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COMSOL Inc comsol multiphysics-predicted model
Comsol Multiphysics Predicted Model, supplied by COMSOL Inc, used in various techniques. Bioz Stars score: 90/100, based on 1 PubMed citations. ZERO BIAS - scores, article reviews, protocol conditions and more
https://www.bioz.com/product/comsol+multiphysics%C2%AE+model/comsol+multiphysics+model/pmc12212249-327-8-8
Average 90 stars, based on 1 article reviews
comsol multiphysics-predicted model - by Bioz Stars, 2026-10
90/100 stars

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Related Articles

Multiplex Assay:

Article Title: Highly controlled multiplex electrospinning
Article Snippet: Fig. 3 COMSOL Multiphysics® model showing electrostatic field strength within the multiplex ES system.

Article Title: COMSOL Multiphysics® modelling of oxygen diffusion through a cellulose nanofibril conduit employed for peripheral nerve repair
Article Snippet: The COMSOL Multiphysics® model generated oxygen concentration profiles that could be analyzed both spatially and temporally and in a quantitative and qualitative manner.

Article Title: COMSOL Multiphysics® modelling of oxygen diffusion through a cellulose nanofibril conduit employed for peripheral nerve repair
Article Snippet: To provide insight into the concentration and distribution of oxygen with a peripheral nerve conduit, a COMSOL Multiphysics® model of a peripheral nerve injury comprising a 3 mm gap between the proximal and distal stumps was created.

Article Title: Deterministic Lateral Displacement Using Hexagonally Arranged, Bottom-Up-Inspired Micropost Arrays.
Article Snippet: S5 Table S1: Mesh convergence study parameters Line # Maximum element size [m] Minimum element size [m] Maximum element growth rate Curvature factor Resolution of narrow regions COMSOL default setting 1 2.2e-6 7.0e-8 1.40 1.0 0.9 Extremely coarse 2 8.7e-7 4.0e-8 1.25 0.6 1.0 Coarser 3 4.5e-7 2.0e-8 1.15 0.3 1.0 Normal 4 3.5e-7 1.0e-8 1.13 0.3 1.0 Fine S6 Section S-3: Model verification through simulation of established conventional DLD The COMSOL Multiphysics® model was verified for its ability to accurately simulate particle separation using a conventional parallelogram-type circular post DLD array2 as a reference.

Article Title: Experimental Validation of a Three-Dimensional Heat Transfer Model Within the Scala Tympani With Application to Magnetic Cochlear Implant Surgery
Article Snippet: The impact of therapeutic hypothermia in the cochlea was studied by Tamames et al. [21] using a COMSOL Multiphysics® model validated with experimental data.

Article Title: Measurement of anisotropic volumetric resistivity in lithium ion electrodes
Article Snippet: Default Parameter Values Used In Comsol Multiphysics® Model Parameter Default Value Coating conductivity / S m-1 100 Coating thickness / um 100 Cu - coating Interface impedance / Ohm m2 0.0001 Current source / mA 0.10 Coating area / mm2 7.80 Foil area / mm2 8.96 Mesh size Finer Table S.13.

Article Title: Benchmark assessment of performance indices of a selection of hybrid nanofluids in a hybrid photovoltaic/thermal system
Article Snippet: Fig. 28 shows that the analytical model (blue line) provides a good approximation to the COMSOL Multiphysics® model (green line); therefore, it can be used in analytical calculations.

Article Title: In Situ Digital Image Correlation Observations of Laser Forming
Article Snippet: In order to simulate the heating of the CP Ti grade 2 metal sheet with a laser beam (as heating source), a time-dependent 3D model was used in the FEM (finite element method) COMSOL Multiphysics® model.

Generated:

Article Title: Highly controlled multiplex electrospinning
Article Snippet: Fig. 3 COMSOL Multiphysics® model showing electrostatic field strength within the multiplex ES system.

