My 2D Lithospheric Drip Geodynamic Models

Upper Mantle only, uniform hot initial conditions, no perturbation
MPEGRayleigh #Initial ConditionPerturbationGrid XGrid ZGrid RefinementHeat Prod TypeHeat Prod QMaterial TypeLayersViscosity TypeViscosity PrefactorTemp Depend TypeATref
MPEG1e6uniform hotnone76997noneconstant0layers1constant1exp(A(Tref-T)01.0
MPEG1e6uniform hotnone76997noneconstant0layers1constant1exp(A(Tref-T)ln(10)1.0
MPEG1e6uniform hotnone76997noneconstant0layers1constant1exp(A(Tref-T)ln(100)1.0
MPEG1e6uniform hotnone76997noneconstant0layers1constant1exp(A(Tref-T)ln(1e3)1.0
MPEG1e6uniform hotnone76997noneconstant0layers1constant1exp(A(Tref-T)ln(1e4)1.0
MPEG1e7uniform hotnone76997noneconstant0layers1constant1exp(A(Tref-T)01.0
MPEG1e7uniform hotnone76997noneconstant0layers1constant1exp(A(Tref-T)ln(10)1.0
MPEG1e7uniform hotnone76997noneconstant0layers1constant1exp(A(Tref-T)ln(100)1.0
MPEG1e7uniform hotnone76997noneconstant0layers1constant1exp(A(Tref-T)ln(1e3)1.0
MPEG1e7uniform hotnone76997noneconstant0layers1constant1exp(A(Tref-T)ln(1e4)1.0
MPEG1e8uniform hotnone76997noneconstant0layers1constant1exp(A(Tref-T)01.0
MPEG1e8uniform hotnone76997noneconstant0layers1constant1exp(A(Tref-T)ln(10)1.0
MPEG1e8uniform hotnone76997noneconstant0layers1constant1exp(A(Tref-T)ln(100)1.0
MPEG1e8uniform hotnone76997noneconstant0layers1constant1exp(A(Tref-T)ln(1e3)1.0
MPEG1e8uniform hotnone76997noneconstant0layers1constant1exp(A(Tref-T)ln(1e4)1.0


150 My half-space cooling initial conditions with 100 km perturbation, 0.5% cooler
MPEGRayleigh #Initial ConditionPerturbationGrid XGrid ZGrid RefinementHeat Prod TypeHeat Prod QMaterial TypeLayersViscosity TypeViscosity PrefactorTemp Depend TypeATref
MPEG1e5150 My
HS cooling
depth = 100km
100km circle
-.5% temp
2305385noneconstant0layers1constant1exp(A(Tref-T)00.5
MPEG1e5150 My
HS cooling
depth = 100km
100km circle
-.5% temp
2305385noneconstant0layers1constant1exp(A(Tref-T)ln(10)0.5
MPEG1e5150 My
HS cooling
depth = 100km
100km circle
-.5% temp
2305385noneconstant0layers1constant1exp(A(Tref-T)ln(100)0.5
MPEG1e5150 My
HS cooling
depth = 100km
100km circle
-.5% temp
2305385noneconstant0layers1constant1exp(A(Tref-T)ln(1000)0.5
MPEG1e5150 My
HS cooling
depth = 100km
100km circle
-.5% temp
2305385noneconstant0layers1constant1exp(A(Tref-T)ln(10000)0.5
MPEG1e6150 My
HS cooling
depth = 100km
100km circle
-.5% temp
2305385noneconstant0layers1constant1exp(A(Tref-T)00.5
MPEG1e6150 My
HS cooling
depth = 100km
100km circle
-.5% temp
2305385noneconstant0layers1constant1exp(A(Tref-T)ln(10)0.5
MPEG1e6150 My
HS cooling
depth = 100km
100km circle
-.5% temp
2305385noneconstant0layers1constant1exp(A(Tref-T)ln(100)0.5
MPEG1e6150 My
HS cooling
depth = 100km
100km circle
-.5% temp
2305385noneconstant0layers1constant1exp(A(Tref-T)ln(1000)0.5
MPEG1e6150 My
HS cooling
depth = 100km
