mhurhangee/ep-ind-claims huggingface dataset:
A camera device comprising: a photographing unit; a first bus; a first memory connected to the first bus to store image data written to the first memory by the photographing unit; a second bus; a memory access management unit connected to the first bus and the second bus to read the image data from the first memory via the first bus and to output the read image data to the second bus; and a plurality of processing units connected to the second bus to process the image data output to the second bus, characterised in that the plurality of processing units have the same function and are adapted to perform parallel processing of different regions of the image data output to the second bus, each region having a portion overlapping another region, and the memory access management unit is adapted to access the image memory instead of the processing units and to distribute the accessed data to each processing unit, thereby preventing the traffic of the first bus from being increased by overlapped access to the image memory for the overlapped regions commonly used by the plurality of processing units. a photographing unit; a first bus; a first memory connected to the first bus to store image data written to the first memory by the photographing unit; a second bus; a memory access management unit connected to the first bus and the second bus to read the image data from the first memory via the first bus and to output the read image data to the second bus; and a plurality of processing units connected to the second bus to process the image data output to the second bus, characterised in that the plurality of processing units have the same function and are adapted to perform parallel processing of different regions of the image data output to the second bus, each region having a portion overlapping another region, and the memory access management unit is adapted to access the image memory instead of the processing units and to distribute the accessed data to each processing unit, thereby preventing the traffic of the first bus from being increased by overlapped access to the image memory for the overlapped regions commonly used by the plurality of processing units.
Method for operating a motor vehicle that can be driven at least temporarily electrically on a road wherein, following a request for an automatic mode, a control device implements a fully autonomous driving mode of the motor vehicle, wherein a lateral control of the motor vehicle is implemented such that a previously extended charging arm of the motor vehicle comes into electrical contact with a charging line arranged in or on the road, wherein electrical energy provided by means of the charging line is charged to an energy store of the motor vehicle via the charging arm and/or a drive apparatus of the motor vehicle for implementing the driving mode is operated, and wherein a longitudinal control of the motor vehicle takes place such that a specified longitudinal speed is maintained until a distance of the motor vehicle to a preceding vehicle reaches a specified minimum distance, characterised in that, following a request for automatic mode, the longitudinal speed is set to a first default speed and, after contact with the charging line by the charging arm, is set to a second default speed, wherein the second default speed is greater than the first default speed and is set to a first value when no preceding vehicle is detected, and is set to a greater second value when a preceding vehicle is detected, wherein the second value is greater than the current speed of the preceding vehicle.
Drain (100; 120) for mounting on a plate, such as a foam plate, which drain comprises: - a collecting tray with a bottom, an upright wall along the periphery of the bottom and an outlet opening; - a fastening ring for coupling to the collecting tray, which fastening ring has a peripheral wall (111; 121) directed downward on the inner edge of the ring, which downward directed peripheral wall (111; 121) extends inside the upright wall of the collecting tray; - a sealing ring arranged between the downward directed peripheral wall (111; 121) and the upright wall; and - coupling means for coupling the fastening ring to the collecting tray; characterized in that the coupling means comprise at least one resilient finger arranged parallel to the upright wall and on the inner side of the upright wall, wherein the at least one resilient finger has a first edge arranged on the free end thereof; and wherein the coupling means comprise a second edge (112; 122) oriented in radial direction of the fastening ring and arranged on the downward directed peripheral wall (111; 121), which second edge (112; 122) engages on the first edge of the at least one resilient finger during axial displacement of the upright wall relative to the downward directed wall (111; 121). - a collecting tray with a bottom, an upright wall along the periphery of the bottom and an outlet opening; - a fastening ring for coupling to the collecting tray, which fastening ring has a peripheral wall (111; 121) directed downward on the inner edge of the ring, which downward directed peripheral wall (111; 121) extends inside the upright wall of the collecting tray; - a sealing ring arranged between the downward directed peripheral wall (111; 121) and the upright wall; and - coupling means for coupling the fastening ring to the collecting tray;
Rotary feedthrough having a stator and a rotor which is rotatable about an axis of rotation and which is mounted in or on the stator by means of at least one bearing so as to rotate about the axis of rotation during operation of the rotary feedthrough; wherein 1.1 at least one fluid connection (5.1, 5.2) is provided at least on the stator and at least one fluid channel extends through the stator and the rotor in a sealed manner with respect to an environment; characterized in that 1.2 a fluid-conducting overload coupling is provided in the rotor, which coupling comprises two coupling halves (7.1) and (7.2), which are coupled to one another in a torsionally rigid manner when a torque below a predetermined limit torque is applied and are decoupled from one another when a torque equal to or greater than the predetermined limit torque is applied, wherein the overload coupling, in the coupled and decoupled state of the coupling halves (7.1, 7.2), seals the fluid channel with respect to the environment, forms a section and in the decoupled state the two coupling halves (7.1, 7.2) are mounted so as to be rotatable relative to one another about the axis of rotation. 1.1 at least one fluid connection (5.1, 5.2) is provided at least on the stator and at least one fluid channel extends through the stator and the rotor in a sealed manner with respect to an environment; characterized in that 1.2 a fluid-conducting overload coupling is provided in the rotor, which coupling comprises two coupling halves (7.1) and (7.2), which are coupled to one another in a torsionally rigid manner when a torque below a predetermined limit torque is applied and are decoupled from one another when a torque equal to or greater than the predetermined limit torque is applied, wherein the overload coupling, in the coupled and decoupled state of the coupling halves (7.1, 7.2), seals the fluid channel with respect to the environment, forms a section and in the decoupled state the two coupling halves (7.1, 7.2) are mounted so as to be rotatable relative to one another about the axis of rotation.
