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replicator 5th generation makerbot filament mp05776  (MakerBot Industries)

 
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    MakerBot Industries replicator 5th generation makerbot filament mp05776
    Current progress of 3D printing tissue-engineered scaffolds for auricular reconstruction.
    Replicator 5th Generation Makerbot Filament Mp05776, supplied by MakerBot Industries, 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/replicator+5th+generation/replicator+5th+generation+makerbot+filament+mp05776/pmc11265588-5-7-11
    Average 90 stars, based on 1 article reviews
    replicator 5th generation makerbot filament mp05776 - by Bioz Stars, 2026-10
    90/100 stars

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    1) Product Images from "3D printing tissue-engineered scaffolds for auricular reconstruction"

    Article Title: 3D printing tissue-engineered scaffolds for auricular reconstruction

    Journal: Materials Today Bio

    doi: 10.1016/j.mtbio.2024.101141

    Current progress of 3D printing tissue-engineered scaffolds for auricular reconstruction.
    Figure Legend Snippet: Current progress of 3D printing tissue-engineered scaffolds for auricular reconstruction.

    Techniques Used:

    Related Articles

    Software:

    Article Title: Efficient engineering of human auricular cartilage through mesenchymal stem cell chaperoning.
    Article Snippet: Correspondence Jason A. Spector, Department of Surgery, Laboratory of Bioregenerative Medicine & Surgery, Division of Plastic Surgery, Weill Cornell Medical College, New York, NY, USA.. Email: jas2037@med.cornell.edu Abstract A major challenge to the clinical translation of tissue‐engineered ear scaffolds for ear reconstruction is the limited auricular chondrocyte (hAuC) yield available from patients.. Starting with a relatively small number of chondrocytes in culture results in dedifferentiation and loss of phenotype with subsequent expansion.

    Article Title: 3D printing tissue-engineered scaffolds for auricular reconstruction
    Article Snippet: Chondrocytes of bovine ear , Collagen , Makerbot Replicator 5th Generation (MakerBot Filament, MP05776) , animal experiment , Dong et al. (2021) [ ] .

    Article Title: Three-Dimensional-Printed External Scaffolds Mitigate Loss of Volume and Topography in Engineered Elastic Cartilage Constructs.
    Article Snippet: Two different scaffolds were created in the 3D-design software Sketchup (Trimble, Sunnyvale, CA), optimized for 3D-printing with a Makerbot Replicator 5th Generation and printed using PLA (MakerBot Filament, MP05776) for in vitro and in vivo study: (1) an 8-mm disc-shaped scaffold (8 mm diameter × 2 mm height) designed as 2 printable parts which could be assembled by snapping together (Fig. 1A, B, C, and E) and (2) a 12-mm ridged scaffold (12 mm diameter) consisting of a cap designed with a helical rim-like structure or “ridge” (9.5 mm × 7.5 mm × 3.0 mm, L × W × H) and a disc-shaped bottom that could be similarly snapped together (Fig. 1F, G, H, and J).

    Proximity Ligation Assay:

    Article Title: Efficient engineering of human auricular cartilage through mesenchymal stem cell chaperoning.
    Article Snippet: Correspondence Jason A. Spector, Department of Surgery, Laboratory of Bioregenerative Medicine & Surgery, Division of Plastic Surgery, Weill Cornell Medical College, New York, NY, USA.. Email: jas2037@med.cornell.edu Abstract A major challenge to the clinical translation of tissue‐engineered ear scaffolds for ear reconstruction is the limited auricular chondrocyte (hAuC) yield available from patients.. Starting with a relatively small number of chondrocytes in culture results in dedifferentiation and loss of phenotype with subsequent expansion.

    Article Title: 3D printing tissue-engineered scaffolds for auricular reconstruction
    Article Snippet: Chondrocytes of bovine ear , Collagen , Makerbot Replicator 5th Generation (MakerBot Filament, MP05776) , animal experiment , Dong et al. (2021) [ ] .

    Article Title: Three-Dimensional-Printed External Scaffolds Mitigate Loss of Volume and Topography in Engineered Elastic Cartilage Constructs.
    Article Snippet: Two different scaffolds were created in the 3D-design software Sketchup (Trimble, Sunnyvale, CA), optimized for 3D-printing with a Makerbot Replicator 5th Generation and printed using PLA (MakerBot Filament, MP05776) for in vitro and in vivo study: (1) an 8-mm disc-shaped scaffold (8 mm diameter × 2 mm height) designed as 2 printable parts which could be assembled by snapping together (Fig. 1A, B, C, and E) and (2) a 12-mm ridged scaffold (12 mm diameter) consisting of a cap designed with a helical rim-like structure or “ridge” (9.5 mm × 7.5 mm × 3.0 mm, L × W × H) and a disc-shaped bottom that could be similarly snapped together (Fig. 1F, G, H, and J).

    In Vitro:

    Article Title: Efficient engineering of human auricular cartilage through mesenchymal stem cell chaperoning.
    Article Snippet: Correspondence Jason A. Spector, Department of Surgery, Laboratory of Bioregenerative Medicine & Surgery, Division of Plastic Surgery, Weill Cornell Medical College, New York, NY, USA.. Email: jas2037@med.cornell.edu Abstract A major challenge to the clinical translation of tissue‐engineered ear scaffolds for ear reconstruction is the limited auricular chondrocyte (hAuC) yield available from patients.. Starting with a relatively small number of chondrocytes in culture results in dedifferentiation and loss of phenotype with subsequent expansion.

