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Nano particle agglomeration type nano porous electrochemical driver and preparation method and testing method thereof

A nano-particle and nano-porous technology, applied in the direction of generators/motors, instruments, measuring electronics, etc., can solve the problem that the response rate and deformation ability cannot be improved at the same time, and achieve simultaneous improvement of response rate and deformation ability, product stability and The effect of high durability and low cost

Active Publication Date: 2020-03-06
XI AN JIAOTONG UNIV
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  • Summary
  • Abstract
  • Description
  • Claims
  • Application Information

AI Technical Summary

Problems solved by technology

[0005] The purpose of the present invention is to provide a high-performance nanoparticle agglomerated nanoporous electrochemical actuator and its preparation and testing methods to solve the technical problem that the response rate and deformation ability cannot be simultaneously improved as described in the background art

Method used

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  • Nano particle agglomeration type nano porous electrochemical driver and preparation method and testing method thereof
  • Nano particle agglomeration type nano porous electrochemical driver and preparation method and testing method thereof
  • Nano particle agglomeration type nano porous electrochemical driver and preparation method and testing method thereof

Examples

Experimental program
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Effect test

Embodiment 1

[0023] The aluminum foil with a thickness of 100 μm was cold-rolled 5 times with a calender, and finally pressed to a thickness of 4.5 μm; then it was ultrasonically cleaned and vacuum-dried for 24 hours; then it was cut into 12.5×3mm 2 The slender strips are used as substrates for deposition, such as figure 1 As shown, the deposition substrate is fixed upside down on the heating platform, and the molybdenum disulfide target is selected as the target target, and the target target is fixed under the heating platform, and the distance between the target and base is 50 mm; in order to make the film formation more uniform, the heating platform is 2rpm drives the deposition substrate to rotate; in order to ensure the service life of the target, the target rotates in reverse at a speed of 30rpm. Then adjust and stabilize the garnet laser energy to 70mJ / mm 2 ; The laser frequency is set to 1Hz, and it is scanned and bombarded along the radial direction of the target at a speed of 5m...

Embodiment 2

[0026] The tungsten foil with a thickness of 100 μm was cold-rolled 4 times with a calender, and finally pressed to a thickness of 6 μm; then it was ultrasonically cleaned and vacuum-dried for 24 hours; then it was cut into 12.5×3mm 2 The slender strips are used as substrates for deposition, such as figure 1 As shown, the deposition substrate is fixed upside down on the heating platform, and the molybdenum disulfide target is selected as the target target, and the target target is fixed under the heating platform, and the distance between the target and base is 50 mm; in order to make the film formation more uniform, the heating platform is 2rpm drives the deposition substrate to rotate; in order to ensure the service life of the target, the target rotates in reverse at a speed of 30rpm. Then adjust and stabilize the garnet laser energy to 70mJ / mm 2 ; The laser frequency is set to 5Hz, and it is scanned and bombarded at a speed of 5mm / s along the radial direction of the targe...

Embodiment 3

[0029] The aluminum foil with a thickness of 100 μm was cold-rolled 4 times with a calender, and finally pressed to 6 μm; then it was ultrasonically cleaned and vacuum-dried for 24 hours; then it was cut into 12.5×3mm 2 The slender strips are used as substrates for deposition, such as figure 1 As shown, the deposition substrate is fixed upside down on the heating platform, and the molybdenum disulfide target is selected as the target target, and the target target is fixed under the heating platform, and the distance between the target and base is 50 mm; in order to make the film formation more uniform, the heating platform is 2rpm drives the deposition substrate to rotate; in order to ensure the service life of the target, the target rotates in reverse at a speed of 30rpm. Then adjust and stabilize the garnet laser energy to 70mJ / mm 2 ; The laser frequency is set to 10Hz, and it is scanned and bombarded along the radial direction of the target at a speed of 5mm / s; the air pre...

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Abstract

The invention discloses a nano particle agglomeration type nano porous electrochemical driver and a preparation method and testing method thereof. The driver comprises a deposition substrate of a flexible conductor material and a driving film deposited on the deposition substrate. According to the preparation method, high-energy laser beam bombardment is utilized to realize the transformation of atarget material from a solid state to an plasma state to a solid state, and thus the nano particle agglomeration type nano porous driving film can be formed on different substrates. The nano porous electrochemical driver with controllable particle size can be obtained by adjusting and controlling preparation conditions such as target base spacing, substrate rotating speed and deposition temperature. The defect that a traditional electrochemical driver cannot achieve both the response rate and the deformation capability at the same time is overcome; and by shortening the ion embedding path andimproving the ion adsorption capacity, the driving speed and the deformation amplitude value are synchronously improved. The driver has the advantages of high response speed, high driving amplitude,high object carrying driving capability, simple process and low cost, and the application of the electrochemical driver in the fields of small medical instruments, micro-nano electromechanical systemsand the like can be promoted.

Description

technical field [0001] The invention relates to the technical field of electrochemical drive, in particular to a high-performance nanoparticle agglomeration type nanoporous electrochemical drive and its preparation and testing methods. Background technique [0002] Electrochemical drives generate mechanical energy through chemical reactions at low voltages. Compared with other types of drivers, electrochemical drivers have lower driving voltage and higher energy output, so they have broad application prospects in artificial muscles, intelligent robots, and micro-nano electromechanical systems. For electrochemical actuators, response rate and deformability are two crucial but opposing parameters. More specifically, low-modulus gel or conductive polymer-based electrochemical actuators have excellent deformation capabilities, but their response rates are extremely slow; in comparison, carbon nanomaterial electrochemical actuators have a faster response rate. , but its deforma...

Claims

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Application Information

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Patent Type & Authority Applications(China)
IPC IPC(8): F03G7/00G01R31/00H02N11/00
CPCF03G7/005G01R31/00H02N11/006
Inventor 冀梁申胜平邓谦
Owner XI AN JIAOTONG UNIV
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