mhurhangee/ep-ind-claims huggingface dataset:
A sheet remover comprising: a pair of claws forming an insertion part between the pair of claws into which a sheet is inserted; and a pair of sheet holding plates forming a through part between the pair of sheet holding plates through which the sheet is inserted, the through part being located downstream from the insertion part in a sheet insertion direction in which the sheet is inserted, wherein a length of the insertion part in a thickness direction of the sheet decreases in the sheet insertion direction; and a contact part at a downstream end of the through part in the sheet insertion direction to contact the sheet. a pair of claws forming an insertion part between the pair of claws into which a sheet is inserted; and a pair of sheet holding plates forming a through part between the pair of sheet holding plates through which the sheet is inserted, the through part being located downstream from the insertion part in a sheet insertion direction in which the sheet is inserted, wherein a length of the insertion part in a thickness direction of the sheet decreases in the sheet insertion direction; and a contact part at a downstream end of the through part in the sheet insertion direction to contact the sheet.
A starting clutch control device for an automatic transmission to control a transmission torque capacity of a starting clutch (C1, C2) interposed in a transmission path in which rotation of the power source is transmitted to wheels while shifting is underway by the automatic transmission, the starting clutch control device being characterized by comprising: a starting clutch control means that controls the transmission torque capacity of the starting clutch (C1, C2) in order to execute a rotation trajectory control for a trajectory of the power-source rotational speed over time, or rotation trajectory, to develop according to a desired trajectory in a low rotation speed range in which the transmission torque capacity control of the starting clutch is necessary, means for checking whether or not a shift command is issued to the automatic transmission, means for checking whether or not the rotation trajectory control is being executed, wherein the starting clutch control means is configured to increase the transmission torque capacity of the starting clutch (C1, C2), when it is determined that a shift command has issued while the rotation trajectory control is executed and when the shift of the automatic transmission that occurs during the transmission torque capacity control by that means is an upshift, to thereby decrease the power-source rotational speed from the desired trajectory, and is further configured to decrease the transmission torque capacity of the starting clutch (C1, C2), when it is determined that a shift command has issued while the rotation trajectory control is executed and when the shift is a downshift, to thereby increase the power-source rotational speed from the desired trajectory. a starting clutch control means that controls the transmission torque capacity of the starting clutch (C1, C2) in order to execute a rotation trajectory control for a trajectory of the power-source rotational speed over time, or rotation trajectory, to develop according to a desired trajectory in a low rotation speed range in which the transmission torque capacity control of the starting clutch is necessary, means for checking whether or not a shift command is issued to the automatic transmission, means for checking whether or not the rotation trajectory control is being executed, wherein the starting clutch control means is configured to increase the transmission torque capacity of the starting clutch (C1, C2), when it is determined that a shift command has issued while the rotation trajectory control is executed and when the shift of the automatic transmission that occurs during the transmission torque capacity control by that means is an upshift, to thereby decrease the power-source rotational speed from the desired trajectory, and is further configured to decrease the transmission torque capacity of the starting clutch (C1, C2), when it is determined that a shift command has issued while the rotation trajectory control is executed and when the shift is a downshift, to thereby increase the power-source rotational speed from the desired trajectory.
Autonomous vehicle, having a vehicle body with a receiving device which is designed to receive an object to be transported on the vehicle body, a chassis with at least one driven wheel and with at least one sensor device which has a detection region surrounding the autonomous vehicle for identifying obstacles which enter the detection region of the sensor device in the immediate vicinity of the autonomous vehicle, characterized in that the autonomous vehicle has a joint arrangement which is designed to adjust the sensor device with respect to the vehicle body in such a manner that the sensor device selectively - can be operated in a first arrangement monitoring the basic circumferential contour of the vehicle body and - can be operated in at least one second arrangement monitoring an overall circumferential contour, consisting of the basic circumferential contour and an expansion contour of the autonomous vehicle arising when an object to be transported is received, in which second arrangement the sensor device is repositioned in relation to the first arrangement in such a manner that an object to be transported, which is received by the autonomous vehicle, is enclosed by the outwardly detecting detection region of the sensor device, said detection region completely surrounding the overall circumferential contour in the second arrangement. - can be operated in a first arrangement monitoring the basic circumferential contour of the vehicle body and - can be operated in at least one second arrangement monitoring an overall circumferential contour, consisting of the basic circumferential contour and an expansion contour of the autonomous vehicle arising when an object to be transported is received, in which second arrangement the sensor device is repositioned in relation to the first arrangement in such a manner that an object to be transported, which is received by the autonomous vehicle, is enclosed by the outwardly detecting detection region of the sensor device, said detection region completely surrounding the overall circumferential contour in the second arrangement.