100km circle
-.5% temp
2305385noneconstant0layers1constant1exp(A(Tref-T)ln(10000)0.5
MPEG1e7150 My
HS cooling
depth = 100km
100km circle
-.5% temp
2305385noneconstant0layers1constant1exp(A(Tref-T)00.5
MPEG1e7150 My
HS cooling
depth = 100km
100km circle
-.5% temp
2305385noneconstant0layers1constant1exp(A(Tref-T)ln(10)0.5
MPEG1e7150 My
HS cooling
depth = 100km
100km circle
-.5% temp
2305385noneconstant0layers1constant1exp(A(Tref-T)ln(100)0.5
MPEG1e7150 My
HS cooling
depth = 100km
100km circle
-.5% temp
2305385noneconstant0layers1constant1exp(A(Tref-T)ln(1000)0.5
MPEG1e7150 My
HS cooling
depth = 100km
100km circle
-.5% temp
2305385noneconstant0layers1constant1exp(A(Tref-T)ln(10000)0.5
MPEG1e8150 My
HS cooling
depth = 100km
100km circle
-.5% temp
2305385noneconstant0layers1constant1exp(A(Tref-T)00.5
MPEG1e8150 My
HS cooling
depth = 100km
100km circle
-.5% temp
2305385noneconstant0layers1constant1exp(A(Tref-T)ln(10)0.5
MPEG1e8150 My
HS cooling
depth = 100km
100km circle
-.5% temp
2305385noneconstant0layers1constant1exp(A(Tref-T)ln(100)0.5
MPEG1e8150 My
HS cooling
depth = 100km
100km circle
-.5% temp
2305385noneconstant0layers1constant1exp(A(Tref-T)ln(1000)0.5
MPEG1e8150 My
HS cooling
depth = 100km
100km circle
-.5% temp
2305385noneconstant0layers1constant1exp(A(Tref-T)ln(10000)0.5


150 My half-space cooling initial conditions with 10 km perturbation, 0.5% cooler
MPEGRayleigh #Initial ConditionPerturbationGrid XGrid ZGrid RefinementHeat Prod TypeHeat Prod QMaterial TypeLayersViscosity TypeViscosity PrefactorTemp Depend TypeATref
MPEG1e5150 My
HS cooling
depth = 100km
10km circle
-.5% temp
2305385noneconstant0layers1constant1exp(A(Tref-T)ln(10)0.5
MPEG1e5150 My
HS cooling
depth = 100km
10km circle
-.5% temp
2305385noneconstant0layers1constant1exp(A(Tref-T)ln(100)0.5
MPEG1e5150 My
HS cooling
depth = 100km
10km circle
-.5% temp
2305385noneconstant0layers1constant1exp(A(Tref-T)ln(1000)0.5
MPEG1e5150 My
HS cooling
depth = 100km
10km circle
-.5% temp
2305385noneconstant0layers1constant1exp(A(Tref-T)ln(1e4)0.5
MPEG1e5150 My
HS cooling
depth = 100km
10km circle
-.5% temp
2305385noneconstant0layers1constant1exp(A(Tref-T)ln(1e5)0.5
MPEG1e5150 My
HS cooling
depth = 100km
10km circle
-.5% temp
2305385noneconstant0layers1constant1exp(A(Tref-T)ln(1e6)0.5
MPEG1e6150 My
HS cooling
depth = 100km
10km circle
-.5% temp
2305385noneconstant0layers1constant1exp(A(Tref-T)ln(10)0.5
MPEG1e6150 My
HS cooling
depth = 100km
10km circle
-.5% temp
2305385noneconstant0layers1constant1exp(A(Tref-T)ln(100)0.5
MPEG1e6150 My
HS cooling
depth = 100km
10km circle
-.5% temp
2305385noneconstant0layers1constant1exp(A(Tref-T)ln(1000)0.5
MPEG1e6150 My
HS cooling
depth = 100km
10km circle
-.5% temp
2305385noneconstant0layers1constant1exp(A(Tref-T)ln(1e4)0.5
MPEG1e6150 My
HS cooling
depth = 100km
10km circle
-.5% temp
