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fdm 3d printing of pmma filament  (COMSOL Inc)

 
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    COMSOL Inc fdm 3d printing of pmma filament
    The simulation diagram of the temperature situation and thermal stress distribution with <t>the</t> <t>3D-printed</t> <t>PMMA</t> process. ( a ) Temperature situation. ( b ) Thermal stress distribution.
    Fdm 3d Printing Of Pmma Filament, 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/fdm+3d+printing+of+pmma+filament/fdm+3d+printing+of+pmma+filament/pmc12029580-86-11-16
    Average 90 stars, based on 1 article reviews
    fdm 3d printing of pmma filament - by Bioz Stars, 2026-09
    90/100 stars

    Images

    1) Product Images from "Process Study on 3D Printing of Polymethyl Methacrylate Microfluidic Chips for Chemical Engineering"

    Article Title: Process Study on 3D Printing of Polymethyl Methacrylate Microfluidic Chips for Chemical Engineering

    Journal: Micromachines

    doi: 10.3390/mi16040385

    The simulation diagram of the temperature situation and thermal stress distribution with the 3D-printed PMMA process. ( a ) Temperature situation. ( b ) Thermal stress distribution.
    Figure Legend Snippet: The simulation diagram of the temperature situation and thermal stress distribution with the 3D-printed PMMA process. ( a ) Temperature situation. ( b ) Thermal stress distribution.

    Techniques Used:

    The warping diagram material additive with the FDM 3D-printed PMMA process. ( a ) Printing material warping deformation with the numerical simulation system. ( b ) Printing material warping deformation with an actual machining system. The red triangle represents the degree of horizontal warping of the printed single-layer material relative to the platform. ( c ) The PMMA material warps with three layers printing along the vertical route in the Y -axis direction. ( d ) The morphology of optimally printed three-layer PMMA materials, warping and delamination suppression via platform temperature control (95 °C), and brim adhesion strategy: synergistic effects in 3D-printed PMMA microfluidic chip fabrication.
    Figure Legend Snippet: The warping diagram material additive with the FDM 3D-printed PMMA process. ( a ) Printing material warping deformation with the numerical simulation system. ( b ) Printing material warping deformation with an actual machining system. The red triangle represents the degree of horizontal warping of the printed single-layer material relative to the platform. ( c ) The PMMA material warps with three layers printing along the vertical route in the Y -axis direction. ( d ) The morphology of optimally printed three-layer PMMA materials, warping and delamination suppression via platform temperature control (95 °C), and brim adhesion strategy: synergistic effects in 3D-printed PMMA microfluidic chip fabrication.

    Techniques Used: Control

    The profile of a microfluidic chip with a single 3D-printed molding technique. ( a ) Leakage-free 3D-printed microfluidic chips enabled by gyroid infill pattern: structural integrity enhancement through TPMS design. ( b ) Fluid leakage in 3D-printed chips with twelve other infill patterns (e.g., rectilinear, triangular, and hexagonal): structural deficiencies from reduced integrity and mechanical strength. ( c ) Optical clarity and structural homogeneity of 2-mm-thick 3D-printed PMMA microfluidic chips: transparency benchmarking against a microreactor and a 50-cent CNY coin for scale reference.
    Figure Legend Snippet: The profile of a microfluidic chip with a single 3D-printed molding technique. ( a ) Leakage-free 3D-printed microfluidic chips enabled by gyroid infill pattern: structural integrity enhancement through TPMS design. ( b ) Fluid leakage in 3D-printed chips with twelve other infill patterns (e.g., rectilinear, triangular, and hexagonal): structural deficiencies from reduced integrity and mechanical strength. ( c ) Optical clarity and structural homogeneity of 2-mm-thick 3D-printed PMMA microfluidic chips: transparency benchmarking against a microreactor and a 50-cent CNY coin for scale reference.

