mhurhangee/patent-ind-claim-en huggingface dataset:
Motor vehicle (K) having at least one electric drive machine , for driving the motor vehicle (K), having at least one coupling mechanism which can be switched at least between a coupling position (KS), in which the electric drive machine is coupled in a torque-transmitting manner to a drive wheel of the motor vehicle (K), and a decoupling position (ES), in which the electric drive machine is decoupled from the drive wheel , and having a parking lock device which comprises at least one parking lock element which can be moved between a parking lock position (P1), in which the at least one parking lock element blocks a rotation of the drive wheel at least indirectly, and an unlocking position (P2), in which the at least one parking lock element releases the rotation of the drive wheel , wherein the motor vehicle (K) comprises at least one actuating device with an actuator , which is designed firstly for actuating a coupling , having at least one switching element , of the coupling mechanism , which serves to switch between the coupling position (KS) and the decoupling position (ES), and is designed secondly for moving the at least one parking lock element between the parking lock position (P1) and the unlocking position (P2), and wherein the at least one actuating device comprises an actuating element which can be adjusted by means of the actuator and which is designed firstly for exerting at least one switching force (F_SK) on the switching element for actuating the coupling and secondly for exerting at least one movement force (F_VK), for moving the at least one parking lock element between the parking lock position (P1) and the unlocking position (P2), characterized in that the at least one actuating element is coupled in a force-transmitting manner via a second spring element of the actuating device at least indirectly to an eccentric element of the actuating device , by means of which the parking lock element can be moved between the parking lock position (P1) and the unlocking position (P2).
A control method for a laundry treating apparatus comprising a washing machine (L) provided with a tub providing a space, in which water is stored, inside a first cabinet , a washing drum provided inside the tub , providing a space in which laundry is stored, a washing drum motor rotating the washing drum , a water supply unit supplying water to the tub , and a heating unit heating water inside the tub ; and a dryer (T) provided with a second cabinet supporting a bottom surface of the first cabinet or seated on an upper surface of the first cabinet , a drying drum rotatably provided inside the second cabinet , storing laundry therein, a duct supplying the air to the drying drum , and a heat exchanger provided in the duct, heating the air, the control method comprising: a water supply step of supplying water to the tub by controlling the water supply unit; a drying step (S240) of supplying the heated air to the drying drum through the heat exchanger ; a request step (S160) of transmitting a control signal requesting reduction of a current amount per hour supplied to the heat exchanger to the dryer (T) by the washing machine (L); a low power mode execution step (S260) of lowering the current amount per hour supplied to the heat exchanger if a temperature of the air discharged from the drying drum or a temperature of a refrigerant heat-exchanged with the air by the heat exchanger is higher than a preset first reference temperature; a heating step (S170) of heating the water stored in the tub by operating the heating unit after the low power mode execution step (S260) is initiated; and a particle removal step (S143) of separating particles from laundry by rotating the washing drum . a water supply step of supplying water to the tub by controlling the water supply unit; a drying step (S240) of supplying the heated air to the drying drum through the heat exchanger ; a request step (S160) of transmitting a control signal requesting reduction of a current amount per hour supplied to the heat exchanger to the dryer (T) by the washing machine (L); a low power mode execution step (S260) of lowering the current amount per hour supplied to the heat exchanger if a temperature of the air discharged from the drying drum or a temperature of a refrigerant heat-exchanged with the air by the heat exchanger is higher than a preset first reference temperature; a heating step (S170) of heating the water stored in the tub by operating the heating unit after the low power mode execution step (S260) is initiated; and a particle removal step (S143) of separating particles from laundry by rotating the washing drum .
A route searching apparatus comprising: an information input unit for acquiring information on a control condition for controlling traveling of a vehicle; and a route searching unit for searching a guide route for the vehicle satisfying the control condition based on the information on the control condition acquired by the information input unit, wherein the information input unit is adapted to acquire as the information on the control condition, a permission threshold value that is set for each traveling situation of the vehicle and permits execution of vehicle control corresponding to the traveling situation, the traveling situation containing a lane shift, U-turn and right-turning/left-turning, and the permission threshold value being set for each of the lane shift, the U-turn and the right-turning/left-turning, the route searching unit is adapted to search a guide route on which the vehicle is permitted to execute the vehicle control based on the permission threshold value, and the route searching unit is adapted to determine, when there is a lane shift as the traveling situation in a searched route, whether the lane shift is a shift within a steering angle range of the vehicle as the permission threshold value, thereby determining whether the searched route is selected as the guide route for the vehicle or it is impossible to execute the lane shift in the selected guide route. an information input unit for acquiring information on a control condition for controlling traveling of a vehicle; and a route searching unit for searching a guide route for the vehicle satisfying the control condition based on the information on the control condition acquired by the information input unit, wherein the information input unit is adapted to acquire as the information on the control condition, a permission threshold value that is set for each traveling situation of the vehicle and permits execution of vehicle control corresponding to the traveling situation, the traveling situation containing a lane shift, U-turn and right-turning/left-turning, and the permission threshold value being set for each of the lane shift, the U-turn and the right-turning/left-turning, the route searching unit is adapted to search a guide route on which the vehicle is permitted to execute the vehicle control based on the permission threshold value, and the route searching unit is adapted to determine, when there is a lane shift as the traveling situation in a searched route, whether the lane shift is a shift within a steering angle range of the vehicle as the permission threshold value, thereby determining whether the searched route is selected as the guide route for the vehicle or it is impossible to execute the lane shift in the selected guide route.
