Endocrine Center, Austin Health, University of Melbourne, Melbourne, Australia.
Osteoporos Int. 2013 Aug;24(8):2153-66. doi: 10.1007/s00198-012-2228-y. Epub 2012 Dec 11.
Bone is a complex and structured material; its mechanical behavior results from an interaction between the properties of each level of its structural hierarchy. The degree of mineralization of bone (bone density measured at tissue level) and the characteristics of the mineral deposited (apatite crystals) are major determinants of bone strength. Bone remodeling activity acts as a regulator of the degree of mineralization and of the distribution of mineral at the tissue level, directly impacting bone mechanical properties. Recent findings have highlighted the need to understand the underlying process occurring at the nanostructure level that may be independent of bone remodeling itself. A more global comprehension of bone qualities will need further works designed to characterize what are the consequences on whole bone strength of changes at nano- or microstructure levels relative to each other.
骨骼是一种复杂而有结构的材料;其力学性能源于其结构层次中各个层次的特性相互作用的结果。骨骼的矿化程度(组织水平上测量的骨密度)和沉积矿物质的特性(磷灰石晶体)是决定骨强度的主要因素。骨骼重塑活动作为矿化程度和组织水平上矿物质分布的调节剂,直接影响骨骼的力学性能。最近的研究结果强调了需要了解在纳米结构水平上发生的潜在过程,该过程可能与骨骼重塑本身无关。为了更全面地了解骨骼特性,需要进一步研究,以确定纳米或微观结构水平上的变化相对于彼此对整个骨骼强度的影响。
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