2305385noneconstant0layers1constant1exp(A(Tref-T)ln(1e5)0.5
MPEG1e6150 My
HS cooling
depth = 100km
10km circle
-.5% temp
2305385noneconstant0layers1constant1exp(A(Tref-T)ln(1e6)0.5
MPEG1e7150 My
HS cooling
depth = 100km
10km circle
-.5% temp
2305385noneconstant0layers1constant1exp(A(Tref-T)ln(10)0.5
MPEG1e7150 My
HS cooling
depth = 100km
10km circle
-.5% temp
2305385noneconstant0layers1constant1exp(A(Tref-T)ln(100)0.5
MPEG1e7150 My
HS cooling
depth = 100km
10km circle
-.5% temp
2305385noneconstant0layers1constant1exp(A(Tref-T)ln(1000)0.5
MPEG1e7150 My
HS cooling
depth = 100km
10km circle
-.5% temp
2305385noneconstant0layers1constant1exp(A(Tref-T)ln(1e4)0.5
MPEG1e7150 My
HS cooling
depth = 100km
10km circle
-.5% temp
2305385noneconstant0layers1constant1exp(A(Tref-T)ln(1e5)0.5
MPEG1e7150 My
HS cooling
depth = 100km
10km circle
-.5% temp
2305385noneconstant0layers1constant1exp(A(Tref-T)ln(1e6)0.5
MPEG1e8150 My
HS cooling
depth = 100km
10km circle
-.5% temp
2305385noneconstant0layers1constant1exp(A(Tref-T)ln(10)0.5
MPEG1e8150 My
HS cooling
depth = 100km
10km circle
-.5% temp
2305385noneconstant0layers1constant1exp(A(Tref-T)ln(100)0.5
MPEG1e8150 My
HS cooling
depth = 100km
10km circle
-.5% temp
2305385noneconstant0layers1constant1exp(A(Tref-T)ln(1000)0.5
MPEG1e8150 My
HS cooling
depth = 100km
10km circle
-.5% temp
2305385noneconstant0layers1constant1exp(A(Tref-T)ln(1e4)0.5
MPEG1e8150 My
HS cooling
depth = 100km
10km circle
-.5% temp
2305385noneconstant0layers1constant1exp(A(Tref-T)ln(1e5)0.5
MPEG1e8150 My
HS cooling
depth = 100km
10km circle
-.5% temp
2305385noneconstant0layers1constant1exp(A(Tref-T)ln(1e6)0.5


150 My half-space cooling initial conditions with no perturbation
MPEGRayleigh #Initial ConditionPerturbationGrid XGrid ZGrid RefinementHeat Prod TypeHeat Prod QMaterial TypeLayersViscosity TypeViscosity PrefactorTemp Depend TypeATref
MPEG1e5150 My
HS cooling
none2305385noneconstant0layers1constant1exp(A(Tref-T)00.5
MPEG1e5150 My
HS cooling
none2305385noneconstant0layers1constant1exp(A(Tref-T)ln(10)0.5
MPEG1e5150 My
HS cooling
none2305385noneconstant0layers1constant1exp(A(Tref-T)ln(100)0.5
MPEG1e6150 My
HS cooling
none2305385noneconstant0layers1constant1exp(A(Tref-T)00.5
MPEG1e6150 My
HS cooling
none2305385noneconstant0layers1constant1exp(A(Tref-T)ln(10)0.5
MPEG1e6150 My
HS cooling
none2305385noneconstant0layers1constant1exp(A(Tref-T)ln(100)0.5
MPEG1e7150 My
HS cooling
none2305385noneconstant0layers1constant1exp(A(Tref-T)00.5
MPEG1e7150 My
HS cooling
none2305385noneconstant0layers1constant1exp(A(Tref-T)ln(10)0.5
MPEG1e7150 My
HS cooling
none2305385noneconstant0layers1constant1exp(A(Tref-T)ln(100)0.5
MPEG1e8150 My
HS cooling
none2305385noneconstant0layers1constant1exp(A(Tref-T)00.5
MPEG1e8150 My
HS cooling
none2305385noneconstant0layers1constant1exp(A(Tref-T)ln(10)0.5
MPEG1e8150 My
HS cooling
