Facile Amidogen Bio‐Activation Method Can Boost the Soft Tissue Integration on 3D Printed Poly–Ether–Ether–Ketone Interface

Poly‐ether‐ether‐ketone (PEEK) implants with good mechanical properties and chemical inertia, meet the urgent needs of bone substitute. However, its inert interface leads to poor soft tissue integration, which prolongs healing time of surgical incision with many complications. Herein, (3‐aminopropyl...

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Veröffentlicht in:Advanced materials interfaces 2021-10, Vol.8 (19), p.n/a
Hauptverfasser: Liu, Xi, Huang, Lijun, Zhang, Hao, Liu, Yujian, Wu, Chunyan, Luo, Qixing, Yin, Feiyang, Yan, Xiaolong, Zhao, Jinbo, Su, Yanwen, He, Jiankang, Li, Weimiao, Li, Dichen, Shi, Changquan, Yang, Pinyi, Zhao, Zhenhuan, Du, Tao, Wu, Weiwei, Li, Xiaofei, Wang, Lei
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container_issue 19
container_start_page
container_title Advanced materials interfaces
container_volume 8
creator Liu, Xi
Huang, Lijun
Zhang, Hao
Liu, Yujian
Wu, Chunyan
Luo, Qixing
Yin, Feiyang
Yan, Xiaolong
Zhao, Jinbo
Su, Yanwen
He, Jiankang
Li, Weimiao
Li, Dichen
Shi, Changquan
Yang, Pinyi
Zhao, Zhenhuan
Du, Tao
Wu, Weiwei
Li, Xiaofei
Wang, Lei
description Poly‐ether‐ether‐ketone (PEEK) implants with good mechanical properties and chemical inertia, meet the urgent needs of bone substitute. However, its inert interface leads to poor soft tissue integration, which prolongs healing time of surgical incision with many complications. Herein, (3‐aminopropyl) triethoxysilane is connected to 3D printed (3DP) PEEK interface by chemical modification. The homogeneous amino groups on amidogen interface enhance PEEK's hydrophilicity and proteinophilia significantly. Fibroblasts cultured on the amidogen PEEK interface show much stronger potential of cell adhesion and migration. Furthermore, soft tissue ingrowth into 3DP PEEK scaffold occurs more and faster in the amidogen interface in vivo. The observation of the microstructure shows tighter implant–tissue bonding interfaces on the amidogen PEEK. To mimic real surgery, 3DP PEEK implants of the same proportions in clinical practice are used to reconstruct the chest wall defects of rabbits. A significant reduction in healing time and incision complications are observed in the amidogen PEEK groups. In addition, 19 related proteins are found in the fibroblasts cultured on the amidogen PEEK interface, which can be used to trace the biological mechanisms. In all, the facile amidogen bio‐activation method can significantly boost the soft tissue integration on 3DP PEEK interface with less surgical complications. A facile amidogen activation method is developed to solve the interface fusion issue between hard artificial bone and soft tissue. The materials characterizations, cell/tissue experiments, and simulated clinical trial (rabbit) are realized. Interface fusion is improved dramatically and suppressed side effects are achieved, while more options are provided for chest wall reconstruction.
doi_str_mv 10.1002/admi.202100547
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However, its inert interface leads to poor soft tissue integration, which prolongs healing time of surgical incision with many complications. Herein, (3‐aminopropyl) triethoxysilane is connected to 3D printed (3DP) PEEK interface by chemical modification. The homogeneous amino groups on amidogen interface enhance PEEK's hydrophilicity and proteinophilia significantly. Fibroblasts cultured on the amidogen PEEK interface show much stronger potential of cell adhesion and migration. Furthermore, soft tissue ingrowth into 3DP PEEK scaffold occurs more and faster in the amidogen interface in vivo. The observation of the microstructure shows tighter implant–tissue bonding interfaces on the amidogen PEEK. To mimic real surgery, 3DP PEEK implants of the same proportions in clinical practice are used to reconstruct the chest wall defects of rabbits. A significant reduction in healing time and incision complications are observed in the amidogen PEEK groups. In addition, 19 related proteins are found in the fibroblasts cultured on the amidogen PEEK interface, which can be used to trace the biological mechanisms. In all, the facile amidogen bio‐activation method can significantly boost the soft tissue integration on 3DP PEEK interface with less surgical complications. A facile amidogen activation method is developed to solve the interface fusion issue between hard artificial bone and soft tissue. The materials characterizations, cell/tissue experiments, and simulated clinical trial (rabbit) are realized. 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In addition, 19 related proteins are found in the fibroblasts cultured on the amidogen PEEK interface, which can be used to trace the biological mechanisms. In all, the facile amidogen bio‐activation method can significantly boost the soft tissue integration on 3DP PEEK interface with less surgical complications. A facile amidogen activation method is developed to solve the interface fusion issue between hard artificial bone and soft tissue. The materials characterizations, cell/tissue experiments, and simulated clinical trial (rabbit) are realized. Interface fusion is improved dramatically and suppressed side effects are achieved, while more options are provided for chest wall reconstruction.</abstract><cop>Weinheim</cop><pub>John Wiley &amp; Sons, Inc</pub><doi>10.1002/admi.202100547</doi><tpages>11</tpages><orcidid>https://orcid.org/0000-0001-5354-9548</orcidid></addata></record>
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source Wiley Online Library Journals Frontfile Complete
subjects 3D printing
artificial bone
Biomedical materials
Bonding strength
Cell adhesion
Fibroblasts
Healing
Interfaces
Mechanical properties
Polyether ether ketones
poly–ether–ether–ketone
Rabbits
Soft tissues
Substitute bone
surface modification
Three dimensional printing
tissue interface fusion
Transplants & implants
title Facile Amidogen Bio‐Activation Method Can Boost the Soft Tissue Integration on 3D Printed Poly–Ether–Ether–Ketone Interface
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