Shaped material having circular or annular shape and comprising a plurality of layers of carbon fibers stacked along an overlap axis (Z), wherein each layer comprises a plurality of radial segments and transverse segments placed side by side and joined together to form said layer, wherein the radial segments are segments in which the carbon fibers are mainly oriented in a radial direction (R) relative to the overlap axis (Z), and the transverse segments are segments in which the carbon fibers are mainly oriented in a direction (I) incident to said radial direction, wherein said shaped material is characterized in that each radial segment is adjacent and joined, on both sides, to a transverse segment and each transverse segment is adjacent and joined, on both sides, to a radial segment , thus forming in each layer an alternation of radial segments and transverse segments . wherein each layer comprises a plurality of radial segments and transverse segments placed side by side and joined together to form said layer, wherein the radial segments are segments in which the carbon fibers are mainly oriented in a radial direction (R) relative to the overlap axis (Z), and the transverse segments are segments in which the carbon fibers are mainly oriented in a direction (I) incident to said radial direction, wherein said shaped material is characterized in that each radial segment is adjacent and joined, on both sides, to a transverse segment and each transverse segment is adjacent and joined, on both sides, to a radial segment , thus forming in each layer an alternation of radial segments and transverse segments .
Medicament delivery device , comprising: - a piston rod , - a body , - a container carrier for retaining a medicament container such as a syringe within the body , wherein the carrier is movable from an initial position (IP) in a proximal direction (P) relative to the body , wherein at least one longitudinal rib (2.2) associated with the piston rod is arranged to engage the carrier , wherein at least the carrier comprises a resilient material adapted to be deformed by the engagement between the carrier and the at least one rib (2.2), wherein the container carrier is arranged within the body , wherein the piston rod is connected to the body and wherein the at least one rib (2.2) is arranged within the body in a manner to protrude in a radial inward direction, further comprising a sleeve movable within the body along a longitudinal axis so as to cover or expose an injection needle , wherein the rib (2.2) comprises a step (2.3) adapted to allow the carrier being moved until proximally abutting the step (2.3) without being deformed or with a lower extent of deformation and adapted to deform the carrier to a greater extent proximally from the step (2.3), wherein, when the sleeve is pushed against an injection site, the sleeve moves in the proximal direction (P) relative to the body against the force of a sleeve spring , wherein the container carrier remains in position within the body as it is stopped by the step (2.3) such that the needle is exposed, wherein, when the sleeve abuts the carrier , the needle has reached its insertion depth and further movement of the sleeve relative to the body in the proximal direction (P) increases the force on the carrier deforming it such that it overcomes the step (2.3) and starts moving relative to the body out of the initial position (IP) in the proximal direction (P). - a piston rod , - a body , - a container carrier for retaining a medicament container such as a syringe within the body , wherein the carrier is movable from an initial position (IP) in a proximal direction (P) relative to the body ,
A mold segment comprising a tread molding element for manufacturing a tire, wherein the tread molding element comprises a shell and an infill , the shell having i) a first wall with a negative tread pattern extending from its external surface for molding the tread, ii) a second wall opposed to the first wall, and iii) lateral walls ; wherein the infill is a fluid-permeable structure defining a fluid-permeable infill; and wherein at least one selected from a lateral wall and the second wall comprises at least one fluid passage passing through the lateral wall or the second wall and is fluidly connected to or is open to the fluid permeable infill, characterized in that the negative tread pattern comprises one or more of sipes, ribs and blades which are integral with the first wall, wherein at least one rib or blade is hollow and open to the internal surface of the first wall, and in that the mold segment comprises two transverse edges with transverse edge walls wherein one or both of the transverse edge walls have one or more openings to form a fluid passage intended for a fluid connection of the infill of said mold segment with the infill of another mold segment placed adjacently in a tire mold assembly being in a closed configuration.
A charging apparatus for charging a power tool or a battery pack adapted to the power tool, comprising: a housing formed with an accommodating space ; and a circuit board assembly disposed in the accommodating space and comprising a printed circuit board provided with a plurality of electronic elements; wherein output power of the charging apparatus is greater than or equal to 500 W and less than or equal to 2000 W, and a ratio of the output power of the charging apparatus to a volume of the charging apparatus is higher than or equal to 1.22 W/cm 3 and lower than or equal to 1.83 W/cm 3. characterized in that the charging apparatus further includes first elements disposed between the printed circuit board and the lower housing , wherein the first element is a sealant with a heat-conducting function and is used for transferring the heat on the circuit board assembly to the housing, and the thermal conductivity of the first element is greater than or equal to 1 W/(m·K). a housing formed with an accommodating space ; and a circuit board assembly disposed in the accommodating space and comprising a printed circuit board provided with a plurality of electronic elements; wherein output power of the charging apparatus is greater than or equal to 500 W and less than or equal to 2000 W, and a ratio of the output power of the charging apparatus to a volume of the charging apparatus is higher than or equal to 1.22 W/cm 3 and lower than or equal to 1.83 W/cm 3. characterized in that the charging apparatus further includes first elements disposed between the printed circuit board and the lower housing , wherein the first element is a sealant with a heat-conducting function and is used for transferring the heat on the circuit board assembly to the housing, and the thermal conductivity of the first element is greater than or equal to 1 W/(m·K).
