It is intended to provide a scaffold whereby a bone and a metallic material can three dimensionally form together a stereoscopic binding layer. Thus, a geometric space sufficient for cell actions is provided. As a result, the time required for the formation of a stereoscopic bond can be shortened and, moreover, a bond can be self-repaired owning to cell actions even in the case where a pair of the bond is injured by a wound, etc. As a material for designing a scaffold, titanium fibers of less than 100 µm in size and having an aspect ratio of 20 or more are selected. Then these fibers are entangled together to form a layer which is integrally fixed by vacuum sintering to a periphery surface of the various implant bodies, and coated with apatite. The fact that the layer contains spaces of an excellent ability to induce a biological hard tissue and fix the same is proved by the material, in which the layer is fixed to the periphery of an implant.
其目的是提供一种支架,使骨骼和
金属材料能够在三维空间内共同形成一个立体结合层。这样,就为细胞的活动提供了足够的几何空间。因此,形成立体结合层所需的时间可以缩短,此外,即使结合层的一对因伤口等原因而受伤,结合层也可以在细胞作用下自我修复。作为设计支架的材料,
钛纤维的尺寸小于 100 微米,长宽比大于等于 20。然后将这些纤维缠绕在一起形成一层,通过真空烧结整体固定在各种植入体的外围表面,并涂上
磷灰石。该层包含的空间具有诱导
生物硬组织和固定
生物硬组织的出色能力,这一点已通过将该层固定在植入体外围的材料得到证实。