Nacelle for an aircraft, said nacelle comprising: - a fan casing delimiting a bypass duct, - a fixed cowl disposed around the fan casing, - a mobile cowl that is able to move between an advanced position in which the mobile cowl extends the fixed cowl at the rear and a retracted position in which the mobile cowl is moved away from the fixed cowl so as to open between them an opening that establishes the fluidic communication between the bypass duct and the outside of the nacelle, - deflectors secured to the mobile cowl, wherein, in the advanced position, the deflectors are around the fan casing and wherein, in the retracted position, the deflectors are disposed across the opening, and - a fan ramp having a mounting base and flaps, wherein the mounting base takes the form of a ring fastened to the rear of the fan casing, and wherein each flap has a downstream edge and an upstream edge opposite the downstream edge, the nacelle being characterized in that each flaps is able to rotate on the mounting base between a stowed position in which the upstream edge then projects towards the front of the nacelle and a deployed position in which the upstream edge then projects towards the outside of the nacelle through the opening and upstream of the deflectors in the retracted position, an in that for each flap, the fan ramp has a return element that urges the flap into the deployed position, and in that for each flap, the deflectors have a stop that comes into contact with the rear of said flap when the mobile cowl passes from the retracted position to the advanced position. - a fan casing delimiting a bypass duct, - a fixed cowl disposed around the fan casing, - a mobile cowl that is able to move between an advanced position in which the mobile cowl extends the fixed cowl at the rear and a retracted position in which the mobile cowl is moved away from the fixed cowl so as to open between them an opening that establishes the fluidic communication between the bypass duct and the outside of the nacelle, - deflectors secured to the mobile cowl, wherein, in the advanced position, the deflectors are around the fan casing and wherein, in the retracted position, the deflectors are disposed across the opening, and - a fan ramp having a mounting base and flaps, wherein the mounting base takes the form of a ring fastened to the rear of the fan casing, and wherein each flap has a downstream edge and an upstream edge opposite the downstream edge, the nacelle being characterized in that each flaps is able to rotate on the mounting base between a stowed position in which the upstream edge then projects towards the front of the nacelle and a deployed position in which the upstream edge then projects towards the outside of the nacelle through the opening and upstream of the deflectors in the retracted position, an in that for each flap, the fan ramp has a return element that urges the flap into the deployed position, and in that for each flap, the deflectors have a stop that comes into contact with the rear of said flap when the mobile cowl passes from the retracted position to the advanced position.
A clothes treating apparatus comprising: a cabinet having a mechanism compartment and an accommodating space where clothes are placed; a moisture supply device generating steam to be supplied to the accommodating space; and a plurality of steam spray nozzles comprising a plurality of steam spray holes spraying steam to the accommodating space, a steam spraying unit comprising a single steam supply hole supplying the steam generated by the moisture supply device and a main pipe having the steam supply hole which is formed at a side surface of the main pipe and a plurality of sub-pipes extended from an upper surface of the main pipe to the plurality of steam spray holes, a partition partitioning off the mechanism compartment and the accommodating space and having a plurality of through holes, the steam spraying unit is mounted in an upper portion of the mechanism compartment, characterized in that the steam spray nozzle is detachably inserted through the through hole and the steam spray nozzles are fastened to the sub-pipes. a cabinet having a mechanism compartment and an accommodating space where clothes are placed; a moisture supply device generating steam to be supplied to the accommodating space; and a plurality of steam spray nozzles comprising a plurality of steam spray holes spraying steam to the accommodating space, a steam spraying unit comprising a single steam supply hole supplying the steam generated by the moisture supply device and a main pipe having the steam supply hole which is formed at a side surface of the main pipe and a plurality of sub-pipes extended from an upper surface of the main pipe to the plurality of steam spray holes, a partition partitioning off the mechanism compartment and the accommodating space and having a plurality of through holes, the steam spraying unit is mounted in an upper portion of the mechanism compartment, characterized in that the steam spray nozzle is detachably inserted through the through hole and the steam spray nozzles are fastened to the sub-pipes.