Article Title: COMSOL Multiphysics® modelling of oxygen diffusion through a cellulose nanofibril conduit employed for peripheral nerve repair
Article Snippet: The COMSOL Multiphysics® model generated oxygen concentration profiles that could be analyzed both spatially and temporally and in a quantitative and qualitative manner.

Article Title: COMSOL Multiphysics® modelling of oxygen diffusion through a cellulose nanofibril conduit employed for peripheral nerve repair
Article Snippet: To provide insight into the concentration and distribution of oxygen with a peripheral nerve conduit, a COMSOL Multiphysics® model of a peripheral nerve injury comprising a 3 mm gap between the proximal and distal stumps was created.

Article Title: Deterministic Lateral Displacement Using Hexagonally Arranged, Bottom-Up-Inspired Micropost Arrays.
Article Snippet: S5 Table S1: Mesh convergence study parameters Line # Maximum element size [m] Minimum element size [m] Maximum element growth rate Curvature factor Resolution of narrow regions COMSOL default setting 1 2.2e-6 7.0e-8 1.40 1.0 0.9 Extremely coarse 2 8.7e-7 4.0e-8 1.25 0.6 1.0 Coarser 3 4.5e-7 2.0e-8 1.15 0.3 1.0 Normal 4 3.5e-7 1.0e-8 1.13 0.3 1.0 Fine S6 Section S-3: Model verification through simulation of established conventional DLD The COMSOL Multiphysics® model was verified for its ability to accurately simulate particle separation using a conventional parallelogram-type circular post DLD array2 as a reference.

Article Title: Experimental Validation of a Three-Dimensional Heat Transfer Model Within the Scala Tympani With Application to Magnetic Cochlear Implant Surgery
Article Snippet: The impact of therapeutic hypothermia in the cochlea was studied by Tamames et al. [21] using a COMSOL Multiphysics® model validated with experimental data.

Article Title: Measurement of anisotropic volumetric resistivity in lithium ion electrodes
Article Snippet: Default Parameter Values Used In Comsol Multiphysics® Model Parameter Default Value Coating conductivity / S m-1 100 Coating thickness / um 100 Cu - coating Interface impedance / Ohm m2 0.0001 Current source / mA 0.10 Coating area / mm2 7.80 Foil area / mm2 8.96 Mesh size Finer Table S.13.

Article Title: Benchmark assessment of performance indices of a selection of hybrid nanofluids in a hybrid photovoltaic/thermal system
Article Snippet: Fig. 28 shows that the analytical model (blue line) provides a good approximation to the COMSOL Multiphysics® model (green line); therefore, it can be used in analytical calculations.

Article Title: In Situ Digital Image Correlation Observations of Laser Forming
Article Snippet: In order to simulate the heating of the CP Ti grade 2 metal sheet with a laser beam (as heating source), a time-dependent 3D model was used in the FEM (finite element method) COMSOL Multiphysics® model.

Concentration Assay:

Article Title: Highly controlled multiplex electrospinning
Article Snippet: Fig. 3 COMSOL Multiphysics® model showing electrostatic field strength within the multiplex ES system.

Article Title: COMSOL Multiphysics® modelling of oxygen diffusion through a cellulose nanofibril conduit employed for peripheral nerve repair
Article Snippet: The COMSOL Multiphysics® model generated oxygen concentration profiles that could be analyzed both spatially and temporally and in a quantitative and qualitative manner.

Article Title: COMSOL Multiphysics® modelling of oxygen diffusion through a cellulose nanofibril conduit employed for peripheral nerve repair
Article Snippet: To provide insight into the concentration and distribution of oxygen with a peripheral nerve conduit, a COMSOL Multiphysics® model of a peripheral nerve injury comprising a 3 mm gap between the proximal and distal stumps was created.

