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    • 3. 发明授权
    • Torque-indicating wrench
    • 扭矩指示扳手
    • US06928885B1
    • 2005-08-16
    • US10989445
    • 2004-11-16
    • Hsuan-Sen ShiaoDa-Jeng Yao
    • Hsuan-Sen ShiaoDa-Jeng Yao
    • B25B23/14B25B23/142
    • B25B23/1425
    • A torque-indicating wrench comprises a wrench body including a head to engage and turn a workpiece, and a stem having two outer longitudinal wall segments. A strainable body made of a material with an elasticity modulus smaller than that of the stem has a gage carrying major wall which is disposed on the outer longitudinal wall segment such that the strainable body is stretchable relative thereto. A restraining member is disposed to restrain the strainable body from moving away from the outer longitudinal wall segment while permitting a stretching movement of the strainable body. A strain gage unit is attached to the gage carrying major wall to detect change in resistance values corresponding to stretching deformation of the strainable body for processing by a processing circuit so as to obtain a value of torque applied to the workpiece.
    • 扭矩指示扳手包括扳手主体,其包括用于接合和转动工件的头部以及具有两个外部纵向壁段的杆。 由具有小于杆的弹性模量的材料制成的可变形体具有承载长壁的量具,其设置在外纵向壁段上,使得可变形体相对于其可拉伸。 设置约束构件以约束可变形体远离外纵向壁段移动,同时允许可变形体的伸展运动。 应变计单元连接到承载主壁的量规,以检测对应于可变形体的拉伸变形的电阻值的变化,以便通过处理电路进行处理,以获得施加到工件的扭矩值。
    • 5. 发明授权
    • Micro cooling and power supply structure
    • 微冷却电源结构
    • US06914329B1
    • 2005-07-05
    • US10633417
    • 2003-08-04
    • E-I LeeJing-Lyang JengDa-Jeng YaoI-Te Huang
    • E-I LeeJing-Lyang JengDa-Jeng YaoI-Te Huang
    • B81B3/00F25B21/00H01L23/34H02N1/00H02N10/00H02N11/00
    • F25B21/00F25B2321/003H02N1/006H02N11/006Y02B30/66
    • A micro cooling and power supply structure is proposed, which includes an emitter end chip having an emitting surface, a collector end chip having a collecting surface that corresponds to the emitting surface and is separated from the emitting surface, and a plurality of micro cantilever beam components formed on the emitting surface. Each micro cantilever beam component has a projecting part as an electron emitter. A distance between the projecting part and the collecting surface is sensed by a sensor component and maintained by an actuating component at an optimal value to produce an electron tunneling effect, so as to lessen the requirement for a planar chip surface and the low work function material. With the capacity of the micro cantilever beam components to position the tunneling distance, the frequency of electron tunneling to the collecting surface is increased, and excellent cooling and power supply efficiency are achieved.
    • 提出了一种微型冷却和电源结构,其包括具有发射表面的发射器端芯片,具有对应于发射表面并与发射表面分离的收集表面的集电极端芯片,以及多个微悬臂梁 在发射表面上形成的部件。 每个微悬臂梁组件具有作为电子发射器的突出部分。 突出部与收集面之间的距离由传感器部件感测,并由致动部件保持在最佳值,以产生电子隧道效应,以减少对平面片表面和低功函数材料的要求 。 通过微悬臂梁组件的定位隧道距离的能力,电子隧道到收集面的频率增加,实现出色的冷却和电源效率。
    • 9. 发明申请
    • FLEXIBLE MICROELECTRODE FOR DETECTING NEURAL SIGNALS AND A METHOD OF FABRICATING THE SAME
    • 用于检测神经信号的柔性微电极及其制造方法
    • US20130085359A1
    • 2013-04-04
    • US13359913
    • 2012-01-27
    • Da-Jeng YaoChang-Hsiao Chen
    • Da-Jeng YaoChang-Hsiao Chen
    • A61B5/04B32B37/14B32B37/02B82Y40/00
    • B82Y30/00A61B5/04001A61B5/0478A61B2562/125B82Y40/00
    • A flexible microelectrode for detecting neural signals and a method of fabricating the same are disclosed. The method comprises steps: growing a graphene electrode layer on a temporary substrate; growing a flexible substrate on the graphene electrode layer and patterning the flexible substrate; removing the temporary substrate but preserving the graphene electrode layer and the flexible substrate to form an electrode body; and using an insulating layer to wrap the electrode body but exposing a bio-electrode end to contact a living body and detect the signals thereof. The graphene electrode layer features high electric conductivity, high biocompatibility and low noise. The flexible substrate is bendable. Thus is improved the adherence of the skin tissue to the bio-electrode end and decreased the likelihood of skin inflammation.
    • 公开了一种用于检测神经信号的柔性微电极及其制造方法。 该方法包括以下步骤:在临时衬底上生长石墨烯电极层; 在石墨烯电极层上生长柔性基底并图案化柔性基底; 去除所述临时衬底,但保留所述石墨烯电极层和所述柔性衬底以形成电极体; 并且使用绝缘层包裹电极体,但暴露生物电极端以接触生物体并检测其信号。 石墨烯电极层具有高导电性,高生物相容性和低噪音。 柔性基板是可弯曲的。 因此,改善了皮肤组织对生物电极末端的粘附性并降低了皮肤炎症的可能性。