mhurhangee/ep-ind-claims huggingface dataset:
A hard sheet comprising: a non-woven fabric of ultrafine fibers having a fineness of 0.0001 to 0.5 dtex; and an elastic polymer added into the non-woven fabric, the hard sheet having: a JIS-D hardness of 45 degrees or more; a R% calculated by an equation of R(%) = (D hardness maximum - D hardness minimum) / D hardness average × 100 of 0 to 20%, when a sectional surface of the hard sheet extending in a thickness direction of the hard sheet is evenly divided into three parts corresponding to a first outer layer, an intermediate layer, and a second outer layer in order from any one surface side; JIS-D hardness measurements are made at a total of six points being three arbitrary points on the first outer layer and three arbitrary points on the intermediate layer; and then the JIS-D hardnesses obtained at the six points are used for the calculation; and a total content of ions capable of causing a pH change in water, of 400 μg/cm 3 or less. a non-woven fabric of ultrafine fibers having a fineness of 0.0001 to 0.5 dtex; and an elastic polymer added into the non-woven fabric, the hard sheet having: a JIS-D hardness of 45 degrees or more; a R% calculated by an equation of R(%) = (D hardness maximum - D hardness minimum) / D hardness average × 100 of 0 to 20%, when a sectional surface of the hard sheet extending in a thickness direction of the hard sheet is evenly divided into three parts corresponding to a first outer layer, an intermediate layer, and a second outer layer in order from any one surface side; JIS-D hardness measurements are made at a total of six points being three arbitrary points on the first outer layer and three arbitrary points on the intermediate layer; and then the JIS-D hardnesses obtained at the six points are used for the calculation; and a JIS-D hardness of 45 degrees or more; a R% calculated by an equation of R(%) = (D hardness maximum - D hardness minimum) / D hardness average × 100 of 0 to 20%, when a sectional surface of the hard sheet extending in a thickness direction of the hard sheet is evenly divided into three parts corresponding to a first outer layer, an intermediate layer, and a second outer layer in order from any one surface side; JIS-D hardness measurements are made at a total of six points being three arbitrary points on the first outer layer and three arbitrary points on the intermediate layer; and then the JIS-D hardnesses obtained at the six points are used for the calculation; and
A vacuum brake booster for a motor vehicle brake system, comprising - a rod-shaped force input member which is coupled or may be coupled with a brake pedal, - a control valve which may be actuated via the force input member, - a chamber arrangement with a vacuum chamber, which is connectable to a vacuum source as well as to a working chamber, which in accordance with the actuation of the force input member is optionally connectable to the vacuum chamber and to the ambient atmosphere, wherein the control valve comprises a control piston which may be actuated via the force input member, which together with a valve element forms a sealing seat with a sealing seat diameter between the working chamber and the ambient atmosphere, wherein in the region close to the sealing seat a guiding channel is provided through which air flows from the ambient atmosphere into the working chamber upon opening of the sealing seat due to a pressure difference, characterized in that the control valve has a clamping sleeve which is provided for firmly clamping a fastening section of the valve element in a control valve housing of the control valve, wherein the clamping sleeve comprises a radial inner cylindrical section which at least partially forms the guiding channel, and in that this guiding channel extends over a predetermined length (L; L 2) in the axial direction with a constant flow diameter (D 1; D 2), wherein the flow diameter (D 1; D 2) is smaller than or equal to the sealing seat diameter. - a rod-shaped force input member which is coupled or may be coupled with a brake pedal, - a control valve which may be actuated via the force input member, - a chamber arrangement with a vacuum chamber, which is connectable to a vacuum source as well as to a working chamber, which in accordance with the actuation of the force input member is optionally connectable to the vacuum chamber and to the ambient atmosphere,
An electroluminescent device comprising a substrate and stacked thereon in the order of mention a first transparent electrode, an electroluminescent stack, and a second electrode, wherein the electroluminescent device further comprises at least one first additional hard layer being located underneath the second electrode and consisting of a layer comprising at least one semiconducting metal oxide and at least one second additional hard layer that is located on top of the second electrode, and wherein the first and the second additional hard layer have a hardness larger than the hardness of the second electrode, and wherein the at least one second additional hard layer is a non-conductive layer and comprises at least one a material selected from the group consisting of oxides, nitrides and fluorides, and the electroluminescent further comprises a conductive layer located on top of the hard layer that electrically contacts the second electrode.
