high_pressure/C8H7 |
| 162 | + - Aromatics_high_pressure/C8H8_H_abstraction |
| 163 | + - Aromatics_high_pressure/C8H9 |
| 164 | + - Aromatics_high_pressure/C9H10_H_abstraction |
| 165 | + - Aromatics_high_pressure/C9H11 |
| 166 | + - Aromatics_high_pressure/C9H7 |
| 167 | + - Aromatics_high_pressure/C9H8_1 |
| 168 | + - Aromatics_high_pressure/C9H8_2 |
| 169 | + - Aromatics_high_pressure/C9H8_H_abstraction |
| 170 | + - Aromatics_high_pressure/C9H9_1 |
| 171 | + - Aromatics_high_pressure/C9H9_2 |
| 172 | + transport: [] |
| 173 | + |
| 174 | +liquid_oxidation: |
| 175 | + thermo: [] |
| 176 | + kinetics: |
| 177 | + - Chung_solvation_corrections |
| 178 | + transport: [] |
| 179 | + |
| 180 | +surface: |
| 181 | + thermo: |
| 182 | + - surfaceThermoPt111 |
| 183 | + kinetics: |
| 184 | + - name: Surface/CPOX_Pt/Deutschmann2006_adjusted |
| 185 | + seed: false |
| 186 | + - Surface/Methane/Vlachos_Pt111 |
| 187 | + - Surface/Methane/Vlachos_Rh |
| 188 | + - Surface/Methane/Deutschmann_Ni |
| 189 | + - Surface/DOC/Arevalo_Pt111 |
| 190 | + - Surface/DOC/Ishikawa_Rh111 |
| 191 | + - Surface/DOC/Mhadeshwar_Pt111 |
| 192 | + transport: [] |
| 193 | + |
| 194 | +surface_nitrogen: |
| 195 | + thermo: [] |
| 196 | + kinetics: |
| 197 | + # Ammonia decomposition / oxidation on various facets |
| 198 | + - Surface/Ammonia/Schneider_Pt111 |
| 199 | + - Surface/Ammonia/Schneider_Pt211 |
| 200 | + - Surface/Ammonia/Schneider_Rh111 |
| 201 | + - Surface/Ammonia/Schneider_Rh211 |
| 202 | + - Surface/Ammonia/Schneider_Pd111 |
| 203 | + - Surface/Ammonia/Schneider_Pd211 |
| 204 | + - Surface/Ammonia/Novell_Pt111 |
| 205 | + - Surface/Ammonia/Novell_Rh111 |
| 206 | + - Surface/Ammonia/Novell_Pd111 |
| 207 | + - Surface/Ammonia/Duan_Ni111 |
| 208 | + - Surface/Ammonia/Duan_Ni211 |
| 209 | + - Surface/Ammonia/Vlachos_Ru0001 |
| 210 | + - Surface/Ammonia/Roldan_Ru0001 |
| 211 | + - Surface/Ammonia/Popa_Rh111 |
| 212 | + - Surface/Ammonia/Offermans_Pt111 |
| 213 | + - Surface/Ammonia/Kraehnert_Pt111 |
| 214 | + - Surface/Ammonia/Rebrov_Pt111 |
| 215 | + - Surface/Ammonia/Scheuer_Pt |
| 216 | + # Hydrazine decomposition |
| 217 | + - Surface/Hydrazine/Roldan_Cu111 |
| 218 | + - Surface/Hydrazine/Roldan_Ir111 |
| 219 | + # Nitrogen-specific DOC reactions |
| 220 | + - Surface/DOC/Nitrogen |
| 221 | + transport: [] |
| 222 | + |
| 223 | +halogens: |
| 224 | + thermo: |
| 225 | + - Chlorinated_Hydrocarbons #Chlorinated hydrocarbons used to fit/validate Cl GAV's and non-NNI's |
| 226 | + - Chlorination #chlorinated species from many sources (CBS-QB3, Burcat, etc.), recommended as a secondary library for Chlorine models |
| 227 | + - CHOBr_G4 #non-cyclic and cyclic closed & radical small molecules with at least 1 Br & C, H, O. G4 method. |
| 228 | + - CHOClBr_G4 # non-cyclic, closed/radical, at least 1 Cl and 1 Br & C, H, O. G4 method. |
| 229 | + - CHOCl_G4 # non-cyclic/cyclic, closed/radical, at least 1 Cl & C, H, O. G4 method. |
| 230 | + - CHOFBr_G4 # non-cyclic, closed/radical, at least 1 F and 1 Br & C, H, O. G4 method. |
| 231 | + - CHOFClBr_G4 # non-cyclic closed/radical, at least 1 F, 1 Cl, 1 Br & C, H, O. G4 method. |
| 232 | + - CHOFCl_G4 # non-cyclic closed/radical, at least 1 F, 1 Cl & C, H, O. G4 method. |
| 233 | + - CHOF_G4 # non-cyclic/cyclic closed/radical, at least 1 F & C, H, O. G4 method. |
| 234 | + - Fluorine #thermo to pair with "NIST_Fluorine" kinetic library |
| 235 | + - halogens #to be used for F/Cl/Br-containing systems, various sources (i.e. G4/RRHO, ATcT) |
| 236 | + - iodinated_Hydrocarbons |
| 237 | + - 2-BTP_G4 #to pair with the 2-BTP thermo library. F- and Br-containing species, G4 level of theory, RRHO approx. |
| 238 | + - 2-BTP #to use with "2-BTP" kinetic library. Computed with G3MP2B3 & G3B3 composite ab initio methods; Geometries, vib. freq.,and ZPE calculated at B3LYP/6–31G(d) level of theory. |
| 239 | + kinetics: |
| 240 | + - 2-BTP #flame suppression chemistry for 2-bromo-3,3,3-trifluoropropene |
| 241 | + - CH3Cl #chloromethane pyrolysis/oxidation and relevant H-abstraction reactions, combined with CRECK C1-C3 mechanism |
| 242 | + - CF2BrCl # suppression chemistry of Halon 1211 (CF2BrCl) + light hydrocarbon (CH4, C2H4, and C3H8) chemistry |
| 243 | + - DTU_mech_CH3Cl # pyrolysis/oxidation of methyl chloride |
| 244 | + - NIST_Fluorine # C1-C2 hydrofluorocarbon combustion of refrigerants |
| 245 | + - Iodine-R_recombination |
| 246 | + - YF #combustion of the refrigerant HFO-1234yf (2,3,3,3-tetrafluroropropene, YF) |
| 247 | + transport: |
| 248 | + - NIST_Fluorine |
| 249 | + |
| 250 | +electrochem: |
| 251 | + thermo: |
| 252 | + - LithiumPrimaryThermo |
| 253 | + - LithiumPrimaryThermo2 |
| 254 | + - LithiumAdditionalThermo |
| 255 | + - computationalLithiumElectrode |
| 256 | + - electrocatThermo |
| 257 | + - electrocatLiThermo |
| 258 | + - LithiumSurface |
| 259 | + - surfaceThermoLi |
| 260 | + kinetics: |
| 261 | + - LithiumPrimaryKinetics |
| 262 | + - LithiumPrimaryKinetics2 |
| 263 | + - LithiumPrimaryChargedKinetics |
| 264 | + - LithiumAnalogyKinetics |
| 265 | + - LithiumSurface |
| 266 | + - LithiumSurfaceAnalogy |
| 267 | + transport: [] |
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