fem software comsol multiphysics v6.2 (COMSOL Inc)
90
Structured Review
COMSOL Inc
fem software comsol multiphysics v6.2
Fem Software Comsol Multiphysics V6.2, 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/fem+software+comsol+multiphysics+v6%2E2/fem+simulations+comsol+multiphysics+version+5+5/pm40558738-197-24-26
Average 90 stars, based on 1 article reviews
Fem Software Comsol Multiphysics V6.2, 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/fem+software+comsol+multiphysics+v6%2E2/fem+simulations+comsol+multiphysics+version+5+5/pm40558738-197-24-26
Average 90 stars, based on 1 article reviews
fem software comsol multiphysics v6.2 - by Bioz Stars,
2026-10
90/100 stars
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Sublimation:Article Title: Drying of Functional Hydrogels: Development of a Workflow for Bioreactor-Integrated Freeze-Drying of Protein-Coated Alginate Microcarriers for iPS Cell-Based Screenings Article Snippet: To verify the faster drying rate of the 22° Article Title: Towards a Comprehensive Framework for Made-to-Measure Alginate Scaffolds for Tissue Engineering Using Numerical Simulation Article Snippet: These kinetic differential equations are given as a set of diffusion-reaction Equations (27)–(30): (27) ∂ ∂ t ρ p o l y t , x = d i v D 0 p o l y exp − K p o l y ρ c r o s s t , x d i v ρ p o l y t , x − C p o l y ρ p o l y t , x ρ b a t , x (28) ∂ ∂ t ρ b a t , x = d i v D 0 b a e x p − K b a ρ c r o s s t , x d i v ρ b a t , x − C b a ρ p o l y t , x ρ b a t , x − C κ b a ρ b a t , x 1 − κ t , x ρ c r o s s t , x (29) ∂ ∂ t ρ c r o s s t , x = C p o l y + C b a ρ p o l y t , x ρ b a t , x + C κ b a ρ b a t , x 1 − κ t , x ρ c r o s s t , x (30) ∂ ∂ t κ t , x = C κ ρ b a t , x 1 − κ t , x ρ c r o s s t , x This numerical model was implemented using the Article Title: Drying of Functional Hydrogels: Development of a Workflow for Bioreactor-Integrated Freeze-Drying of Protein-Coated Alginate Microcarriers for iPS Cell-Based Screenings. Article Snippet: To verify the faster drying rate of the 22◦ orientation (“ready-to-use”) SBR setup (see Figure 1b), a simple sublimation simulation was established using the Software:Article Title: Drying of Functional Hydrogels: Development of a Workflow for Bioreactor-Integrated Freeze-Drying of Protein-Coated Alginate Microcarriers for iPS Cell-Based Screenings Article Snippet: To verify the faster drying rate of the 22° Article Title: Towards a Comprehensive Framework for Made-to-Measure Alginate Scaffolds for Tissue Engineering Using Numerical Simulation Article Snippet: These kinetic differential equations are given as a set of diffusion-reaction Equations (27)–(30): (27) ∂ ∂ t ρ p o l y t , x = d i v D 0 p o l y exp − K p o l y ρ c r o s s t , x d i v ρ p o l y t , x − C p o l y ρ p o l y t , x ρ b a t , x (28) ∂ ∂ t ρ b a t , x = d i v D 0 b a e x p − K b a ρ c r o s s t , x d i v ρ b a t , x − C b a ρ p o l y t , x ρ b a t , x − C κ b a ρ b a t , x 1 − κ t , x ρ c r o s s t , x (29) ∂ ∂ t ρ c r o s s t , x = C p o l y + C b a ρ p o l y t , x ρ b a t , x + C κ b a ρ b a t , x 1 − κ t , x ρ c r o s s t , x (30) ∂ ∂ t κ t , x = C κ ρ b a t , x 1 − κ t , x ρ c r o s s t , x This numerical model was implemented using the Article Title: Drying of Functional Hydrogels: Development of a Workflow for Bioreactor-Integrated Freeze-Drying of Protein-Coated Alginate Microcarriers for iPS Cell-Based Screenings. Article Snippet: To verify the faster drying rate of the 22◦ orientation (“ready-to-use”) SBR setup (see Figure 1b), a simple sublimation simulation was established using the Diffusion-based Assay:Article Title: Drying of Functional Hydrogels: Development of a Workflow for Bioreactor-Integrated Freeze-Drying of Protein-Coated Alginate Microcarriers for iPS Cell-Based Screenings Article Snippet: To verify the faster drying rate of the 22° Article Title: Towards a Comprehensive Framework for Made-to-Measure Alginate Scaffolds for Tissue Engineering Using Numerical Simulation Article Snippet: These kinetic differential equations are given as a set of diffusion-reaction Equations (27)–(30): (27) ∂ ∂ t ρ p o l y t , x = d i v D 0 p o l y exp − K p o l y ρ c r o s s t , x d i v ρ p o l y t , x − C p o l y ρ p o l y t , x ρ b a t , x (28) ∂ ∂ t ρ b a t , x = d i v D 0 b a e x p − K b a ρ c r o s s t , x d i v ρ b a t , x − C b a ρ p o l y t , x ρ b a t , x − C κ b a ρ b a t , x 1 − κ t , x ρ c r o s s t , x (29) ∂ ∂ t ρ c r o s s t , x = C p o l y + C b a ρ p o l y t , x ρ b a t , x + C κ b a ρ b a t , x 1 − κ t , x ρ c r o s s t , x (30) ∂ ∂ t κ t , x = C κ ρ b a t , x 1 − κ t , x ρ c r o s s t , x This numerical model was implemented using the Article Title: Drying of Functional Hydrogels: Development of a Workflow for Bioreactor-Integrated Freeze-Drying of Protein-Coated Alginate Microcarriers for iPS Cell-Based Screenings. Article Snippet: To verify the faster drying rate of the 22◦ orientation (“ready-to-use”) SBR setup (see Figure 1b), a simple sublimation simulation was established using the |