A base station which communicates with a terminal apparatus over a Master Cell Group, MCG, bearer for dual connectivity comprising: a transmitter configured to transmit a first message to a secondary base station which is configured to communicate with the terminal apparatus over a Secondary Cell Group, SCG, bearer for the dual connectivity, the first message including an inactivity timer, an Expected UE Behaviour IE, and an information element which indicates a request for the secondary base station to report activity-related information related to an activity of the terminal apparatus in a Secondary Cell Group, SCG, of the secondary base station; and a receiver configured to receive the activity-related information transmitted by the secondary base station, wherein the first message is transmitted and a second message is received in a first procedure, the second message being an acknowledge message which corresponds to the first message, wherein the activity-related information included in a third message is received in a second procedure, and wherein the activity-related information indicates whether the terminal apparatus is inactive or not. a transmitter configured to transmit a first message to a secondary base station which is configured to communicate with the terminal apparatus over a Secondary Cell Group, SCG, bearer for the dual connectivity, the first message including an inactivity timer, an Expected UE Behaviour IE, and an information element which indicates a request for the secondary base station to report activity-related information related to an activity of the terminal apparatus in a Secondary Cell Group, SCG, of the secondary base station; and a receiver configured to receive the activity-related information transmitted by the secondary base station, wherein the first message is transmitted and a second message is received in a first procedure, the second message being an acknowledge message which corresponds to the first message, wherein the activity-related information included in a third message is received in a second procedure, and wherein the activity-related information indicates whether the terminal apparatus is inactive or not.
An exhaust system for treating an exhaust gas from a compression ignition engine comprising an oxidation catalyst for use as a passive NO x absorber and a downstream emissions control device, wherein the oxidation catalyst comprises: a substrate, which is a flow-through monolith; a first washcoat zone comprising palladium (Pd) directly supported on a first support material in an amount of 0.25 to 1.9 % by weight of the first support material, wherein the first support material consists essentially of ceria; and a second washcoat zone comprising platinum (Pt), palladium and a second support material, wherein the second support material comprises a refractory metal oxide, wherein the second washcoat zone is disposed or supported on the substrate downstream of the first washcoat zone; and wherein the emissions control device is a diesel particulate filter coated with a catalyst formulation, wherein the catalyst formulation: (a) comprises platinum and/or palladium for oxidising particulate matter and carbon monoxide and hydrocarbons and the coated diesel particulate filter is a catalysed soot filter; (b) is a NOx adsorber composition; or (c) is a selective catalytic reduction catalyst and the coated diesel particulate filter is a selective catalytic reduction filter (SCRF). a substrate, which is a flow-through monolith; a first washcoat zone comprising palladium (Pd) directly supported on a first support material in an amount of 0.25 to 1.9 % by weight of the first support material, wherein the first support material consists essentially of ceria; and a second washcoat zone comprising platinum (Pt), palladium and a second support material, wherein the second support material comprises a refractory metal oxide, wherein the second washcoat zone is disposed or supported on the substrate downstream of the first washcoat zone; and wherein the emissions control device is a diesel particulate filter coated with a catalyst formulation, wherein the catalyst formulation: (a) comprises platinum and/or palladium for oxidising particulate matter and carbon monoxide and hydrocarbons and the coated diesel particulate filter is a catalysed soot filter; (b) is a NOx adsorber composition; or (c) is a selective catalytic reduction catalyst and the coated diesel particulate filter is a selective catalytic reduction filter (SCRF).
An automatic traveling method comprising: causing a work vehicle to automatically travel according to a target route in a travel region, said travel region slopes by an slope angle (θf) in a left-right direction with respect to a movement direction of the work vehicle in the travel region; characterised by executing, if a position deviation of the work vehicle with respect to the target route exceeds a threshold value, a restricted operation for restricting automatic travel of the work vehicle; and setting the threshold value, based on the slope angle (θf) of the travel region. causing a work vehicle to automatically travel according to a target route in a travel region, said travel region slopes by an slope angle (θf) in a left-right direction with respect to a movement direction of the work vehicle in the travel region; characterised by executing, if a position deviation of the work vehicle with respect to the target route exceeds a threshold value, a restricted operation for restricting automatic travel of the work vehicle; and setting the threshold value, based on the slope angle (θf) of the travel region.
