Fused filament fabrication of scaffolds for tissue engineering; how realistic is shape-memory? A review

Since the invention of additive manufacturing (AM) in the 1980s, great advances are today conceivable thanks to considerable evolution in recent years. Medicine, and particularly tissue engineering (TE), have high expectations regarding AM, which allows the manufacturing of complex personalized part...

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Published inPolymer (Guilford) Vol. 217; p. 123440
Main Authors Bayart, Marie, Charlon, Sébastien, Soulestin, Jérémie
Format Journal Article
LanguageEnglish
Published Kidlington Elsevier Ltd 05.03.2021
Elsevier BV
Elsevier
Subjects
4D printing
Additive manufacturing (AM)
Biocompatibility
Biodegradability
Biodegradation
Biomedical materials
Condensed Matter
Fabrication
Fused deposition modeling
Fused filament fabrication (FFF)
Materials Science
Parameterization
Physics
Polymers
Scaffolds
Shape memory
Shape-memory polymers (SMPs)
Thickness
Tissue engineering
4D printing
Additive manufacturing (AM)
Scaffolds
Fused filament fabrication (FFF)
Shape-memory polymers (SMPs)
Online AccessGet full text
ISSN0032-3861
1873-2291
DOI10.1016/j.polymer.2021.123440

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Abstract Since the invention of additive manufacturing (AM) in the 1980s, great advances are today conceivable thanks to considerable evolution in recent years. Medicine, and particularly tissue engineering (TE), have high expectations regarding AM, which allows the manufacturing of complex personalized parts. Among existing techniques, fused filament fabrication (FFF) is very promising in the biomedical field, due to its many advantages, particularly for specific applications such as scaffolds for TE. This review, in interaction with biomedical, process and material sciences, aims to help researchers understand the importance of process parameterization (build orientation, raster angle, layer thickness, etc.) combined with an appropriate material choice, to develop optimized scaffolds using FFF. This review also reflects the state of existing advances and opens perspectives on the subject, especially with the use of biodegradable and biocompatible shape-memory polymers, the principle of which will be revisited and the few studies concerning shape-memory scaffolds will be gathered. [Display omitted] •A reminder includes information on materials' properties needed in biomedicine.•Studies refer to FFF and its setting optimization for the production of scaffolds.•Scaffolds' optimization is based on their composition and machine parameterization.•SMPs show great promises to develop scaffolds for tissue engineering.•The need to study the effect of FFF settings on materials' properties is growing.
AbstractList Since the invention of additive manufacturing (AM) in the 1980s, great advances are today conceivable thanks to considerable evolution in recent years. Medicine, and particularly tissue engineering (TE), have high expectations regarding AM, which allows the manufacturing of complex personalized parts. Among existing techniques, fused filament fabrication (FFF) is very promising in the biomedical field, due to its many advantages, particularly for specific applications such as scaffolds for TE. This review, in interaction with biomedical, process and material sciences, aims to help researchers understand the importance of process parameterization (build orientation, raster angle, layer thickness, etc.) combined with an appropriate material choice, to develop optimized scaffolds using FFF. This review also reflects the state of existing advances and opens perspectives on the subject, especially with the use of biodegradable and biocompatible shape-memory polymers, the principle of which will be revisited and the few studies concerning shape-memory scaffolds will be gathered. [Display omitted] •A reminder includes information on materials' properties needed in biomedicine.•Studies refer to FFF and its setting optimization for the production of scaffolds.•Scaffolds' optimization is based on their composition and machine parameterization.•SMPs show great promises to develop scaffolds for tissue engineering.•The need to study the effect of FFF settings on materials' properties is growing.
Since the invention of additive manufacturing (AM) in the 1980s, great advances are today conceivable thanks to considerable evolution in recent years. Medicine, and particularly tissue engineering (TE), have high expectations regarding AM, which allows the manufacturing of complex personalized parts. Among existing techniques, fused filament fabrication (FFF) is very promising in the biomedical field, due to its many advantages, particularly for specific applications such as scaffolds for TE. This review, in interaction with biomedical, process and material sciences, aims to help researchers understand the importance of process parameterization (build orientation, raster angle, layer thickness, etc.) combined with an appropriate material choice, to develop optimized scaffolds using FFF. This review also reflects the state of existing advances and opens perspectives on the subject, especially with the use of biodegradable and biocompatible shape-memory polymers, the principle of which will be revisited and the few studies concerning shape-memory scaffolds will be gathered.
ArticleNumber 123440
Author Bayart, Marie
Charlon, Sébastien
Soulestin, Jérémie
Author_xml – sequence: 1
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  surname: Bayart
  fullname: Bayart, Marie
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  givenname: Sébastien
  surname: Charlon
  fullname: Charlon, Sébastien
  email: sebastien.charlon@imt-lille-douai.fr
– sequence: 3
  givenname: Jérémie
  surname: Soulestin
  fullname: Soulestin, Jérémie
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Keywords 4D printing
Additive manufacturing (AM)
Scaffolds
Fused filament fabrication (FFF)
Shape-memory polymers (SMPs)
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Snippet Since the invention of additive manufacturing (AM) in the 1980s, great advances are today conceivable thanks to considerable evolution in recent years....
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SubjectTerms 4D printing
Additive manufacturing (AM)
Biocompatibility
Biodegradability
Biodegradation
Biomedical materials
Condensed Matter
Fabrication
Fused deposition modeling
Fused filament fabrication (FFF)
Materials Science
Parameterization
Physics
Polymers
Scaffolds
Shape memory
Shape-memory polymers (SMPs)
Thickness
Tissue engineering
Title Fused filament fabrication of scaffolds for tissue engineering; how realistic is shape-memory? A review
URI https://dx.doi.org/10.1016/j.polymer.2021.123440
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https://hal.science/hal-03183431
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