50results about How to "Eliminate uneven distribution" patented technology

An image encoding device includes: an image division section for dividing one frame of image into a plurality of image fragments, grouping the plurality of image fragments into N sets (N: an integer of 2 or more), and outputting the N sets of image fragments as N partial images; an image swapping section for swapping at least one image fragment with another between the N partial images to thereby output N partial images each having shuffled image fragments; and an encoding section for encoding the N partial images output from the image swapping section.

There is provided a screw of an injection molding machine that can eliminate uneven distribution of reinforcing fibers without giving an excessive shear force to the reinforcing fibers. A screw is provided inside a heating cylinder of an injection molding machine to which a resin pellet is fed on an upstream side in a conveyance direction of resin and to which reinforcing fibers are fed on a downstream side therein, and includes: a first stage at which the resin pellet which is fed is melted; and a second stage that continues to the first stage, and at which molten resin and the reinforcing fibers are mixed with each other. A second flight provided at the second stage includes: a large-diameter flight with a relatively large outer diameter; and a small-diameter flight with a relatively small outer diameter.

An image encoding device includes: an image division section for dividing one frame of image into a plurality of image fragments, grouping the plurality of image fragments into N sets (N: an integer of 2 or more), and outputting the N sets of image fragments as N partial images; an image swapping section for swapping at least one image fragment with another between the N partial images to thereby output N partial images each having shuffled image fragments; and an encoding section for encoding the N partial images output from the image swapping section.

When a mobile terminal communicates by radio with another mobile terminal in a corresponding sector, a power calculating unit of a communication system controls the transmission power to the mobile terminal accessing a task according to a control command. A power control unit issues a control command to power calculating units to control all the transmission powers to the mobile terminals in sectors at a time. Thus the interference in a cell composed of sectors is reduced and the uneven traffic is solved when a mobile terminal communicates by radio with another mobile terminal in each sector.

Primitive cells, which are circuit patterns of the constituent elements of a semiconductor device, are arranged in the element formation area of a semiconductor device, and at least one fill cell with a diffusion layer and no wiring, is arranged in the vacant areas that are generated in the element formation area after the primitive cells have been arranged.

The invention discloses a rare earth additive for hard alloy. The rare earth additive for hard alloy is rare earth-binder phase alloy powder with a granularity smaller than 10mum, and the weight percentage of components of the raw materials are as follows: 60-99 percent of binder phase raw material and 1-40 percent of rare earth, wherein the binder phase raw material is formed by Co, Mn and M, and M is at least one out of Ni, Fe, Cr, V, Cu and Al. Two preparation methods are available for the rare earth additive. The first preparation method comprises the steps of casting the binder phase raw material and the rare earth into ingot, smashing the ingot into blocks with size smaller than 20mm, performing homogenizing annealing to the blocks under vacuum condition, or performing rapid quenching to the blocks in an electric-arc remelting rapid quenching furnace to form a rare earth-binder phase alloy thin strip and performing hydrogen absorption, and carrying out ball-milling smashing to the product treated by hydrogen absorption under the protection of argon. The second preparation method comprises the steps of casting the binder phase raw material and the rare earth into ingot, smashing the ingot into blocks with size smaller than 20mm, and performing atomization to the alloy blocks after the alloy blocks are smelted into alloy melts, so as to form atomized powder.

The application relates to a ship loading operation system, control method, device and computer equipment. The loading operation control method includes: controlling the throwing shovel of the ship loader to load the target loading point with a preset working posture; if the actual loading amount of the target loading point matches the simulated loading amount corresponding to the target loading point, then control The ship loader moves to the next loading point and takes the next loading point as the target loading point, and returns to control the throwing shovel of the ship loader to load the target loading point with the preset working posture to continue until the cargo entering the cabin The total loading of matches the simulated total loading. Among them, the total amount of simulated loading and the simulated loading of each loading point are obtained according to the simulation of the ship loading operation at the preset loading height with the throwing shovel of the ship loader at the preset working posture. It eliminates the phenomenon of uneven material distribution caused by observation, and improves the rationality of material distribution in the cabin.