38results about How to "High-precision movement" patented technology

An image processing device comprising: a determination section that, based on a factor defining a depth representing a permissible range for acceptable state of focus and on parallax computed by a parallax computation section, determines an operation movement ratio for converting an operation amount, that instructs movement of a focusing lens, into a movement amount of the focusing lens by using a function including the operation movement ratio as a dependent variable and an independent variable determined according to the factor and the parallax; and a control section that controls a movement section to move the focusing lens by an amount equivalent to a movement amount determined based on an operation movement ratio determined by the determination section and the operation amount.

A device for nondestructive testing of pipelines is designed to move along a pipeline and has at least one measuring unit for acquiring measured data of the pipeline, wherein the device is self-propelled and has at least one functional unit rotatable about a central axis of the device for acquiring measured data and/or for driving the device. In a corresponding method for nondestructive testing of pipelines, the device is moved along the pipeline by a functional unit having drive elements and moving helically along a surface of the pipeline to be covered. The functional unit acquires measured data and the drive elements are forced by a magnetic field generated by the functional unit against the surface of the pipeline.

The invention discloses a high-voltage electric cable detection device, and belongs to the technical field of electric power detection. The high-voltage electric cable detection device comprises a fixing frame, an electric cable clamping assembly and a voltage detection assembly. The fixing frame is of a U-shaped structure, the electric cable clamping assembly comprises a driving component and twoclamping plates, the two clamping plates are of V-shaped structures, antislip layers are arranged on two opposite ends of the two clamping plates, support assemblies are arranged on two sides of thefixing frame, and the two clamping plates are arranged on the two support assemblies. The high-voltage electric cable detection device has the advantages that workers can manually clamp electric cables with different diameters by the aid of the electric cable clamping assembly and can quickly fix or detach the electric cables by the aid of an adjusting head, and accordingly the high-voltage electric cable detection device is high in practicality; the workers can quickly puncture and detect the electric cables by the aid of the voltage detection assembly, accordingly, the time and labor can besaved as compared with the traditional methods, the high-voltage electric cable detection device can bring convenience for the workers, and the detection efficiency of the workers can be improved.

An arrangement for gripping at least one teat cup (1). The arrangement includes a storing device (10) adapted to hold the teat cup (1) in a parked position and a gripping device (2) adapted to grip the parked teat cup (1) in the storing device (10). The gripping device (2) includes a contact surface (6a) which is adapted to be moved to a position in which it comes in contact with a contact surface (1d) of the teat cup (1) during a gripping operation of the teat cup (1). The arrangement includes an adjusting part which is able to adjust the position of at least one of said contact surfaces (1d, 6a) in relation to the other contact surface (1d, 6a) from an initial contact position to a grip position in which the gripping device is able to grip the teat cup in the storing device.

A traction drive system for an articulated robotic arm. The traction drive system can include an input drive disk, a spider, an array of traction balls, a traction plate, an output drive shaft, a clamping device to load the traction balls, and an absolute rotation position sensor system. The rotation of the output drive shaft can be coupled to the rotation of the input drive disk while the traction balls are frictionally engaged to the drive disk surface and traction plate surface. The rotational connection can be decoupled when the traction balls are not frictionally engaged to the drive disk surface and traction plate surface. A rotational position sensor located in proximity to the traction drive can provide absolute rotational position feedback of the output drive shaft.