Abstract: To prevent both increase in impedance and a short circuit, a connector cable is configured such that a connector and a shielded cable are connected via a relay substrate. The shielded cable includes at least an inner conductor, a dielectric covering the inner conductor, and a shield member covering the dielectric. The inner conductor is connected to a contact of the connector at a part where the shield member and the dielectric are removed to expose the inner conductor. At least directly under a part where the shield member is removed to expose the dielectric, a ground (GND) conductor layer on a front surface of the relay substrate is arranged. The GND conductor layer on the front surface of the relay substrate, which is arranged directly under the part where the shield member is removed, is covered with an insulating member.

Abstract: A numerical controller that is capable of independently controlling multiple control groups can cause a machine to simultaneously execute multiple operations. The numerical controller includes a program analysis unit that analyzes a program and distinguishes the commands for the multiple control groups from each other, and a program execution unit that executes the commands for the multiple control groups independently on a per-control-group basis.

Abstract: A numerical controller is provided with a speed feedforward gain correction unit configured to obtain an associated axis, which is subject to a varying load applied to a particular axis according to a coordinate value, and a correction coefficient of the particular axis corresponding to the current coordinate value of the associated axis, based on a correction coefficient storage unit, and correct a speed feedforward gain for speed feedforward control of the particular axis, and a motor control unit configured to control the particular axis based on the corrected speed feedforward gain.

Abstract: A numerical controller for moving a movable object by axis control includes a distance determination unit for setting at least one of a feed speed or an in-position width in accordance with a distance between an interference area where entry of the movable object is prohibited and the movable object. According to this configuration, a numerical controller capable of controlling a speed in consideration of an interference area is provided.

Abstract: A numerical controller that is capable of independently controlling multiple control groups can cause a machine to simultaneously execute multiple operations. The numerical controller includes a program analysis unit that analyzes a program and distinguishes the commands for the multiple control groups from each other, and a program execution unit that executes the commands for the multiple control groups independently on a per-control-group basis.

Abstract: A numerical controller is provided with a speed feedforward gain correction unit configured to obtain an associated axis, which is subject to a varying load applied to a particular axis according to a coordinate value, and a correction coefficient of the particular axis corresponding to the current coordinate value of the associated axis, based on a correction coefficient storage unit, and correct a speed feedforward gain for speed feedforward control of the particular axis, and a motor control unit configured to control the particular axis based on the corrected speed feedforward gain.

Abstract: In a numerical control device for performing a control axis switch, each of a plurality of control axis units includes an axis movement amount conversion unit configured to convert a movement amount of a servo motor into a movement amount corresponding to each of the control axis units of the plurality of control axis units, an axis position data storage unit, and a control object axis position data storage unit configured to store an axis position of a control object at a time when the control object is separated from a single drive unit, and an axis position stored in the axis position data storage unit is configured to be updated by using the movement amount of the servo motor, regardless of whether or not the control object is connected by a control axis switch unit to the control axis unit.

Abstract: A numerical controller controls a machine having at least one axis based on at least one program. The numerical controller includes an actual machining time measuring unit that measures an actual machining time which is an actual time taken for execution of at least one block included in the program and a display unit that generates display data indicating a relation between the block and the actual machining time of the block.

Abstract: In a numerical control device for performing a control axis switch, each of a plurality of control axis units includes an axis movement amount conversion unit configured to convert a movement amount of a servo motor into a movement amount corresponding to each of the control axis units of the plurality of control axis units, an axis position data storage unit, and a control object axis position data storage unit configured to store an axis position of a control object at a time when the control object is separated from a single drive unit, and an axis position stored in the axis position data storage unit is configured to be updated by using the movement amount of the servo motor, regardless of whether or not the control object is connected by a control axis switch unit to the control axis unit.

Abstract: A variable-length decoding device includes a data determination unit which determines whether or not each of component values decoded by a variable-length decoding unit is a specific value; a data buffer that holds only a component value which is not the specific value; a last valid data determination unit which determines component values other than the last one of the component values not the specific value in a block; a flag buffer which holds flags each having a corresponding component value among the component values from the component value at the beginning of the block to the last component value and indicating whether or not the corresponding component value is the specific value; a flag buffer control unit which sets the flags; a data buffer control unit which controls writing in the data buffer; and a selecting unit which selects either zero or a coefficient read from the data buffer.

Abstract: To implement processing for plural orthogonal transforms having different transform bases and implement a response to processing in new coding standards, using one orthogonal transform unit, with regard to orthogonal transform which is a basic process in still picture and moving picture coding.

Abstract: [Object] Disclosed is to provide a process for producing a molded article of polyethylene excellent in mechanical properties while the productivity at the time of T-die molding is improved, and a process for producing a secondary molded article by vacuum molding of the molded article with high formability. [Means to Solve the Problems] A process for producing a molded article by T-die molding of a mixture comprising a polyolefinic resin and a polyethylene wax, the polyethylene wax having a density of 880 to 980 (kg/m3) as measured by a density gradient tube method in accordance with JIS K7112 and a number average molecular weight (Mn) of 500 to 4,000 in terms of polyethylene as determined by gel permeation chromatography (GPC) and satisfying the relationship shown by the following expression (I): B?0.

Abstract: A process for producing a molded product by inflation molding, which is improved in productivity in molding and can give a molded product not impaired in properties inherent in polyethylene, wherein a molded product is produced by inflation molding using a mixture comprising polyethylene having a density of 900 to 980 (kg/m3) and a polyethylene wax having a density of 890 to 980 (kg/m3) and a number-average molecular weight (Mn), as measured by gel permeation chromatography (GPC), of 500 to 4,000 in terms of polyethylene and satisfying a relationship represented by the following formula (I): B?0.0075×K??(I) wherein B is a content (% by weight) of a component having a molecular weight, as measured by gel permeation chromatography, of not less than 20,000 in terms of polyethylene, in the polyethylene wax, and K is a melt viscosity (mPa·s) of the polyethylene wax at 140° C.

Abstract: An image encoding device which performs a high-speed orthogonal transform process, and is compatible with various format structures and block size encoding specifications. The image encoding device (1) including a first one-dimensional orthogonal transform processing unit (10), a two port memory for transposition processing (20), a second one-dimensional orthogonal transform processing unit (30), a first address generation unit (40), a second address generation unit (50), a coefficient table holding unit (60), a parameter set storage unit (70) and a control unit (80). The control unit controls said first (10) and said second orthogonal transform processing unit (30) to perform the one-dimensional transform processing in parallel for each block of the designated size, and to control said first (40) and said second address generation units (50) to supply an address which corresponds to the designated size in parallel with the two port memory for transposition processing (20).

Abstract: An image encoding device includes a prediction processing unit which performs prediction processing on m components among N components which constitute a quantized block; a first Coded Block Pattern (CBP) judging unit which judges whether or not (N?m) components include a non-zero component in a first operation mode, and whether or not (N?n) components include a non-zero component in a second operation mode; a second CBP judging unit which judges whether or not the m components on which the prediction processing has been performed include a non-zero component in the first operation mode, and whether or not n components include a non-zero component in the second operation mode; and a CBP generating unit which generates a CBP code indicating whether or not all the components of the block are 0 components based on the judgments made by the first and second judging units.