Servo hydraulic press for sheet metal forming comprising a hydraulic cylinder, a first servo motor and a second servo motor, and a first pump driven by the first servo motor and a second pump driven by the second servo motor, for supplying pressurized fluid to the hydraulic cylinder, wherein the servo motors are operable at variable speed, characterized in that the first pump and the second pump together providing a total pressure of pressurized fluid to the hydraulic cylinder, wherein the first servo motor and the first pump are configured to operate in an opposite direction to the second servo motor and the second pump, providing a reduced total pressure, and wherein the first pump and the second pump are arranged in parallel. a hydraulic cylinder, a first servo motor and a second servo motor, and a first pump driven by the first servo motor and a second pump driven by the second servo motor, for supplying pressurized fluid to the hydraulic cylinder, wherein the servo motors are operable at variable speed, characterized in that the first pump and the second pump together providing a total pressure of pressurized fluid to the hydraulic cylinder, wherein the first servo motor and the first pump are configured to operate in an opposite direction to the second servo motor and the second pump, providing a reduced total pressure, and wherein the first pump and the second pump are arranged in parallel.
A chain lock comprising a lock body, which has a first closure part, a second closure part and a combination locking mechanism that is aligned along a lock axis, and comprising a bolt that has a bolt mandrel, which can be introduced into the lock body, and that can be selectively locked to the lock body by means of the combination locking mechanism, wherein the lock body has a chain connection part which is permanently connected to the bolt via a chain, wherein the chain connection part and the bolt are aligned coaxially to one another in a locked state of the bolt, wherein the combination locking mechanism comprises a plurality of rotatable code setting rings which are arranged between the first closure part and the second closure part of the lock body, wherein the lock body comprises a housing sleeve that has an access window via which the code setting rings are accessible for a manual rotation, wherein the lock body has, at a first end associated with the chain connection part, at least one first fastening pin which engages through the housing sleeve into an annular groove of the chain connection part such that the chain connection part is rotatably supported at the housing sleeve, wherein the lock body has, at a second end associated with the bolt, at least one second fastening pin which engages through the housing sleeve into the second closure part of the lock body and which fixes the second closure part to the housing sleeve. wherein the lock body has a chain connection part which is permanently connected to the bolt via a chain, wherein the chain connection part and the bolt are aligned coaxially to one another in a locked state of the bolt, wherein the combination locking mechanism comprises a plurality of rotatable code setting rings which are arranged between the first closure part and the second closure part of the lock body, wherein the lock body comprises a housing sleeve that has an access window via which the code setting rings are accessible for a manual rotation, wherein the lock body has, at a first end associated with the chain connection part, at least one first fastening pin which engages through the housing sleeve into an annular groove of the chain connection part such that the chain connection part is rotatably supported at the housing sleeve, wherein the lock body has, at a second end associated with the bolt, at least one second fastening pin which engages through the housing sleeve into the second closure part of the lock body and which fixes the second closure part to the housing sleeve.
A semiconductor device comprising: an address conversion circuit (91; 120) which, on the basis of a first address for storing data in a memory, generates a second address for storing an error detecting code generated from the data and outputs the first address and the second address to the memory via a same address signal line, wherein the first address and the second address are (N+1)-bit addresses; a write circuit (92; 130) which writes the data at the first address when the write of the data at the first address is requested and which writes the error detecting code at the second address; and a read circuit (93; 140) which reads the data from the first address when the read of the data stored at the first address is requested, and which reads the error detecting code from the second address and detects an error based on the data concerned and the error detecting code concerned, wherein the address conversion circuit (91; 120) generates an address as the second address by modifying the value of the highest-order bit of the (N+1)-bit address of the first address so as to offset the storing position of the error detecting code to the storing position of the data, and by inverting the value of or permutating the order of bits of a prescribed number of bits among the lower-order N bits of the (N+1)-bit address, and wherein each of the write of the data and the read of the data is requested from a bus master (10, 15) by receiving a request indicative of the first address from the bus master (10, 15). an address conversion circuit (91; 120) which, on the basis of a first address for storing data in a memory, generates a second address for storing an error detecting code generated from the data and outputs the first address and the second address to the memory via a same address signal line, wherein the first address and the second address are (N+1)-bit addresses; a write circuit (92; 130) which writes the data at the first address when the write of the data at the first address is requested and which writes the error detecting code at the second address; and a read circuit (93; 140) which reads the data from the first address when the read of the data stored at the first address is requested, and which reads the error detecting code from the second address and detects an error based on the data concerned and the error detecting code concerned, wherein the address conversion circuit (91; 120) generates an address as the second address by modifying the value of the highest-order bit of the (N+1)-bit address of the first address so as to offset the storing position of the error detecting code to the storing position of the data, and by inverting the value of or permutating the order of bits of a prescribed number of bits among the lower-order N bits of the (N+1)-bit address, and wherein each of the write of the data and the read of the data is requested from a bus master (10, 15) by receiving a request indicative of the first address from the bus master (10, 15).
