Fabrication of PEDOT:PSS based Soft Sensor for Feedback Control of Modular Bio-actuator

Eunhye Kim, Masaru Takeuchi, Takuto Nomura, Y. Hasegawa, Qiang Huang, Toshio Fukuda
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Abstract

In this paper, we fabricated a soft sensor based on PEDOT:PSS for thin film structure. The developed soft sensor can measure the contraction force at real time to be embedded in a modular bio-actuator [1]. The modular actuator generated contraction forces at 0.3 mN when applying electric pulse stimulation. To measure millinewton contraction forces and make a built in sensor, we fabricated a soft sensor using PEDOT:PSS-PDMS film. To verify that the sensor can measure the force of the actuator and can be integrated to the actuator, we analyzed characteristic of the sensor. First, we measure Young's modulus of the sensor and compare them with the bio-actuator. From the previous research [2], the Young's modulus of the bio-actuator and sensor were 45.8 kPa and 165 kPa, respectively. In addition, we simulated the sensors to estimate the change of the displacement according to the applied force. Next, we have experiments by stretching sensors using stepping motor to measure the resistance change of the sensor. From the simulation data, the displacement change is 23 µm when applying 0.3 mN of forces and then we detect the displacement change smaller than is 20 µm from the experiments. Finally, we analyzed the movement of the bio-actuator when applying stimulation using high speed camera and time response of the developed sensor. The actuator was contracted to the maximum after 150 ms from the electrical stimulation and the sensor detected the repeated motion at 10 Hz without time delay. As a result, the proposed sensor can measure the force of bioactuator at real time.
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基于PEDOT:PSS的模块化生物执行器反馈控制软传感器的研制
本文制作了一种基于PEDOT:PSS的薄膜结构软传感器。所开发的软传感器可以实时测量收缩力,并嵌入模块化生物执行器中[1]。当施加电脉冲刺激时,模块化执行器产生0.3 mN的收缩力。为了测量毫牛顿的收缩力并制作内置传感器,我们使用PEDOT:PSS-PDMS薄膜制作了软传感器。为了验证该传感器能够测量执行器的力,并且能够集成到执行器中,我们分析了传感器的特性。首先,我们测量了传感器的杨氏模量,并将其与生物执行器进行了比较。根据前人的研究[2],生物致动器和传感器的杨氏模量分别为45.8 kPa和165 kPa。此外,我们还对传感器进行了仿真,以根据施加的力估计位移的变化。接下来,我们用步进电机拉伸传感器来测量传感器的电阻变化。从模拟数据可以看出,施加0.3 mN的力时,位移变化为23 μ m,而从实验中我们检测到位移变化小于20 μ m。最后,我们利用高速摄像机和所开发传感器的时间响应分析了生物执行器在施加刺激时的运动。在电刺激150 ms后,执行器收缩到最大,传感器以10 Hz的频率检测到重复运动,没有时间延迟。因此,该传感器可以实时测量生物执行器的力。
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