[Examples] Move input files for PorousMediaBurner.py to submodule

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Ray Speth 2024-04-04 21:25:22 -04:00 committed by Ray Speth
parent 0c5fa1b201
commit 3da2d27b22
4 changed files with 5 additions and 73 deletions

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description: |-
Properties for yttria-stabilized zirconia alumina (YZA) used in
porous media burners. Data compiled by Thorsten Zirwes and used in
https://doi.org/10.1016/j.combustflame.2023.112642
phases:
- name: yttria-stabilized-zirconia
thermo: fixed-stoichiometry
elements: [Zr, O, Ca, Al]
species: [YZA]
state:
T: 300.0
P: 1.01325e+05
species:
- name: YZA
composition: {Zr: 0.5715672995778173, O: 2.306889570287332, Ca: 0.06077156506742553, Al: 0.7353222707095146}
thermo:
model: NASA7
temperature-ranges: [200.0, 1000.0, 5000.0]
data:
- [-2.15829976e+00, 5.54056331e-02, -9.68144479e-05, 7.94178722e-08, -2.47332419e-11, -1.55293386e+05, 5.42538895e+00]
- [9.90166264e+00, 1.44818585e-03, -8.12194927e-08, -2.02609691e-10, 5.14962496e-14, -1.57670861e+05, -5.19395475e+01]
equation-of-state:
model: constant-volume
density: 4.32 g/cm^3

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Subproject commit 430232f7dd41f813c90fc52819034e55b63ad19e
Subproject commit 4cf3af2dc1a2d34c530e32ce50043aa95be7e402

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description: |-
This file contains data for silicon carbide from the NASA thermodynamic
database, which is available for download from
https://shepherd.caltech.edu/EDL/PublicResources/sdt/thermo.html. The
original sources are
S. Gordon and B.J. McBride, "Computer Program for Calculation of Complex
Chemical Equilibrium Composition, Rocket Performance, Incident and
Reflected Shocks and Chapman-Jouguet Detonations", NASA Report SP-273, 1971.
B.J. McBride, S. Gordon, and M.A. Reno, "Coefficients for Calculating
Thermodynamic and Transport Properties of Individual Species", NASA
Report TM-4513, October 1993.
generator: cti2yaml
cantera-version: 2.5.0
date: Wed, 11 Dec 2019 16:59:14 -0500
input-files: [silicon_carbide.cti]
phases:
- name: silicon_carbide
thermo: fixed-stoichiometry
elements: [Si, C]
species: [SiC(b)]
state:
T: 1600.0
P: 1.01325e+05
species:
- name: SiC(b)
composition: {Si: 1, C: 1}
thermo:
model: NASA7
temperature-ranges: [300.0, 1000.0, 4000.0]
data:
- [-2.4715907, 0.030693783, -4.9263085e-05, 3.8626389e-08, -1.1761621e-11,
-9069.126, 8.8009214]
- [3.7974809, 3.1872886e-03, -1.4502334e-06, 3.1549744e-10, -2.6158991e-14,
-1.0291937e+04, -21.067791]
equation-of-state:
model: constant-volume
density: 1.0 g/cm^3

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@ -57,7 +57,7 @@ corresponding experiments can be found in
L. Simitz, D. Trimis, M. Ihme
Combustion and Flame, 250 (https://doi.org/10.1016/j.combustflame.2023.112642)
Requires: cantera >= 2.6.0, matplotlib >= 2.0
Requires: cantera >= 3.1.0, matplotlib >= 2.0
.. tags:: Python, user-defined model, reactor network, combustion, porous media,
heat transfer, radiative heat transfer
@ -145,21 +145,21 @@ YZA40PPI = SolidProperties(porosity=0.82,
pore_diameter=0.00025,
heat_conductivity=effectiveConductivityYZA,
specific_area=2373.,
solid_phase=ct.Solution("YZA.yaml"),
solid_phase=ct.Solution("example_data/YZA.yaml"),
emissivity=0.85)
SiC3PPI = SolidProperties(porosity=0.84,
pore_diameter=0.0085,
heat_conductivity=effectiveConductivitySiC,
specific_area=246.075,
solid_phase=ct.Solution("silicon_carbide.yaml"),
solid_phase=ct.Solution("example_data/silicon_carbide.yaml"),
emissivity=0.85)
SiC10PPI = SolidProperties(porosity=0.84,
pore_diameter=0.00134,
heat_conductivity=effectiveConductivitySiC,
specific_area=978.,
solid_phase=ct.Solution("silicon_carbide.yaml"),
solid_phase=ct.Solution("example_data/silicon_carbide.yaml"),
emissivity=0.85)