Article Title: Deterministic Lateral Displacement Using Hexagonally Arranged, Bottom-Up-Inspired Micropost Arrays.
Article Snippet: S5 Table S1: Mesh convergence study parameters Line # Maximum element size [m] Minimum element size [m] Maximum element growth rate Curvature factor Resolution of narrow regions COMSOL default setting 1 2.2e-6 7.0e-8 1.40 1.0 0.9 Extremely coarse 2 8.7e-7 4.0e-8 1.25 0.6 1.0 Coarser 3 4.5e-7 2.0e-8 1.15 0.3 1.0 Normal 4 3.5e-7 1.0e-8 1.13 0.3 1.0 Fine S6 Section S-3: Model verification through simulation of established conventional DLD The COMSOL Multiphysics® model was verified for its ability to accurately simulate particle separation using a conventional parallelogram-type circular post DLD array2 as a reference.

Article Title: Experimental Validation of a Three-Dimensional Heat Transfer Model Within the Scala Tympani With Application to Magnetic Cochlear Implant Surgery
Article Snippet: The impact of therapeutic hypothermia in the cochlea was studied by Tamames et al. [21] using a COMSOL Multiphysics® model validated with experimental data.

Article Title: Measurement of anisotropic volumetric resistivity in lithium ion electrodes
Article Snippet: Default Parameter Values Used In Comsol Multiphysics® Model Parameter Default Value Coating conductivity / S m-1 100 Coating thickness / um 100 Cu - coating Interface impedance / Ohm m2 0.0001 Current source / mA 0.10 Coating area / mm2 7.80 Foil area / mm2 8.96 Mesh size Finer Table S.13.

Article Title: Benchmark assessment of performance indices of a selection of hybrid nanofluids in a hybrid photovoltaic/thermal system
Article Snippet: Fig. 28 shows that the analytical model (blue line) provides a good approximation to the COMSOL Multiphysics® model (green line); therefore, it can be used in analytical calculations.

Article Title: In Situ Digital Image Correlation Observations of Laser Forming
Article Snippet: In order to simulate the heating of the CP Ti grade 2 metal sheet with a laser beam (as heating source), a time-dependent 3D model was used in the FEM (finite element method) COMSOL Multiphysics® model.

Diffusion-based Assay:

Article Title: Highly controlled multiplex electrospinning
Article Snippet: Fig. 3 COMSOL Multiphysics® model showing electrostatic field strength within the multiplex ES system.

Article Title: COMSOL Multiphysics® modelling of oxygen diffusion through a cellulose nanofibril conduit employed for peripheral nerve repair
Article Snippet: The COMSOL Multiphysics® model generated oxygen concentration profiles that could be analyzed both spatially and temporally and in a quantitative and qualitative manner.

Article Title: COMSOL Multiphysics® modelling of oxygen diffusion through a cellulose nanofibril conduit employed for peripheral nerve repair
Article Snippet: To provide insight into the concentration and distribution of oxygen with a peripheral nerve conduit, a COMSOL Multiphysics® model of a peripheral nerve injury comprising a 3 mm gap between the proximal and distal stumps was created.

Article Title: Deterministic Lateral Displacement Using Hexagonally Arranged, Bottom-Up-Inspired Micropost Arrays.
Article Snippet: S5 Table S1: Mesh convergence study parameters Line # Maximum element size [m] Minimum element size [m] Maximum element growth rate Curvature factor Resolution of narrow regions COMSOL default setting 1 2.2e-6 7.0e-8 1.40 1.0 0.9 Extremely coarse 2 8.7e-7 4.0e-8 1.25 0.6 1.0 Coarser 3 4.5e-7 2.0e-8 1.15 0.3 1.0 Normal 4 3.5e-7 1.0e-8 1.13 0.3 1.0 Fine S6 Section S-3: Model verification through simulation of established conventional DLD The COMSOL Multiphysics® model was verified for its ability to accurately simulate particle separation using a conventional parallelogram-type circular post DLD array2 as a reference.