    Techniques Used:

    The optimized result of PMMA microchannel with an orthogonal method. ( a ) A factor response figure of the orthogonal method. Ai was the factor of nozzle temperature, Bi was the factor of printing speed, and Ci was the factor of layer height. The line was steeper; the influence of the factor was greater. ( b ) Roughness value with optimized 3D-printed parameter. ( c ) Microchannel profile waviness with optimized 3D-printed parameter. The waviness characterized the microchannel surface planarity. ( d ) The micrograph of the optimized microchannel profile using metallographic microscopy (scale bar: 100 μm).
    Figure Legend Snippet: The optimized result of PMMA microchannel with an orthogonal method. ( a ) A factor response figure of the orthogonal method. Ai was the factor of nozzle temperature, Bi was the factor of printing speed, and Ci was the factor of layer height. The line was steeper; the influence of the factor was greater. ( b ) Roughness value with optimized 3D-printed parameter. ( c ) Microchannel profile waviness with optimized 3D-printed parameter. The waviness characterized the microchannel surface planarity. ( d ) The micrograph of the optimized microchannel profile using metallographic microscopy (scale bar: 100 μm).

    Techniques Used: Microscopy

    Related Articles

    Software:

    Article Title: Process Study on 3D Printing of Polymethyl Methacrylate Microfluidic Chips for Chemical Engineering
    Article Snippet: .. During the preliminary phase of process development, FDM 3D printing of PMMA filament was simulated using COMSOL Multiphysics software v5.5, a finite element analysis software platform for multiphysics computational modeling. ..



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    fdm 3d printing of pmma filament  (COMSOL Inc)
    90
    COMSOL Inc fdm 3d printing of pmma filament
    The simulation diagram of the temperature situation and thermal stress distribution with <t>the</t> <t>3D-printed</t> <t>PMMA</t> process. ( a ) Temperature situation. ( b ) Thermal stress distribution.
    Fdm 3d Printing Of Pmma Filament, 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/fdm+3d+printing+of+pmma+filament/fdm+3d+printing+of+pmma+filament/pmc12029580-86-11-16
    Average 90 stars, based on 1 article reviews
    fdm 3d printing of pmma filament - by Bioz Stars, 2026-09
    90/100 stars
    		  Buy from Supplier

    Image Search Results


    The simulation diagram of the temperature situation and thermal stress distribution with the 3D-printed PMMA process. ( a ) Temperature situation. ( b ) Thermal stress distribution.

    Journal: Micromachines

    Article Title: Process Study on 3D Printing of Polymethyl Methacrylate Microfluidic Chips for Chemical Engineering

    doi: 10.3390/mi16040385

    Figure Lengend Snippet: The simulation diagram of the temperature situation and thermal stress distribution with the 3D-printed PMMA process. ( a ) Temperature situation. ( b ) Thermal stress distribution.

    Article Snippet: During the preliminary phase of process development, FDM 3D printing of PMMA filament was simulated using COMSOL Multiphysics software v5.5, a finite element analysis software platform for multiphysics computational modeling.

    Techniques:

    The warping diagram material additive with the FDM 3D-printed PMMA process. ( a ) Printing material warping deformation with the numerical simulation system. ( b ) Printing material warping deformation with an actual machining system. The red triangle represents the degree of horizontal warping of the printed single-layer material relative to the platform. ( c ) The PMMA material warps with three layers printing along the vertical route in the Y -axis direction. ( d ) The morphology of optimally printed three-layer PMMA materials, warping and delamination suppression via platform temperature control (95 °C), and brim adhesion strategy: synergistic effects in 3D-printed PMMA microfluidic chip fabrication.