none2305385noneconstant0layers1constant1exp(A(Tref-T)ln(100)0.5


Uniformly hot initial conditions with no perturbation
MPEGRayleigh #Initial ConditionPerturbationGrid XGrid ZGrid RefinementHeat Prod TypeHeat Prod QMaterial TypeLayersViscosity TypeViscosity PrefactorTemp Depend TypeATref
MPEG1e5uniform hotnone2305385noneconstant0layers1constant1exp(A(Tref-T)00.5
MPEG1e5uniform hotnone2305385noneconstant0layers1constant1exp(A(Tref-T)ln(10)0.5
MPEG1e6uniform hotnone2305385noneconstant0layers1constant1exp(A(Tref-T)ln(10)0.5
MPEG1e7uniform hotnone2305385noneconstant0layers1constant1exp(A(Tref-T)00.5
MPEG1e7uniform hotnone2305385noneconstant0layers1constant1exp(A(Tref-T)ln(10)0.5
MPEG1e8uniform hotnone2305385noneconstant0layers1constant1exp(A(Tref-T)ln(10)0.5


150 My half-space cooling initial conditions, 660km transition zone, with 10 km perturbation, 0.5% cooler
MPEGRayleigh #Initial ConditionPerturbationGrid XGrid ZGrid RefinementHeat Prod TypeHeat Prod QMaterial TypeLayersViscosity TypeViscosity PrefactorTemp Depend TypeATref
MPEG1e5150 My
HS cooling
depth = 100km
10km circle
-.5% temp
2305385noneconstant0layers1constant1exp(A(Tref-T)ln(10)0.5
MPEG1e5150 My
HS cooling
depth = 100km
10km circle
-.5% temp
2305385noneconstant0layers1constant1exp(A(Tref-T)ln(100)0.5
MPEG1e5150 My
HS cooling
depth = 100km
10km circle
-.5% temp
2305385noneconstant0layers1constant1exp(A(Tref-T)ln(1e3)0.5
MPEG1e5150 My
HS cooling
depth = 100km
10km circle
-.5% temp
2305385noneconstant0layers1constant1exp(A(Tref-T)ln(1e4)0.5
MPEG1e6150 My
HS cooling
depth = 100km
10km circle
-.5% temp
2305385noneconstant0layers1constant1exp(A(Tref-T)ln(10)0.5
MPEG1e6150 My
HS cooling
depth = 100km
10km circle
-.5% temp
2305385noneconstant0layers1constant1exp(A(Tref-T)ln(100)0.5
MPEG1e6150 My
HS cooling
depth = 100km
10km circle
-.5% temp
2305385noneconstant0layers1constant1exp(A(Tref-T)ln(1e3)0.5
MPEG1e6150 My
HS cooling
depth = 100km
10km circle
-.5% temp
2305385noneconstant0layers1constant1exp(A(Tref-T)ln(1e4)0.5
MPEG1e7150 My
HS cooling
depth = 100km
10km circle
-.5% temp
2305385noneconstant0layers1constant1exp(A(Tref-T)ln(10)0.5
MPEG1e7150 My
HS cooling
depth = 100km
10km circle
-.5% temp
2305385noneconstant0layers1constant1exp(A(Tref-T)ln(100)0.5
MPEG1e7150 My
HS cooling
depth = 100km
10km circle
-.5% temp
2305385noneconstant0layers1constant1exp(A(Tref-T)ln(1e3)0.5
MPEG1e7150 My
HS cooling
depth = 100km
10km circle
-.5% temp
2305385noneconstant0layers1constant1exp(A(Tref-T)ln(1e4)0.5
MPEG1e8150 My
HS cooling
depth = 100km
10km circle
-.5% temp
2305385noneconstant0layers1constant1exp(A(Tref-T)ln(10)0.5
MPEG1e8150 My
HS cooling
depth = 100km
10km circle
-.5% temp
2305385noneconstant0layers1constant1exp(A(Tref-T)ln(100)0.5
MPEG1e8150 My
HS cooling
depth = 100km
10km circle
-.5% temp
2305385noneconstant0layers1constant1exp(A(Tref-T)ln(1e3)0.5