Article Title: Experimental Validation of a Three-Dimensional Heat Transfer Model Within the Scala Tympani With Application to Magnetic Cochlear Implant Surgery
Article Snippet: The impact of therapeutic hypothermia in the cochlea was studied by Tamames et al. [21] using a COMSOL Multiphysics® model validated with experimental data.

Article Title: Measurement of anisotropic volumetric resistivity in lithium ion electrodes
Article Snippet: Default Parameter Values Used In Comsol Multiphysics® Model Parameter Default Value Coating conductivity / S m-1 100 Coating thickness / um 100 Cu - coating Interface impedance / Ohm m2 0.0001 Current source / mA 0.10 Coating area / mm2 7.80 Foil area / mm2 8.96 Mesh size Finer Table S.13.

Article Title: Benchmark assessment of performance indices of a selection of hybrid nanofluids in a hybrid photovoltaic/thermal system
Article Snippet: Fig. 28 shows that the analytical model (blue line) provides a good approximation to the COMSOL Multiphysics® model (green line); therefore, it can be used in analytical calculations.

Article Title: In Situ Digital Image Correlation Observations of Laser Forming
Article Snippet: In order to simulate the heating of the CP Ti grade 2 metal sheet with a laser beam (as heating source), a time-dependent 3D model was used in the FEM (finite element method) COMSOL Multiphysics® model.



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(a) The output power measured experimentally for TEC cells with different electrode separation ( i.e. electrolyte or hydrogel thickness) as a function of voltage. (b) V oc and current density calculated with a complete COMSOL <t>multiphysics</t> simulation as a function of electrode separation. (c) The experimental result for the maximum output power as a function of electrode separation along with a 3rd-order polynomial fit just to underline the trend. (d) The convection velocity at the electrode/electrolyte interface obtained for cells with 10 mm width and different heights, explaining the reason for the performance decay after 20 mm (obtained from simulations).
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(a) The output power measured experimentally for TEC cells with different electrode separation ( i.e. electrolyte or hydrogel thickness) as a function of voltage. (b) V oc and current density calculated with a complete COMSOL <t>multiphysics</t> simulation as a function of electrode separation. (c) The experimental result for the maximum output power as a function of electrode separation along with a 3rd-order polynomial fit just to underline the trend. (d) The convection velocity at the electrode/electrolyte interface obtained for cells with 10 mm width and different heights, explaining the reason for the performance decay after 20 mm (obtained from simulations).
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(a) The output power measured experimentally for TEC cells with different electrode separation ( i.e. electrolyte or hydrogel thickness) as a function of voltage. (b) V oc and current density calculated with a complete COMSOL multiphysics simulation as a function of electrode separation. (c) The experimental result for the maximum output power as a function of electrode separation along with a 3rd-order polynomial fit just to underline the trend. (d) The convection velocity at the electrode/electrolyte interface obtained for cells with 10 mm width and different heights, explaining the reason for the performance decay after 20 mm (obtained from simulations).

Journal: Materials Horizons

Article Title: Hydrogel-based thermoelectrochemical cells for waste heat recovery under passive cooling conditions †

doi: 10.1039/d5mh00771b

Figure Lengend Snippet: (a) The output power measured experimentally for TEC cells with different electrode separation ( i.e. electrolyte or hydrogel thickness) as a function of voltage. (b) V oc and current density calculated with a complete COMSOL multiphysics simulation as a function of electrode separation. (c) The experimental result for the maximum output power as a function of electrode separation along with a 3rd-order polynomial fit just to underline the trend. (d) The convection velocity at the electrode/electrolyte interface obtained for cells with 10 mm width and different heights, explaining the reason for the performance decay after 20 mm (obtained from simulations).

Article Snippet: Using a comprehensive COMSOL Multiphysics model (Fig. S3 with parameters reported in Table S1, ESI ), we compare the thermal behavior of a conventional liquid electrolyte and a hydrogel-based electrolyte as a function of the electrode separations, while keeping the lateral dimensions of the cell constant (width W = 10 mm and depth D = 10 mm).

Techniques: Convection