A process for electroplating a substrate with a tin alloy, which alloy comprises from 2% by weight to 15% by weight of alloying metal, said process comprising: a) contacting the substrate with an electroplating bath medium comprising: 1. a soluble stannous tin salt; 2. a soluble salt of the alloying metal; and 3. a complexing agent; b) applying a current regime which includes a first condition in which the average current density is such that the alloying metal is deposited and a second condition in which the average current density is lower than in the first condition such that substantially only tin is deposited, wherein the current regime comprises applying a direct current for at least one first time interval and applying a pulsed current for at least one second time interval, wherein the first and second time intervals are consecutive, and wherein in an "off" pulse period of the pulsed current, the current density is substantially zero. a) contacting the substrate with an electroplating bath medium comprising: 1. a soluble stannous tin salt; 2. a soluble salt of the alloying metal; and 3. a complexing agent; 1. a soluble stannous tin salt; 2. a soluble salt of the alloying metal; and 3. a complexing agent; b) applying a current regime which includes a first condition in which the average current density is such that the alloying metal is deposited and a second condition in which the average current density is lower than in the first condition such that substantially only tin is deposited, wherein the current regime comprises applying a direct current for at least one first time interval and applying a pulsed current for at least one second time interval, wherein the first and second time intervals are consecutive, and wherein in an "off" pulse period of the pulsed current, the current density is substantially zero.
A communication method, wherein the method comprises: generating, by a first network device, a first indication information, wherein the first indication information indicates a first downlink resource and indicates whether a second indication information exists in a first time unit, wherein the second indication information is sent by a second network device and indicates a second downlink resource, and the first downlink resource and the second downlink resource are used to carry downlink data, wherein the first indication information is a first downlink control information, DCI, and the second indication information is a second DCI; and sending, by the first network device, the first indication information in the first time unit to a terminal device; wherein both the first indication information and the second indication information comprise a first field and the method further comprises: sending, by the first network device, a third indication information, wherein the third indication information indicates that content indicated by the first field in the first indication information is the same as content indicated by the first field in the second indication information. generating, by a first network device, a first indication information, wherein the first indication information indicates a first downlink resource and indicates whether a second indication information exists in a first time unit, wherein the second indication information is sent by a second network device and indicates a second downlink resource, and the first downlink resource and the second downlink resource are used to carry downlink data, wherein the first indication information is a first downlink control information, DCI, and the second indication information is a second DCI; and sending, by the first network device, the first indication information in the first time unit to a terminal device; wherein both the first indication information and the second indication information comprise a first field and the method further comprises: sending, by the first network device, a third indication information, wherein the third indication information indicates that content indicated by the first field in the first indication information is the same as content indicated by the first field in the second indication information.
