image software program autocad 2021 Search Results


autocad 2021  (Autodesk Inc)
86
Autodesk Inc autocad 2021
Autocad 2021, supplied by Autodesk Inc, used in various techniques. Bioz Stars score: 86/100, based on 1 PubMed citations. ZERO BIAS - scores, article reviews, protocol conditions and more
https://www.bioz.com/product/image+software+program+autocad+2021/pmc12729830-50-16-18?v=Autodesk+Inc
Average 86 stars, based on 1 article reviews
autocad 2021 - by Bioz Stars, 2026-08
86/100 stars
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autocad software  (Autodesk Inc)
86
Autodesk Inc autocad software
Sequential steps used in the in-silico study: ( A ) A representative image captured during the experiment, showing the green region representing HBSS flow and the black region representing BSM-2. This image was used to generate the geometry for numerical simulations of the experiment conducted with BSM-2. ( B ) A binarized version of the image in panel A, processed using Convertio and further edited in <t>AutoCAD</t> before being imported into the COMSOL software. ( C ) The final 3D geometry used for numerical simulations, incorporating the corresponding boundary conditions. The corresponding 3D geometry for the numerical simulation of the experiment conducted with BSM-1 was also generated following the same procedure, using the image shown in panel A of Fig.
Autocad Software, supplied by Autodesk Inc, used in various techniques. Bioz Stars score: 86/100, based on 1 PubMed citations. ZERO BIAS - scores, article reviews, protocol conditions and more
https://www.bioz.com/product/image+software+program+autocad+2021/pmc12397131-71-10-15?v=Autodesk+Inc
Average 86 stars, based on 1 article reviews
autocad software - by Bioz Stars, 2026-08
86/100 stars
  Buy from Supplier

Image Search Results


Sequential steps used in the in-silico study: ( A ) A representative image captured during the experiment, showing the green region representing HBSS flow and the black region representing BSM-2. This image was used to generate the geometry for numerical simulations of the experiment conducted with BSM-2. ( B ) A binarized version of the image in panel A, processed using Convertio and further edited in AutoCAD before being imported into the COMSOL software. ( C ) The final 3D geometry used for numerical simulations, incorporating the corresponding boundary conditions. The corresponding 3D geometry for the numerical simulation of the experiment conducted with BSM-1 was also generated following the same procedure, using the image shown in panel A of Fig.

Journal: Drug Delivery and Translational Research

Article Title: Innovative microfluidic model for investigating the intestinal mucus barrier: numerical and experimental perspectives

doi: 10.1007/s13346-025-01818-8

Figure Lengend Snippet: Sequential steps used in the in-silico study: ( A ) A representative image captured during the experiment, showing the green region representing HBSS flow and the black region representing BSM-2. This image was used to generate the geometry for numerical simulations of the experiment conducted with BSM-2. ( B ) A binarized version of the image in panel A, processed using Convertio and further edited in AutoCAD before being imported into the COMSOL software. ( C ) The final 3D geometry used for numerical simulations, incorporating the corresponding boundary conditions. The corresponding 3D geometry for the numerical simulation of the experiment conducted with BSM-1 was also generated following the same procedure, using the image shown in panel A of Fig.

Article Snippet: The device design, shown in Fig. -A, was drafted using AutoCAD software (Version 2021 by Autodesk) and translated into a mask for photolithography (Fig. -B), with photomask production completed by JD Photo Data company.

Techniques: In Silico, Software, Generated

Velocity field for BSM-2: Panel A shows the velocity distribution by tracking the green and red particles. Tracking is done for the experiment with BSM-2 from 240 to 300 s. Panel B presents the 3D geometry utilized for simulation and boundary conditions. The image in Panel A is binarized using the Convertio platform and then imported into AutoCAD to scale and fine-tune it. The image is subsequently imported into COMSOL software to create the 3D geometry by extruding the 2D map. Panel B shows the 3D geometry in COMSOL software, based on the image in Panel A , representing the microfluidic device during the experiment. The pink areas in Panel B correspond to the black areas in Panel A , representing BSM-2, and the yellow areas in Panel B correspond to the green areas in Panel A , representing HBSS. Panel C shows the mesh quality plot. Panel D displays the velocity streamlines, indicating the flow pattern and velocity magnitude. Panel E illustrates the velocity profile over cut planes, showing the variation of velocity in 3D orientation. Panel F shows the pressure distribution

Journal: Drug Delivery and Translational Research

Article Title: Innovative microfluidic model for investigating the intestinal mucus barrier: numerical and experimental perspectives

doi: 10.1007/s13346-025-01818-8

Figure Lengend Snippet: Velocity field for BSM-2: Panel A shows the velocity distribution by tracking the green and red particles. Tracking is done for the experiment with BSM-2 from 240 to 300 s. Panel B presents the 3D geometry utilized for simulation and boundary conditions. The image in Panel A is binarized using the Convertio platform and then imported into AutoCAD to scale and fine-tune it. The image is subsequently imported into COMSOL software to create the 3D geometry by extruding the 2D map. Panel B shows the 3D geometry in COMSOL software, based on the image in Panel A , representing the microfluidic device during the experiment. The pink areas in Panel B correspond to the black areas in Panel A , representing BSM-2, and the yellow areas in Panel B correspond to the green areas in Panel A , representing HBSS. Panel C shows the mesh quality plot. Panel D displays the velocity streamlines, indicating the flow pattern and velocity magnitude. Panel E illustrates the velocity profile over cut planes, showing the variation of velocity in 3D orientation. Panel F shows the pressure distribution

Article Snippet: The device design, shown in Fig. -A, was drafted using AutoCAD software (Version 2021 by Autodesk) and translated into a mask for photolithography (Fig. -B), with photomask production completed by JD Photo Data company.

Techniques: Software