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Copy file name to clipboardExpand all lines: input/kinetics/families/Surface_Dissociation/training/reactions.py
+93-12Lines changed: 93 additions & 12 deletions
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@@ -373,16 +373,21 @@
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label="HCCH2_2X + Ni_4 <=> HCCH_2X + HX_5",
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degeneracy=2,
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kinetics=SurfaceArrhenius(
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A=(1.9460e16, 'm^2/(mol*s)'),
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n=0.512,
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Ea=(69707.5, 'J/mol'),
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+
A=(4.75e21, 'cm^2/(mol*s)'),
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n=0.0,
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Ea=(72, 'kJ/mol'),
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Tmin= (298, 'K'),
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Tmax= (2000, 'K'),
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),
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rank=8,
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shortDesc=u"""Default""",
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longDesc=u"""
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Calculated with DFT by Katrín Blöndal at Brown University, using the vdW-DF-cx functional in Quantum ESPRESSO.
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+
Calculated with DFT by Katrín Blöndal and Bjarne Kreitz at Brown University, using the vdW-DF-cx functional in Quantum ESPRESSO.
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+
Details on the computational method to derive the rate constants are provided in "Automatic mechanism generation involving
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kinetics of surface reactions with bidentate adsorbates" by B. Kreitz, K. Blöndal, K. Badger, R. H. West and C. F. Goldsmith, Digital Discovery, 2024, 3, 173
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doi:10.1039/d3dd00184a
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A divided by 2 because of the degeneracy.
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+
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""",
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metal="Pt",
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)
@@ -392,16 +397,20 @@
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label="H2CCH2_2X + Ni_4 <=> H2CCH_2X + HX_5",
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degeneracy=2,
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kinetics=SurfaceArrhenius(
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A=(3.034e15, 'm^2/(mol*s)'),
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n=0.661,
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Ea=(55411.0, 'J/mol'),
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+
A=(2.225e21, 'cm^2/(mol*s)'),
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n=0.0,
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Ea=(59, 'kJ/mol'),
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Tmin= (298, 'K'),
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Tmax= (2000, 'K'),
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),
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rank=8,
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shortDesc=u"""Default""",
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longDesc=u"""
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Calculated with DFT by Katrín Blöndal at Brown University, using the vdW-DF-cx functional in Quantum ESPRESSO.
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+
Calculated with DFT by Katrín Blöndal and Bjarne Kreitz at Brown University, using the vdW-DF-cx functional in Quantum ESPRESSO.
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+
Details on the computational method to derive the rate constants are provided in "Automatic mechanism generation involving
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kinetics of surface reactions with bidentate adsorbates" by B. Kreitz, K. Blöndal, K. Badger, R. H. West and C. F. Goldsmith, Digital Discovery, 2024, 3, 173
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+
doi:10.1039/d3dd00184a
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A divided by 2 because of the degeneracy.
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""",
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metal="Pt",
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)
@@ -411,16 +420,88 @@
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label="H2CO_2X + Ni_4 <=> HCO_2X + HX_5",
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degeneracy=2,
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kinetics=SurfaceArrhenius(
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A=(1.438e17, 'm^2/(mol*s)'),
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n=0.043,
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Ea=(1417.1, 'J/mol'),
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+
A=(0.875e21, 'cm^2/(mol*s)'),
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n=0.0,
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Ea=(2, 'kJ/mol'),
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Tmin= (298, 'K'),
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Tmax= (2000, 'K'),
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),
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rank=8,
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shortDesc=u"""Default""",
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longDesc=u"""
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-
Calculated with DFT by Katrín Blöndal at Brown University, using the vdW-DF-cx functional in Quantum ESPRESSO.
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+
Calculated with DFT by Katrín Blöndal and Bjarne Kreitz at Brown University, using the vdW-DF-cx functional in Quantum ESPRESSO.
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+
Details on the computational method to derive the rate constants are provided in "Automatic mechanism generation involving
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kinetics of surface reactions with bidentate adsorbates" by B. Kreitz, K. Blöndal, K. Badger, R. H. West and C. F. Goldsmith, Digital Discovery, 2024, 3, 173
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+
doi:10.1039/d3dd00184a
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A divided by 2 because of the degeneracy.
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""",
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metal="Pt",
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)
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+
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+
entry(
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index=63,
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label="XCXCH_3 + HX_5 <=> XCXCH2_1 + Ni_4",
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degeneracy=2,
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kinetics=SurfaceArrhenius(
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A=(2.595e19, 'cm^2/(mol*s)'),
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n=0.0,
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Ea=(34, 'kJ/mol'),
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+
Tmin= (298, 'K'),
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+
Tmax= (2000, 'K'),
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),
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+
rank=8,
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+
shortDesc=u"""Default""",
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longDesc=u"""
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+
Calculated with DFT by Katrín Blöndal and Bjarne Kreitz at Brown University, using the vdW-DF-cx functional in Quantum ESPRESSO.
