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Structural and mechanical characterization of custom design cranial implant created using additive manufacturing
Moiduddin, Khaja; Darwish, Saied; Al-Ahmari, Abdulrahman; ElWatidy, Sherif; Mohammad, Ashfaq; Ameen, Wadea.
Affiliation
  • Moiduddin, Khaja; King Saud University. Advanced Manufacturing Institute. a Princess Fatima Alnijiris's Research Chair for Advanced Manufacturing Technology (FARCAMT Chair). SA
  • Darwish, Saied; King Saud University. Advanced Manufacturing Institute. a Princess Fatima Alnijiris's Research Chair for Advanced Manufacturing Technology (FARCAMT Chair). SA
  • Al-Ahmari, Abdulrahman; King Saud University. Advanced Manufacturing Institute. a Princess Fatima Alnijiris's Research Chair for Advanced Manufacturing Technology (FARCAMT Chair). SA
  • ElWatidy, Sherif; King Saud University. Faculty of Medicine. Neurosurgery. SA
  • Mohammad, Ashfaq; King Saud University. Advanced Manufacturing Institute. a Princess Fatima Alnijiris's Research Chair for Advanced Manufacturing Technology (FARCAMT Chair). SA
  • Ameen, Wadea; King Saud University. Advanced Manufacturing Institute. a Princess Fatima Alnijiris's Research Chair for Advanced Manufacturing Technology (FARCAMT Chair). SA
Electron. j. biotechnol ; 29: 22-31, sept. 2017. ilus, tab, graf
Article in En | LILACS | ID: biblio-1017065
Responsible library: CL1.1
ABSTRACT

Background:

Reconstruction of customized cranial implants with a mesh structure using computer-assisted design and additive manufacturing improves the implant design, surgical planning, defect evaluation, implant-tissue interaction and surgeon's accuracy. The objective of this study is to design, develop and fabricate cranial implant with mechanical properties closer to that of bone and drastically decreases the implant failure and to improve the esthetic outcome in cranial surgery with precision fitting for a better quality of life. A customized cranial mesh implant is designed digitally, based on the Digital Imaging and Communication in Medicine files and fabricated using state of the Art-Electron Beam Melting an Additive Manufacturing technology. The EBM produced titanium implant was evaluated based on their mechanical strength and structural characterization.

Results:

The result shows, the produced mesh implants have a high permeability of bone ingrowth with its reduced weight and modulus of elasticity closer to that the natural bone thus reducing the stress shielding effect. Scanning electron microscope and micro-computed tomography (CT) scanning confirms, that the produced cranial implant has a highly regular pattern of the porous structure with interconnected channels without any internal defect and voids.

Conclusions:

The study reveals that the use of mesh implants in cranial reconstruction satisfies the need of lighter implants with an adequate mechanical strength, thus restoring better functionality and esthetic outcomes for the patients.
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Full text: 1 Index: LILACS Main subject: Prosthesis Design / Skull / Surgical Mesh / Titanium / Computer-Aided Design / Plastic Surgery Procedures / Mechanical Phenomena Limits: Humans Language: En Journal: Electron. j. biotechnol Journal subject: BIOTECNOLOGIA Year: 2017 Type: Article

Full text: 1 Index: LILACS Main subject: Prosthesis Design / Skull / Surgical Mesh / Titanium / Computer-Aided Design / Plastic Surgery Procedures / Mechanical Phenomena Limits: Humans Language: En Journal: Electron. j. biotechnol Journal subject: BIOTECNOLOGIA Year: 2017 Type: Article