An eductor for mixing solid particles into a motive fluid comprising: a nozzle (110, 200) having a nozzle inlet and a nozzle outlet (134, 210); an initial mixing chamber, receiving motive flow from the nozzle and receiving solid particles, wherein a first mixing zone is formed within the initial mixing chamber to combine the motive fluid and the solid particles into an initial mixture; a first diffuser including a first converging segment, a first throat, and a first diverging segment serially aligned; a second diffuser including a second converging segment, a second throat, and a second diverging segment serially aligned; and an intermediate mixing chamber receiving the initial mixture from the first diffuser, wherein a second mixing zone is formed within the intermediate mixing chamber to further mix the initial mixture to provide an intermediate mixture of the motive fluid and the solid particles; characterized in that the nozzle inlet is circumferential about a first axis and that the nozzle outlet is semicircular, defined by a flat portion an offset distance from the first axis and a round portion distal the first axis. a nozzle (110, 200) having a nozzle inlet and a nozzle outlet (134, 210); an initial mixing chamber, receiving motive flow from the nozzle and receiving solid particles, wherein a first mixing zone is formed within the initial mixing chamber to combine the motive fluid and the solid particles into an initial mixture; a first diffuser including a first converging segment, a first throat, and a first diverging segment serially aligned; a second diffuser including a second converging segment, a second throat, and a second diverging segment serially aligned; and an intermediate mixing chamber receiving the initial mixture from the first diffuser, wherein a second mixing zone is formed within the intermediate mixing chamber to further mix the initial mixture to provide an intermediate mixture of the motive fluid and the solid particles; characterized in that the nozzle inlet is circumferential about a first axis and that the nozzle outlet is semicircular, defined by a flat portion an offset distance from the first axis and a round portion distal the first axis.
A lock determination device for variable valve timing mechanism, comprising: means for detecting an operating position of a variable valve timing mechanism having a function of locking a valve timing of an internal combustion engine in an intermediate position between a most retarded position where the valve timing is most retarded and a most advanced position where the valve timing is most advanced in stopping operation of the internal combustion engine; means for starting a timer when the operating position of the variable valve timing mechanism enters an intermediate region, the intermediate region being a predetermined region including the intermediate position; means for determining whether or not the operating position of the variable valve timing mechanism is in a determination holding region wider on a retardation side than the intermediate region after the timer is started; means for incrementing a value of the timer if the operating position of the variable valve timing mechanism is in the determination holding region; and means for determining that the operating position of the variable valve timing mechanism has been locked in the intermediate position when the value of the timer reaches a predetermined value. means for detecting an operating position of a variable valve timing mechanism having a function of locking a valve timing of an internal combustion engine in an intermediate position between a most retarded position where the valve timing is most retarded and a most advanced position where the valve timing is most advanced in stopping operation of the internal combustion engine; means for starting a timer when the operating position of the variable valve timing mechanism enters an intermediate region, the intermediate region being a predetermined region including the intermediate position; means for determining whether or not the operating position of the variable valve timing mechanism is in a determination holding region wider on a retardation side than the intermediate region after the timer is started; means for incrementing a value of the timer if the operating position of the variable valve timing mechanism is in the determination holding region; and means for determining that the operating position of the variable valve timing mechanism has been locked in the intermediate position when the value of the timer reaches a predetermined value.