生物矿化
纳米技术
利用
成核
仿生材料
材料科学
计算机科学
仿生学
地质学
化学
古生物学
计算机安全
有机化学
作者
Arthur H. Heuer,David J. Fink,Vincent J. Laraia,José Luis Arias,Paul Calvert,K. Kendall,Gary L. Messing,J. Blackwell,Peter C. Rieke,David H. Thompson,Alfred P. Wheeler,Arthur Veis,Arnold I. Caplan
出处
期刊:Science
[American Association for the Advancement of Science]
日期:1992-02-28
卷期号:255 (5048): 1098-1105
被引量:543
标识
DOI:10.1126/science.1546311
摘要
Many organisms construct structural ceramic (biomineral) composites from seemingly mundane materials; cell-mediated processes control both the nucleation and growth of mineral and the development of composite microarchitecture. Living systems fabricate biocomposites by: (i) confining biomineralization within specific subunit compartments; (ii) producing a specific mineral with defined crystal size and orientation; and (iii) packaging many incremental units together in a moving front process to form fully densified, macroscopic structures. By adapting biological principles, materials scientists are attempting to produce novel materials. To date, neither the elegance of the biomineral assembly mechanisms nor the intricate composite microarchitectures have been duplicated by nonbiological processing. However, substantial progress has been made in the understanding of how biomineralization occurs, and the first steps are now being taken to exploit the basic principles involved.
科研通智能强力驱动
Strongly Powered by AbleSci AI