Dual-Arm Nanorobotic System for Measuring Embryo with Minimum Disturbances

Yuxuan Xue, Yichen Wang, Xinyu Liu, Yin-Lau Lee, Jiawei Zhang, W. Yeung, Ning Xi
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Abstract

The understanding of the embryo behavior, especially the early-stage development was hampered by the lack of proper diagnostic tools for clinical assessment before embryo implantation. Mechanical properties are label free biomarkers for the cells/embryo differentiation, as the atomic force microscopy (AFM) based experiment could simultaneously derive the surface morphological and mechanical information without damage to the cells. However, for the measurement of floating embryo, the lack of the constraint from the substrate will induce fluctuation and movement in lateral direction, causing failure in accurate measurement. Traditionally, researchers rely on the physical or chemical bounds to constrict the floating objects which may alter the objects’ properties and decrease the measurable region. Thus, it’s significant to implement the micromanipulator-based robot with AFM system to accomplish multiple tasks in the manipulation and measurement of single embryo. The system established in the current study could precisely manipulate and sense the living floating embryo without any extra treatment.
最小干扰双臂纳米机器人胚胎测量系统
由于在胚胎植入前缺乏适当的临床评估诊断工具,对胚胎行为,特别是早期发育的理解受到阻碍。力学性能是细胞/胚胎分化的无标记生物标志物,因为基于原子力显微镜(AFM)的实验可以在不损伤细胞的情况下同时获得表面形态和力学信息。然而,对于浮动胚胎的测量,缺乏来自基材的约束,会引起波动和横向运动,导致无法精确测量。传统上,研究人员依靠物理或化学边界来压缩漂浮物,这可能会改变物体的性质,减少可测量的区域。因此,在单个胚胎的操作和测量中,利用AFM系统实现基于微机械臂的机器人来完成多项任务具有重要意义。本研究建立的系统可以精确地操纵和感知活体漂浮胚胎,而无需任何额外的处理。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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