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+
Details on the computational method to derive the rate constants are provided in "Automatic mechanism generation involving
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kinetics of surface reactions with bidentate adsorbates" by B. Kreitz, K. Blöndal, K. Badger, R. H. West and C. F. Goldsmith, Digital Discovery, 2024, 3, 173
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+
doi:10.1039/d3dd00184a
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A divided by 2 because of the degeneracy.
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""",
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metal="Pt",
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)
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+
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entry(
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index=64,
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label="XCXCH_4 + HX_5 <=> XCHXCH_1 + Ni_4",
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degeneracy=2,
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kinetics=SurfaceArrhenius(
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A=(1.66e21, 'cm^2/(mol*s)'),
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n=0.0,
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Ea=(62, 'kJ/mol'),
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+
Tmin= (298, 'K'),
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+
Tmax= (2000, 'K'),
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),
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+
rank=8,
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shortDesc=u"""Default""",
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longDesc=u"""
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+
Calculated with DFT by Katrín Blöndal and Bjarne Kreitz at Brown University, using the vdW-DF-cx functional in Quantum ESPRESSO.
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+
Details on the computational method to derive the rate constants are provided in "Automatic mechanism generation involving
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kinetics of surface reactions with bidentate adsorbates" by B. Kreitz, K. Blöndal, K. Badger, R. H. West and C. F. Goldsmith, Digital Discovery, 2024, 3, 173
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doi:10.1039/d3dd00184a
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A divided by 2 because of the degeneracy.
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""",
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metal="Pt",
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+
)
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+
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entry(
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index=65,
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label="XCHXCH2_1 + Ni_4 <=> XCXCH2_3 + HX_5",
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degeneracy=1,
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kinetics=SurfaceArrhenius(
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A=(9.69e21, 'cm^2/(mol*s)'),
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n=0.0,
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Ea=(48, 'kJ/mol'),
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Tmin= (298, 'K'),
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Tmax= (2000, 'K'),
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),
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rank=8,
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shortDesc=u"""Default""",
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longDesc=u"""
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Calculated with DFT by Katrín Blöndal and Bjarne Kreitz at Brown University, using the vdW-DF-cx functional in Quantum ESPRESSO.
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Details on the computational method to derive the rate constants are provided in "Automatic mechanism generation involving
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kinetics of surface reactions with bidentate adsorbates" by B. Kreitz, K. Blöndal, K. Badger, R. H. West and C. F. Goldsmith, Digital Discovery, 2024, 3, 173
Copy file name to clipboardExpand all lines: input/kinetics/families/Surface_Dissociation_to_Bidentate/rules.py
+10-8Lines changed: 10 additions & 8 deletions
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@@ -10,19 +10,21 @@
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index=1,
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label="Combined;VacantSite1;VacantSite2",
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kinetics=SurfaceArrheniusBEP(
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A= (5.726E21, 'm^4/(mol^2*s)'),
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n=0.0,
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alpha=0.0824,
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E0= (12.11, 'kcal/mol'),
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A= (1.41E30, 'cm^4/(mol^2*s)'),
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n=0.0,
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alpha=0.87,
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E0= (77.188, 'kJ/mol'),
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Tmin= (200, 'K'),
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Tmax= (3000, 'K'),
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),
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rank=0,
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shortDesc=u"""Default""",
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longDesc=u"""
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A and n factors are from the average rates of training reactions 1-3, and alpha and E0 are BEP
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parameters from training reactions 1-3 (in the Surface_Dissociation_to_Bidentate
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forward direction).
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The A factor has been divided by 2.33 here to account for the average degeneracy of the training reactions.
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A and n factors are from the average rates of training reactions 1-2 and reverse of 3-4, and alpha and E0 are BEP
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parameters from training reactions 1-2 and reverse of 3-4.
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+
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Details on the computational method to derive the rate constants for the BEP relation are provided in "Automatic mechanism generation involving
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+
kinetics of surface reactions with bidentate adsorbates" by B. Kreitz, K. Blöndal, K. Badger, R. H. West and C. F. Goldsmith, Digital Discovery, 2024, 3, 173
Calculated by Katrín Blöndal at Brown University, using the vdW-DF-cx functional in Quantum ESPRESSO.
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+
Calculated with DFT by Katrín Blöndal and Bjarne Kreitz at Brown University, using the vdW-DF-cx functional in Quantum ESPRESSO.
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+
Details on the computational method to derive the rate constants are provided in "Automatic mechanism generation involving
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+
kinetics of surface reactions with bidentate adsorbates" by B. Kreitz, K. Blöndal, K. Badger, R. H. West and C. F. Goldsmith, Digital Discovery, 2024, 3, 173
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doi:10.1039/d3dd00184a
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A divided by 3 due to the degeneracy.