    Journal: Micromachines

    Article Title: Process Study on 3D Printing of Polymethyl Methacrylate Microfluidic Chips for Chemical Engineering

    doi: 10.3390/mi16040385

    Figure Lengend Snippet: The warping diagram material additive with the FDM 3D-printed PMMA process. ( a ) Printing material warping deformation with the numerical simulation system. ( b ) Printing material warping deformation with an actual machining system. The red triangle represents the degree of horizontal warping of the printed single-layer material relative to the platform. ( c ) The PMMA material warps with three layers printing along the vertical route in the Y -axis direction. ( d ) The morphology of optimally printed three-layer PMMA materials, warping and delamination suppression via platform temperature control (95 °C), and brim adhesion strategy: synergistic effects in 3D-printed PMMA microfluidic chip fabrication.

    Article Snippet: During the preliminary phase of process development, FDM 3D printing of PMMA filament was simulated using COMSOL Multiphysics software v5.5, a finite element analysis software platform for multiphysics computational modeling.

    Techniques: Control

    The profile of a microfluidic chip with a single 3D-printed molding technique. ( a ) Leakage-free 3D-printed microfluidic chips enabled by gyroid infill pattern: structural integrity enhancement through TPMS design. ( b ) Fluid leakage in 3D-printed chips with twelve other infill patterns (e.g., rectilinear, triangular, and hexagonal): structural deficiencies from reduced integrity and mechanical strength. ( c ) Optical clarity and structural homogeneity of 2-mm-thick 3D-printed PMMA microfluidic chips: transparency benchmarking against a microreactor and a 50-cent CNY coin for scale reference.

    Journal: Micromachines

    Article Title: Process Study on 3D Printing of Polymethyl Methacrylate Microfluidic Chips for Chemical Engineering

    doi: 10.3390/mi16040385

    Figure Lengend Snippet: The profile of a microfluidic chip with a single 3D-printed molding technique. ( a ) Leakage-free 3D-printed microfluidic chips enabled by gyroid infill pattern: structural integrity enhancement through TPMS design. ( b ) Fluid leakage in 3D-printed chips with twelve other infill patterns (e.g., rectilinear, triangular, and hexagonal): structural deficiencies from reduced integrity and mechanical strength. ( c ) Optical clarity and structural homogeneity of 2-mm-thick 3D-printed PMMA microfluidic chips: transparency benchmarking against a microreactor and a 50-cent CNY coin for scale reference.

    Article Snippet: During the preliminary phase of process development, FDM 3D printing of PMMA filament was simulated using COMSOL Multiphysics software v5.5, a finite element analysis software platform for multiphysics computational modeling.

    Techniques:

    The optimized result of PMMA microchannel with an orthogonal method. ( a ) A factor response figure of the orthogonal method. Ai was the factor of nozzle temperature, Bi was the factor of printing speed, and Ci was the factor of layer height. The line was steeper; the influence of the factor was greater. ( b ) Roughness value with optimized 3D-printed parameter. ( c ) Microchannel profile waviness with optimized 3D-printed parameter. The waviness characterized the microchannel surface planarity. ( d ) The micrograph of the optimized microchannel profile using metallographic microscopy (scale bar: 100 μm).

    Journal: Micromachines

    Article Title: Process Study on 3D Printing of Polymethyl Methacrylate Microfluidic Chips for Chemical Engineering

    doi: 10.3390/mi16040385

    Figure Lengend Snippet: The optimized result of PMMA microchannel with an orthogonal method. ( a ) A factor response figure of the orthogonal method. Ai was the factor of nozzle temperature, Bi was the factor of printing speed, and Ci was the factor of layer height. The line was steeper; the influence of the factor was greater. ( b ) Roughness value with optimized 3D-printed parameter. ( c ) Microchannel profile waviness with optimized 3D-printed parameter. The waviness characterized the microchannel surface planarity. ( d ) The micrograph of the optimized microchannel profile using metallographic microscopy (scale bar: 100 μm).

    Article Snippet: During the preliminary phase of process development, FDM 3D printing of PMMA filament was simulated using COMSOL Multiphysics software v5.5, a finite element analysis software platform for multiphysics computational modeling.

    Techniques: Microscopy