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引用次数: 1
摘要
新颖的适应性设计防止了意外的刺激电流对医疗安全的影响,因为安全是人类使用的首要问题。介绍了一种用于植入式装置的微刺激器的刺激驱动电路原型。对于癫痫控制,驱动器的目标是输出30µA的刺激电流,因为组织阻抗在20 ~ 200 kΩ范围内变化。驱动器由输出级、适配器和控制块组成,已集成在一个芯片中。在0.35µm 3.3 v /24 v CMOS工艺中制造,这种新设计的性能得到了证实。在800赫兹的刺激率下,驾驶员的平均功耗仅为0.24 ~ 0.56 mW。
Design of stimulus driver to suppress epileptic seizure with adaptive loading consideration
The novel design with the adaptability prevents from unexpected stimulus current for medical safety, since the safety is the prime concern for human use. The prototype of the stimulus driver circuit for micro-stimulator used in implantable device is presented in this paper. For epilepsy control, the target of the driver is to output 30-µA stimulus currents, as the tissue impedance varies within 20∼200 kΩ. The driver composed of the output stage, adaptor, and control block, has been integrated in a chip. Fabricated in a 0.35-µm 3.3-V/24-V CMOS process, the performances of this novel design have been confirmed. The averaged power consumption of the driver was only 0.24∼0.56 mW under 800-Hz stimulation rate.