A torque support for absorbing drive torques of at least one shaft drive, with a shaft drive and two first force-conducting elements, each of which is rotatably fixed to a first end of the shaft drive at a distance from one another, and with a support element, arranged at a distance from the shaft drive, to which the first force-conducting elements are each rotatably fixed and at a distance from one another by a second end, which is opposite the first end, and with a fixed element independent of the shaft drive and two second force-conducting elements, which are each fixed at a distance from one another by a first end to the support element and are each fixed at a distance from one another by a second end, which is opposite the first end, to the fixed element which is independent of the shaft drive, characterized in that the two second force conducting elements are each rotatably fixed with the first end to the support element and are each rotatably fixed with the second end to the fixed element, independent of the shaft drive. with a shaft drive and two first force-conducting elements, each of which is rotatably fixed to a first end of the shaft drive at a distance from one another, and with a support element, arranged at a distance from the shaft drive, to which the first force-conducting elements are each rotatably fixed and at a distance from one another by a second end, which is opposite the first end, and with a fixed element independent of the shaft drive and two second force-conducting elements, which are each fixed at a distance from one another by a first end to the support element and are each fixed at a distance from one another by a second end, which is opposite the first end, to the fixed element which is independent of the shaft drive, characterized in that the two second force conducting elements are each rotatably fixed with the first end to the support element and are each rotatably fixed with the second end to the fixed element, independent of the shaft drive.
A method for processing an audio signal, comprising: receiving the audio signal; and, processing the received audio signal, wherein the audio signal is processed according to a scheme comprising: comparing a size information of at least two blocks of A+1 level with a size information of a block of A level corresponding to the at least two blocks of A+1 level; wherein the A level and the A+1 level are consecutive hierarchical levels and are able to have different block lengths; and, determining the at least two blocks of A+1 level as an optimum block if the size information of the at least two blocks of A+1 level is less than the size information of the block of A level; or determining the block of A level as an optimum block if the size information of the block of A level is less than the size information of the at least two blocks of A+1 level. receiving the audio signal; and, processing the received audio signal, wherein the audio signal is processed according to a scheme comprising: comparing a size information of at least two blocks of A+1 level with a size information of a block of A level corresponding to the at least two blocks of A+1 level; wherein the A level and the A+1 level are consecutive hierarchical levels and are able to have different block lengths; and, determining the at least two blocks of A+1 level as an optimum block if the size information of the at least two blocks of A+1 level is less than the size information of the block of A level; or comparing a size information of at least two blocks of A+1 level with a size information of a block of A level corresponding to the at least two blocks of A+1 level; wherein the A level and the A+1 level are consecutive hierarchical levels and are able to have different block lengths; and, determining the at least two blocks of A+1 level as an optimum block if the size information of the at least two blocks of A+1 level is less than the size information of the block of A level; or determining the block of A level as an optimum block if the size information of the block of A level is less than the size information of the at least two blocks of A+1 level.
An apparatus comprising: a first plurality of graphics processing resources to execute graphics commands and process graphics data; and a first memory management unit MMU to communicatively couple the first plurality of graphics processing resources to a system-level MMU to access a system memory; characterized by: a second plurality of graphics processing resources to execute graphics commands and process graphics data; and a second MMU to communicatively couple the second plurality of graphics processing resources to the first MMU; wherein the second MMU comprises transaction routing circuitry to route a memory transaction to the first MMU, the first MMU comprising transaction routing circuitry to route the memory transaction to the system-level MMU if necessary, and wherein an ID code is embedded in a field of each memory transaction to uniquely identify the MMU from which it originated, the transaction routing circuitry of the first MMU to use the ID code in a response received from the system-level MMU to route the transaction to the second MMU. a first plurality of graphics processing resources to execute graphics commands and process graphics data; and a first memory management unit MMU to communicatively couple the first plurality of graphics processing resources to a system-level MMU to access a system memory; characterized by: a second plurality of graphics processing resources to execute graphics commands and process graphics data; and a second MMU to communicatively couple the second plurality of graphics processing resources to the first MMU; wherein the second MMU comprises transaction routing circuitry to route a memory transaction to the first MMU, the first MMU comprising transaction routing circuitry to route the memory transaction to the system-level MMU if necessary, and wherein an ID code is embedded in a field of each memory transaction to uniquely identify the MMU from which it originated, the transaction routing circuitry of the first MMU to use the ID code in a response received from the system-level MMU to route the transaction to the second MMU. a second plurality of graphics processing resources to execute graphics commands and process graphics data; and a second MMU to communicatively couple the second plurality of graphics processing resources to the first MMU; wherein the second MMU comprises transaction routing circuitry to route a memory transaction to the first MMU, the first MMU comprising transaction routing circuitry to route the memory transaction to the system-level MMU if necessary, and wherein an ID code is embedded in a field of each memory transaction to uniquely identify the MMU from which it originated, the transaction routing circuitry of the first MMU to use the ID code in a response received from the system-level MMU to route the transaction to the second MMU.
