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Scaffold-free: A developing technique in field of tissue engineering

机译:无脚手架:组织工程领域的开发技术

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Scaffold-free tissue engineering can be considered as a rapidly developing technique in the field of tissue engineering. In the areas of regenerative medicine and wound healing, there is a demand of techniques where no scaffolds are used for the development of desired tissue. These techniques will overcome the problems of rejection and tissue failure which are common with scaffolds. Main breakthrough of scaffold free tissue engineering was after invention of 3-D printers which made it possible to print complex tissues which were not possible by conventional methods. Mathematical modeling is a prediction technique is used in tissue engineering for simulation of the model to be constructed. Coming to scaffold-free technique, mathematical modeling is necessary for the processing of the model that has to be bio-printed so as to avoid and changes in the final construct. Tissue construct is developed by use of non-destructive imaging techniques i.e. computed tomography (CT) and magnetic resonance imaging (MRI). In this review, we discussed about various mathematical models and the models which are widely used in bioprinting techniques such as Cellular Potts Model (CPM) and Cellular Particle Dynamic (CPD) model. Later, developed of 3-D tissue construct using micro CT scan images was explained. Finally, we discussed about scaffold free techniques such as 3-D bioprinting and cell sheet technology. In this manuscript, we proposed a cell sheet based bioprinting technique where mesenchymal stem cells (MSCs) on the surface of thermoresponsive polymer were subjected to mechanosensing either by introducing acoustic energies or stress created by polymeric strain energy function. Mechanosensing stimulus will trigger the intracellular signal transduction pathway leading to differentiation of the MSCs into desired cells. (C) 2019 Elsevier B.V. All rights reserved.
机译:可以将脚手架组织工程视为组织工程领域的快速发展技术。在再生医学和伤口愈合的区域中,存在对没有支架的技术的需求,用于开发所需的组织。这些技术将克服与支架常见的抑制和组织失效的问题。继脚手架自由组织工程的主要突破是3-D打印机的发明,这使得可以通过常规方法打印不可能的复杂组织。数学建模是一种预测技术用于组织工程,用于构建模型的模拟。来到脚手架的技术,数学建模对于处理必须是生物印刷的模型,以避免和最终构造的变化。通过使用非破坏性成像技术,通过使用非破坏性成像技术来开发组织构建体。计算机断层扫描(CT)和磁共振成像(MRI)。在本次综述中,我们讨论了各种数学模型和模型,这些模型和模型广泛用于生物监测技术,例如蜂窝Potts模型(CPM)和蜂窝粒子动态(CPD)模型。后来,使用微CT扫描图像开发的3-D组织构建体。最后,我们讨论了脚手架自由技术,如3-D生物印刷和细胞板技术。在该稿件中,我们提出了一种基于细胞片的生物监测技术,通过引入由聚合物应变能量功能产生的声学能量或应力来对热反应聚合物表面的间充质干细胞(MSCs)进行机械损伤。机械沉积刺激将触发细胞内信号转导途径,导致MSCs分化为所需的细胞。 (c)2019年Elsevier B.V.保留所有权利。

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