Directional movement method for a droplet carrier type micro object
A technology for directional and directional movement of objects, applied in radiation/particle processing, nuclear engineering, etc., can solve problems such as high cost and complicated operation, and achieve good economic performance
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Embodiment 1
[0027] Such as figure 1 Shown is an embodiment of a method for directional movement of a droplet 2 carrier micro object 3 in the present invention. Include the following specific steps:
[0028] S1. Place the tiny object 3 on the flat plate 4;
[0029] S2. Adding droplet 2 on the tiny object 3, the droplet 2 wraps the tiny object 3, and the droplet 2 does not infiltrate the plate 4;
[0030] S3. Guiding the liquid droplet 2 wrapping the tiny object 3 to move to the target position on the flat plate 4;
[0031] S4. The liquid droplet 2 is evaporated, and the tiny object 3 is still at the target position.
[0032] In this embodiment, the droplet 2 includes the tiny object 3, driven by the external force, the droplet 2 drives the tiny object 3 to move directionally on the plate 4 until the droplet 2 drives the tiny object 3 to move to the target on the plate 4 Location.
Embodiment 2
[0034] This embodiment is similar to Embodiment 1, the difference is that the plate 4 is made of insulating material, the droplets 2 are charged, and the charged droplets 2 do not infiltrate the plate 4 . An electrostatic field is applied in a direction perpendicular to the plate 4, and the charged droplet 2 moves directionally under the guidance of the electrostatic field until it moves to the target position on the plate 4; when the electrostatic field is turned off, the laser 1 illuminates the top of the droplet 2 vertically. In the middle position, the liquid droplet 2 is continuously heated until it is completely evaporated, leaving only the tiny object 3 at the target position on the plate 4 .
Embodiment 3
[0036] This embodiment is similar to Embodiment 1, the difference is that the flat plate 4 is placed on a platform that can control the inclination angle and direction, the liquid drop 2 wraps the tiny object 3 on the flat plate 4, and the staff controls the inclination angle and direction of the platform. Direction, drive the flat plate 4 on the platform to follow and tilt together, the droplet 2 will not infiltrate the flat plate 4, the droplet 2 will move on the flat plate 4 with the tiny object 3, after reaching the target position, adjust the platform to a horizontal state, the laser 1 vertically irradiates the middle position of the top of the droplet 2, and continues to heat the droplet 2 until it evaporates completely, leaving only the tiny object 3 remaining on the target position on the plate 4.
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