Patterning technique of adhesive cells using ultrasound flexural vibration

D. Koyama, Kentaro Tani, Koji Fujiwara
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Abstract

This paper investigated a cell patterning technique using ultrasound vibration. The ultrasound cell culture dish consisted of a culture dish with a glass bottom and a glass disc with an ultrasound transducer that generated a resonance flexural vibration mode on the bottom of the dish. HeLa cells were used as adhesives cells, and the growth of cells on the dish was observed under ultrasound excitation for 24 hours. The vibration amplitude was largest at the center of the dish, and the axisymmetric resonance flexural vibration mode with three concentric nodal circles and no nodal line was generated on the bottom of the dish. Large vibrations inhibited the cell growth. The distributions of the sound pressure amplitude and the acoustic radiation force in the culture medium were calculated with finite element analysis and it was found that the cell growth depended strongly on both the acoustic field in the culture medium and the vibration distribution of the dish. The ultrasound vibrations did not affect the viability of the cells, and the cell growth could be controlled by the flexural vibration of the cultured dish.This paper investigated a cell patterning technique using ultrasound vibration. The ultrasound cell culture dish consisted of a culture dish with a glass bottom and a glass disc with an ultrasound transducer that generated a resonance flexural vibration mode on the bottom of the dish. HeLa cells were used as adhesives cells, and the growth of cells on the dish was observed under ultrasound excitation for 24 hours. The vibration amplitude was largest at the center of the dish, and the axisymmetric resonance flexural vibration mode with three concentric nodal circles and no nodal line was generated on the bottom of the dish. Large vibrations inhibited the cell growth. The distributions of the sound pressure amplitude and the acoustic radiation force in the culture medium were calculated with finite element analysis and it was found that the cell growth depended strongly on both the acoustic field in the culture medium and the vibration distribution of the dish. The ultrasound vibrations did not affect the v...
超声弯曲振动黏附细胞的图像化技术
本文研究了一种基于超声振动的细胞图案化技术。超声细胞培养皿由玻璃底培养皿和玻璃盘组成,玻璃盘上装有超声换能器,该换能器在培养皿底部产生共振弯曲振动模式。以HeLa细胞为黏附细胞,超声激励24h,观察细胞在培养皿上的生长情况。在碟形中心处振动幅值最大,在碟形底部产生三个同心圆、无节线的轴对称共振弯曲振动模态。大的振动抑制了细胞的生长。用有限元法计算了培养液中声压幅值和声辐射力的分布,发现细胞的生长与培养液中的声场和培养皿的振动分布都有很大的关系。超声振动不影响细胞的活力,细胞的生长可以通过培养皿的弯曲振动来控制。本文研究了一种基于超声振动的细胞图案化技术。超声细胞培养皿由玻璃底培养皿和玻璃盘组成,玻璃盘上装有超声换能器,该换能器在培养皿底部产生共振弯曲振动模式。以HeLa细胞为黏附细胞,超声激励24h,观察细胞在培养皿上的生长情况。在碟形中心处振动幅值最大,在碟形底部产生三个同心圆、无节线的轴对称共振弯曲振动模态。大的振动抑制了细胞的生长。用有限元法计算了培养液中声压幅值和声辐射力的分布,发现细胞的生长与培养液中的声场和培养皿的振动分布都有很大的关系。超声波振动不影响v…
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