    Article Title: 3D printing tissue-engineered scaffolds for auricular reconstruction
    Article Snippet: Chondrocytes of bovine ear , Collagen , Makerbot Replicator 5th Generation (MakerBot Filament, MP05776) , animal experiment , Dong et al. (2021) [ ] .

    Article Title: Three-Dimensional-Printed External Scaffolds Mitigate Loss of Volume and Topography in Engineered Elastic Cartilage Constructs.
    Article Snippet: Two different scaffolds were created in the 3D-design software Sketchup (Trimble, Sunnyvale, CA), optimized for 3D-printing with a Makerbot Replicator 5th Generation and printed using PLA (MakerBot Filament, MP05776) for in vitro and in vivo study: (1) an 8-mm disc-shaped scaffold (8 mm diameter × 2 mm height) designed as 2 printable parts which could be assembled by snapping together (Fig. 1A, B, C, and E) and (2) a 12-mm ridged scaffold (12 mm diameter) consisting of a cap designed with a helical rim-like structure or “ridge” (9.5 mm × 7.5 mm × 3.0 mm, L × W × H) and a disc-shaped bottom that could be similarly snapped together (Fig. 1F, G, H, and J).

    In Vivo:

    Article Title: Efficient engineering of human auricular cartilage through mesenchymal stem cell chaperoning.
    Article Snippet: Correspondence Jason A. Spector, Department of Surgery, Laboratory of Bioregenerative Medicine & Surgery, Division of Plastic Surgery, Weill Cornell Medical College, New York, NY, USA.. Email: jas2037@med.cornell.edu Abstract A major challenge to the clinical translation of tissue‐engineered ear scaffolds for ear reconstruction is the limited auricular chondrocyte (hAuC) yield available from patients.. Starting with a relatively small number of chondrocytes in culture results in dedifferentiation and loss of phenotype with subsequent expansion.

    Article Title: 3D printing tissue-engineered scaffolds for auricular reconstruction
    Article Snippet: Chondrocytes of bovine ear , Collagen , Makerbot Replicator 5th Generation (MakerBot Filament, MP05776) , animal experiment , Dong et al. (2021) [ ] .

    Article Title: Three-Dimensional-Printed External Scaffolds Mitigate Loss of Volume and Topography in Engineered Elastic Cartilage Constructs.
    Article Snippet: Two different scaffolds were created in the 3D-design software Sketchup (Trimble, Sunnyvale, CA), optimized for 3D-printing with a Makerbot Replicator 5th Generation and printed using PLA (MakerBot Filament, MP05776) for in vitro and in vivo study: (1) an 8-mm disc-shaped scaffold (8 mm diameter × 2 mm height) designed as 2 printable parts which could be assembled by snapping together (Fig. 1A, B, C, and E) and (2) a 12-mm ridged scaffold (12 mm diameter) consisting of a cap designed with a helical rim-like structure or “ridge” (9.5 mm × 7.5 mm × 3.0 mm, L × W × H) and a disc-shaped bottom that could be similarly snapped together (Fig. 1F, G, H, and J).



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    Image Search Results


    Current progress of 3D printing tissue-engineered scaffolds for auricular reconstruction.

    Journal: Materials Today Bio

    Article Title: 3D printing tissue-engineered scaffolds for auricular reconstruction

    doi: 10.1016/j.mtbio.2024.101141

    Figure Lengend Snippet: Current progress of 3D printing tissue-engineered scaffolds for auricular reconstruction.

    Article Snippet: Chondrocytes of bovine ear , Collagen , Makerbot Replicator 5th Generation (MakerBot Filament, MP05776) , animal experiment , Dong et al. (2021) [ ] .

    Techniques:

    Review of literature employing personalized 3D printed molds for imaging-histological correlation.

    Journal: Contrast Media & Molecular Imaging

    Article Title: MR Imaging-Histology Correlation by Tailored 3D-Printed Slicer in Oncological Assessment

    doi: 10.1155/2019/1071453

    Figure Lengend Snippet: Review of literature employing personalized 3D printed molds for imaging-histological correlation.

    Article Snippet: [ ] , Brain , 4 , N/A , N/A , MakerBot 5th Generation Replicator , Desktop , $2,500 , FDM , 100 , PLA , N/A.

    Techniques: Imaging, Ex Vivo, In Vivo

    Clinical and preclincal application of  3D  bioprinting in craniofacial tissue engineering

    Journal: Bioengineering & Translational Medicine

    Article Title: Biomedical applications of three‐dimensional bioprinted craniofacial tissue engineering

    doi: 10.1002/btm2.10333

    Figure Lengend Snippet: Clinical and preclincal application of 3D bioprinting in craniofacial tissue engineering

    Article Snippet: 27 , MakerBot Replicator Desktop 3D Printer (5th Generation), MakerBot Industries, Brooklyn, NY) , Craniofacial reconstruction , Polylactic acid , .

    Techniques: In Vivo, Polymer, In Vitro