An object detecting apparatus comprising: a detecting unit (10; 12) configured to detect an object-candidate region from a captured image captured by an onboard camera; and a non-linear processing unit (10; 13) configured to: input an image at least including the object-candidate region to a neural network configured to estimate a posture of and a distance to an object from the onboard camera in the object-candidate region simultaneously, the image being the captured image or a part of the captured image; and output object information at least including information on the distance to the object from the onboard camera, using an output from the neural network, characterized in that the distance to the object estimated by the neural network is a value equivalent to a difference between a distance obtained from a position of the object-candidate region in the captured image and a first actual distance to the object, the first actual distance being measured by a distance sensor, and, the value equivalent to the difference is represented as a value a, the distance obtained from a position of the object-candidate region is represented as a distance Z1, and the first actual distance is represented as a distance Zr, the neural network is trained in advance to regress to the value a that satisfies an equation Zr = Z1 x a + Z1. a detecting unit (10; 12) configured to detect an object-candidate region from a captured image captured by an onboard camera; and a non-linear processing unit (10; 13) configured to: input an image at least including the object-candidate region to a neural network configured to estimate a posture of and a distance to an object from the onboard camera in the object-candidate region simultaneously, the image being the captured image or a part of the captured image; and output object information at least including information on the distance to the object from the onboard camera, using an output from the neural network, characterized in that input an image at least including the object-candidate region to a neural network configured to estimate a posture of and a distance to an object from the onboard camera in the object-candidate region simultaneously, the image being the captured image or a part of the captured image; and output object information at least including information on the distance to the object from the onboard camera, using an output from the neural network, characterized in that the distance to the object estimated by the neural network is a value equivalent to a difference between a distance obtained from a position of the object-candidate region in the captured image and a first actual distance to the object, the first actual distance being measured by a distance sensor, and, the value equivalent to the difference is represented as a value a, the distance obtained from a position of the object-candidate region is represented as a distance Z1, and the first actual distance is represented as a distance Zr, the neural network is trained in advance to regress to the value a that satisfies an equation Zr = Z1 x a + Z1.
A rechargeable battery comprising: an electrode assembly comprising first and second electrodes (121, 122) having different polarities wound about a winding axis; a finishing tape that covers the side and a portion of a bottom face of the electrode assembly; a case that accommodates the electrode assembly and has an opening wherein the electrode assembly is oriented in the case in a direction parallel to the winding axis with the bottom face facing away from the opening; a cap assembly coupled to the opening and sealing the case; a first current collecting member and a second current collecting member located within the case and connected to the first electrode and the second electrode, respectively; and a first terminal and a second terminal located on top of the cap assembly and connected to the first current collecting member and the second current collecting member, respectively wherein the finishing tape is formed to be bent toward the bottom face of the electrode assembly from a lower end of the electrode assembly and to overlap with the portion of the bottom face, the lower end being a point where the side and the bottom surface of the electrode assembly meet and, wherein a first region corresponding to a region where the finishing tape overlaps with a portion of the bottom face of the electrode assembly encloses a second region corresponding to a region of the bottom face that does not overlap with the finishing tape. an electrode assembly comprising first and second electrodes (121, 122) having different polarities wound about a winding axis; a finishing tape that covers the side and a portion of a bottom face of the electrode assembly; a case that accommodates the electrode assembly and has an opening wherein the electrode assembly is oriented in the case in a direction parallel to the winding axis with the bottom face facing away from the opening; a cap assembly coupled to the opening and sealing the case; a first current collecting member and a second current collecting member located within the case and connected to the first electrode and the second electrode, respectively; and a first terminal and a second terminal located on top of the cap assembly and connected to the first current collecting member and the second current collecting member, respectively wherein the finishing tape is formed to be bent toward the bottom face of the electrode assembly from a lower end of the electrode assembly and to overlap with the portion of the bottom face, the lower end being a point where the side and the bottom surface of the electrode assembly meet and, wherein a first region corresponding to a region where the finishing tape overlaps with a portion of the bottom face of the electrode assembly encloses a second region corresponding to a region of the bottom face that does not overlap with the finishing tape.