A method of manufacturing an electrode assembly which comprises electrodes and separators, the method comprising: - forming a unit structure, which comprises a stacked structure formed by sequentially stacking a first electrode, a first separator, a second electrode, and a second separator, or a structure formed by repeatedly forming the stacked structure a plurality of times (operation S10); - forming the electrode assembly by repeatedly stacking the unit structure into a plurality of layers (operation S20); and - discharging gas interposed between the layers by pressing the electrode assembly (operation S30), characterized in that a surface of the first and second separators is coated with a coating material having adhesive force, wherein: - the unit structure is formed by adhering the first electrode, the first separator, the second electrode, and the second separator to one another, and - operation S30 is performed using a roll type press which presses the electrode disposed at the outermost side of the electrode assembly. - forming a unit structure, which comprises a stacked structure formed by sequentially stacking a first electrode, a first separator, a second electrode, and a second separator, or a structure formed by repeatedly forming the stacked structure a plurality of times (operation S10); - forming the electrode assembly by repeatedly stacking the unit structure into a plurality of layers (operation S20); and - discharging gas interposed between the layers by pressing the electrode assembly (operation S30), - the unit structure is formed by adhering the first electrode, the first separator, the second electrode, and the second separator to one another, and - operation S30 is performed using a roll type press which presses the electrode disposed at the outermost side of the electrode assembly.
An easily peelable film comprising: a base material layer; and a heat sealable layer provided on one surface of the base material layer, wherein the heat sealable layer includes an adhesive resin composition, wherein the adhesive resin composition comprises an ethylene-vinyl acetate copolymer in which a content of a structural unit derived from vinyl acetate is 3% by mass or more and 18% by mass or less, and a melt mass flow rate (MFR, JIS K 7210:1999, 190°C, 2160 g load) is 5 g/10 min or more and 40 g/10 min or less; a tackifier resin; and an ethylene-vinyl acetate copolymer having a viscosity of 15, 000 mPa·s or more and 300, 000 mPa·s or less measured at 180°C using a Brookfield viscometer, wherein the easily peelable film is a cover tape for a paper carrier tape, and wherein the ethylene-vinyl acetate copolymer has a content of a structural unit derived from vinyl acetate of 10% by mass or more and 25% by mass or less. a base material layer; and a heat sealable layer provided on one surface of the base material layer, wherein the heat sealable layer includes an adhesive resin composition, wherein the adhesive resin composition comprises an ethylene-vinyl acetate copolymer in which a content of a structural unit derived from vinyl acetate is 3% by mass or more and 18% by mass or less, and a melt mass flow rate (MFR, JIS K 7210:1999, 190°C, 2160 g load) is 5 g/10 min or more and 40 g/10 min or less; a tackifier resin; and an ethylene-vinyl acetate copolymer having a viscosity of 15, 000 mPa·s or more and 300, 000 mPa·s or less measured at 180°C using a Brookfield viscometer, wherein the easily peelable film is a cover tape for a paper carrier tape, and wherein the ethylene-vinyl acetate copolymer has a content of a structural unit derived from vinyl acetate of 10% by mass or more and 25% by mass or less.
A functional separator comprising a base separator; and a polyethylene oxide -conductive carbon composite layer located on the surface of the base separator, wherein the polyethylene oxide is modified to introduce a functional group into its terminal, wherein the functional group is chemically bonded to a hydroxy group or carboxyl group of the conductive carbon, and wherein the functional group is an amine group or a carboxyl group. wherein the polyethylene oxide is modified to introduce a functional group into its terminal, wherein the functional group is chemically bonded to a hydroxy group or carboxyl group of the conductive carbon, and wherein the functional group is an amine group or a carboxyl group.