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""",
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metal="Pt",
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)
@@ -32,16 +36,20 @@
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label="HCCH3_X + Pt_5 + Pt_6 <=> HCCH2_2X + H_X",
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degeneracy=3,
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kinetics=SurfaceArrhenius(
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A=(2.057E20, 'm^4/(mol^2*s)'),
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n=0.598,
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Ea=(45301.1, 'J/mol'),
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A=(0.65E30, 'cm^4/(mol^2*s)'),
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n=0.0,
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Ea=(49, 'kJ/mol'),
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Tmin= (298, 'K'),
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Tmax= (2000, 'K'),
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),
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rank=8,
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shortDesc=u"""Default""",
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longDesc=u"""
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-
Calculated by Katrín Blöndal at Brown University, using the vdW-DF-cx functional in Quantum ESPRESSO.
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+
Calculated with DFT by Katrín Blöndal and Bjarne Kreitz at Brown University, using the vdW-DF-cx functional in Quantum ESPRESSO.
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+
Details on the computational method to derive the rate constants are provided in "Automatic mechanism generation involving
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kinetics of surface reactions with bidentate adsorbates" by B. Kreitz, K. Blöndal, K. Badger, R. H. West and C. F. Goldsmith, Digital Discovery, 2024, 3, 173
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+
doi:10.1039/d3dd00184a
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A divided by 3 due to the degeneracy.
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""",
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metal="Pt",
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)
@@ -51,16 +59,41 @@
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label="H2CO_2X + H_X <=> H2COH_X + Pt_5 + Pt_6",
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degeneracy=1,
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kinetics=SurfaceArrhenius(
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A=(4.857E16, 'm^2/(mol*s)'),
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n=0.063,
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Ea=(28353.5, 'J/mol'),
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A=(8.22E20, 'cm^2/(mol*s)'),
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n=0.0,
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Ea=(29, 'kJ/mol'),
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Tmin= (298, 'K'),
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Tmax= (2000, 'K'),
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),
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rank=8,
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shortDesc=u"""Default""",
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longDesc=u"""
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-
Calculated by Katrín Blöndal at Brown University, using the vdW-DF-cx functional in Quantum ESPRESSO.
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+
Calculated with DFT by Katrín Blöndal and Bjarne Kreitz at Brown University, using the vdW-DF-cx functional in Quantum ESPRESSO.
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+
Details on the computational method to derive the rate constants are provided in "Automatic mechanism generation involving
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+
kinetics of surface reactions with bidentate adsorbates" by B. Kreitz, K. Blöndal, K. Badger, R. H. West and C. F. Goldsmith, Digital Discovery, 2024, 3, 173
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doi:10.1039/d3dd00184a
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""",
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metal="Pt",
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)
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+
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entry(
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index=4,
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label="XCXCH2 + H_X <=> XCCH3 + Pt_5 + Pt_6",
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degeneracy=1,
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kinetics=SurfaceArrhenius(
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A=(1.07E22, 'cm^2/(mol*s)'),
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n=0.0,
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Ea=(72, 'kJ/mol'),
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Tmin= (298, 'K'),
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Tmax= (2000, 'K'),
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),
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rank=8,
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shortDesc=u"""Default""",
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longDesc=u"""
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Calculated with DFT by Katrín Blöndal and Bjarne Kreitz at Brown University, using the vdW-DF-cx functional in Quantum ESPRESSO.
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+
Details on the computational method to derive the rate constants are provided in "Automatic mechanism generation involving
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+
kinetics of surface reactions with bidentate adsorbates" by B. Kreitz, K. Blöndal, K. Badger, R. H. West and C. F. Goldsmith, Digital Discovery, 2024, 3, 173
Copy file name to clipboardExpand all lines: input/kinetics/families/Surface_vdW_to_Bidentate/rules.py
+9-3Lines changed: 9 additions & 3 deletions
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@@ -9,14 +9,20 @@
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index=1,
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label="Combined;VacantSite",
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kinetics=SurfaceArrheniusBEP(
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A= (1.0e17, 'm^2/(mol*s)'),
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A= (1.78e21, 'cm^2/(mol*s)'),
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n=0,
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alpha=0.0,
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E0= (7, 'kcal/mol'),
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E0= (12, 'kJ/mol'),
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Tmin= (200, 'K'),
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Tmax= (3000, 'K'),
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),
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rank=0,
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shortDesc=u"""Default""",
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longDesc=u"""These values are made up."""
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longDesc=u"""
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These values are based on training reaction 2.
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The other training reactions are barrierless.
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Details on the computational method to derive the rate constants for the BEP relation are provided in "Automatic mechanism generation involving
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+
kinetics of surface reactions with bidentate adsorbates" by B. Kreitz, K. Blöndal, K. Badger, R. H. West and C. F. Goldsmith, Digital Discovery, 2024, 3, 173
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