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Hollow mesoporous zirconia delivery system for biomineralization precursors

  • Xue qing Huang
    ,
  • Hong ye Yang
    ,
  • Tao Luo
    ,
  • Cui Huang
    ,
  • Franklin Chi Meng Tay(corresponding author)
    ,
  • Li na Niu
*Corresponding author for this work
  • Sun Yat-Sen University
    ,
  • Ministry of Education, China
    ,
  • Guangzhou Medical College
    ,
  • ,
  • Air Force Medical University
Scholary Output:
Contribution to journal
Article
Peer-review

Abstract

Strategies based on the combination of nanocarrier delivery systems and scaffolds provide bone tissue engineering scaffolds with multifunctional capability. Zirconia, a biocompatible ceramic commonly used in orthopedic and dental implants, was used to synthesize hollow mesoporous nanocapsules for loading, storage and sustained release of a novel polyamine-stabilized liquid precursor phase of amorphous calcium phosphate (PAH-ACP) for collagen biomineralization and bone marrow stromal cells osteoinduction. Hollow mesoporous zirconia (hmZrO2) nanocapsules loaded with biomimetic precursors exhibited pH-sensitive release capability and good biocompatibility. The PAH-ACP released from loaded hmZrO2 still retained the ability to infiltrate and mineralize collagen fibrils as well as exhibited osteoinductivity. A collagen scaffold blended with PAH-ACP@hmZrO2 supplement and stem cells may be a promising tool for bone tissue engineering. Statement of Significance: The advent of nanotechnology has catalyzed the development of bone tissue engineering strategies based on the combination of nanocarrier delivery systems and scaffolds, which provide distinct advantages, including the possibilities of sustained release and protection of the bioactive agents, site-specific pharmacological effects and reduction of side effects. Herein, hollow mesoporous zirconia (hmZrO2) nanocapsules with pH-sensitive capacity were synthesized for loading, storage and sustained release of a novel polyamine-stabilized liquid precursor phase of ACP (PAH-ACP). The loaded nanocapsules show good biocompatibility and demonstrate bioactivities for collagen biomineralization and bone marrow stromal cells osteoinduction. Our results may offer a promising tool for designing bone tissue engineering “cocktail therapy” involving seeding scaffolds with biomineralization precursors loaded hmZrO2 supplement and stem cells.

Publication Information

Output type

Scholary Output:
Contribution to journal
Article
Peer-review

Original language

English (US)

Pages from-to (Number of pages)

Pages 366-377 (12 pages)

Journal (Volume, Issue Number)

Acta biomaterialia (Volume 67)

Publication milestones

  • Accepted/In press - 01/01/2017
  • Published - 02/2018

Publication status

Published - 02/2018

ISSN

1742-7061

Publication IDs

  • Scopus: 85037596885
  • PubMed: 29208555

Publication metrics

Metrics

Scopus
citations
SciVal
FWCI
0.57
SciVal
Author count
6
SciVal
citations
6
SciVal
Paper percentile
70
Fractional count
1
Fractional count
0.17
Fractional count
5
Fractional count
0.83
Fractional count
1
Fractional count
1

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Citation count
27
Captures
45

Funding Details

This work was supported by grants 81722015 , 81500883 and 81400555 from National Nature Science Foundation of China , grant 2016YFC1101400 from the National Key Research and Development Program of China , grant 2015A030401035 from Guangdong Public Research and Competence Special Fund Expenditure , grant 20130171120121 from Ph.D. Programs Foundation of Ministry of Education of China and grant 2015QNRC001 from Young Elite Scientist Sponsorship Program by CAST .
FundersFunding numbers
Guangdong Public Research and Competence Special Fund Expenditure
20130171120121
NSFC
2016YFC1101400
MOE
2015QNRC001
CAST
-
NKRDPC
2015A030401035