A solid-state imaging device comprising: a first wiring layer formed on a sensor substrate; and a second wiring layer formed on a circuit substrate, wherein the sensor substrate is bonded to the circuit substrate with the first wiring layer and the second wiring layer being positioned between the sensor substrate and the circuit substrate, a first electrode is formed on a surface of the first wiring layer, a second electrode is formed on a surface of the second wiring layer, the first electrode is in electrical contact with the second electrode; the first electrode includes a first conductor layer extending in a first direction parallel to a surface of the first wiring layer, the second electrode includes a second conductor layer extending in a second direction parallel to a surface of the second wiring layer, the first electrode is rectangular in shape, the second electrode is rectangular in shape, and the first direction is perpendicular to the second direction, wherein a floating diffusion region is formed in the sensor substrate, and a first electrical conductor connects the floating diffusion region to the first electrode, a second electrical conductor connects the second electrode to a gate electrode of an amplification transistor formed in the circuit substrate, and a first photodiode and a second photodiode are formed in the sensor substrate, the first photodiode and the second photodiode sharing the amplification transistor. a first wiring layer formed on a sensor substrate; and a second wiring layer formed on a circuit substrate, wherein the sensor substrate is bonded to the circuit substrate with the first wiring layer and the second wiring layer being positioned between the sensor substrate and the circuit substrate, a first electrode is formed on a surface of the first wiring layer, a second electrode is formed on a surface of the second wiring layer, the first electrode is in electrical contact with the second electrode; the first electrode includes a first conductor layer extending in a first direction parallel to a surface of the first wiring layer, the second electrode includes a second conductor layer extending in a second direction parallel to a surface of the second wiring layer, the first electrode is rectangular in shape, the second electrode is rectangular in shape, and the first direction is perpendicular to the second direction, wherein a floating diffusion region is formed in the sensor substrate, and a first electrical conductor connects the floating diffusion region to the first electrode, a second electrical conductor connects the second electrode to a gate electrode of an amplification transistor formed in the circuit substrate, and a first photodiode and a second photodiode are formed in the sensor substrate, the first photodiode and the second photodiode sharing the amplification transistor.
A dishwasher comprising: a tub; a door configured for selectively sealing a forward access opening of the tub; a detergent dispenser located at an inner surface of the door; a spray arm mounted within the tub such that the spray arm is adjustable between a plurality of heights comprising a first height and a second height, the first height being the maximum height of the plurality of heights and the second height being the minimum height of the plurality of heights, the spray arm comprising a spray detergent nozzle; and a circulation pump configured to supply washing liquid to the spray arm; characterized in that the spray arm is configured to emit a fan-shaped jet from the spray detergent nozzle when the washing liquid is supplied to the spray arm, and in that the spray arm is configured to emit the fan-shaped jet that is incident upon the detergent dispenser both when the spray arm is positioned at any of the plurality of heights, wherein the angular extent (θ) of the fan-shaped jet is configured such that the width of the fan-shaped jet, when the fan-shaped jet is incident on the door, is at least the difference between the first height and the second height. a tub; a door configured for selectively sealing a forward access opening of the tub; a detergent dispenser located at an inner surface of the door; a spray arm mounted within the tub such that the spray arm is adjustable between a plurality of heights comprising a first height and a second height, the first height being the maximum height of the plurality of heights and the second height being the minimum height of the plurality of heights, the spray arm comprising a spray detergent nozzle; and a circulation pump configured to supply washing liquid to the spray arm; characterized in that the spray arm is configured to emit a fan-shaped jet from the spray detergent nozzle when the washing liquid is supplied to the spray arm, and in that the spray arm is configured to emit the fan-shaped jet that is incident upon the detergent dispenser both when the spray arm is positioned at any of the plurality of heights, wherein the angular extent (θ) of the fan-shaped jet is configured such that the width of the fan-shaped jet, when the fan-shaped jet is incident on the door, is at least the difference between the first height and the second height.
Device for the in situ characterisation of the quality parameters and/or the properties of inorganic binder systems, in particular of hardenable mixtures, wherein the binder system is located in a receiving element to which at least one wall (1, 2) is connected by a probe (15.1, 15.2), wherein a chamber (10.1, 10.2) for a contact material is provided between the binder system and the probe (15.1, 15.2) and a membrane (12.1, 12.2) separates the binder system from the contact material, wherein the membrane follows the binder system as it shrinks, characterized in that the membrane is connected to the binder system by adhesive bonding.