A baling system configured to move over, collect, and bale a crop material, wherein a baling chamber receives a charge of crop material and contains a growing bale of crop material, and a plunger moves within the baling chamber in a reciprocating manner so as to compact the charge of crop material into the growing bale of crop material, the baling system comprising: left and right moveable doors which at least partly define a shape and dimension of the baling chamber and a shape and dimension of the growing bale of crop material; left and right tension cylinders configured to extend and retract in order to apply a force to the left and right moveable doors as the charge of crop material is compacted into the growing bale of crop material; characterised in that the left and right tension cylinders are configured to apply a substantially constant force to the left and right moveable doors ; the baling system further comprising: left and right transducers configured to measure a first length of the left tension cylinder and a second length of the right tension cylinder ; and an electronic control unit configured to receive the first and second lengths from the left and right transducers , and to communicate at least a relative difference between the first and second lengths for use in steering the baling system; wherein the first and second lengths being equal indicates the growing bale of crop material is substantially straight and the baling system should be steered straight, and wherein the first and second lengths being unequal indicates the growing bale is developing a curvature and the baling system should be steered in the direction of the left or right tension cylinder having a shorter length. left and right moveable doors which at least partly define a shape and dimension of the baling chamber and a shape and dimension of the growing bale of crop material; left and right tension cylinders configured to extend and retract in order to apply a force to the left and right moveable doors as the charge of crop material is compacted into the growing bale of crop material; left and right transducers configured to measure a first length of the left tension cylinder and a second length of the right tension cylinder ; and an electronic control unit configured to receive the first and second lengths from the left and right transducers , and to communicate at least a relative difference between the first and second lengths for use in steering the baling system; wherein the first and second lengths being equal indicates the growing bale of crop material is substantially straight and the baling system should be steered straight, and wherein the first and second lengths being unequal indicates the growing bale is developing a curvature and the baling system should be steered in the direction of the left or right tension cylinder having a shorter length.
A method for assembling at least a first element and a second element to form, once they have been assembled, an external horology component with an annular shape for a wearable device and in which the first and second elements are made of an electrically conductive material or in which the walls of the grooves are coated in an electrically conductive coating, the method comprising at least the steps of: a) making the first element in a first material forming a first annular arc; b) making the second element in a second material different to the first material, forming a second annular arc; c) arranging at least a first groove in the first element and at least a second groove in the second element; d) placing and holding the first element and the second element end-to-end by means of at least a third connecting element which is inserted and locked in the first and second grooves, the third element is inserted and locked in the first and second grooves, said method being characterised in that said operation in which said third element is inserted consists of filling the first and second grooves with a metal using an electroforming method, the first groove communicating with the second groove when both elements are end-to-end. a) making the first element in a first material forming a first annular arc; b) making the second element in a second material different to the first material, forming a second annular arc; c) arranging at least a first groove in the first element and at least a second groove in the second element; d) placing and holding the first element and the second element end-to-end by means of at least a third connecting element which is inserted and locked in the first and second grooves, the third element is inserted and locked in the first and second grooves, said method being characterised in that said operation in which said third element is inserted consists of filling the first and second grooves with a metal using an electroforming method, the first groove communicating with the second groove when both elements are end-to-end.
An apparatus for carrying out a catalytic gas-phase olefin polymerization comprising at least a first polymerization zone adapted and arranged for growing polymer particles to flow upward under fast fluidization or transport conditions and at least a second polymerization zone adapted and arranged for the growing polymer particles to flow downward; and a gas/solid separation zone having a cylindrical shape; wherein the second polymerization zone has an upper part being connected to the separation zone , a lower part being connected to the upper part and a line for feeding a gas and/or liquid into the second polymerization zone ; the first polymerization zone being connected to the separation zone by a connecting part ; the lower part of the second polymerization zone being connected to the lower part of the first polymerization zone by a connecting part ; wherein the ratio of the diameter D01 of the separation zone to the diameter D03 of the upper part of the second polymerization zone is 1.02 to 1.5, preferably 1.05 to 1.4, more preferably 1.08 to 1.3; wherein the ratio of the height H01 of the separation zone to the diameter D01 of the separation zone is 2.5 to 4.5, preferably 2.8 to 4.2, more preferably 2.9 to 4; and wherein the ratio of the diameter D03 of the upper part of the second polymerization zone to the diameter D04 of the lower part of the second polymerization zone is 12 to 2, preferably 1.3 to 1.8, more preferably 1.4 to 1.7. at least a first polymerization zone adapted and arranged for growing polymer particles to flow upward under fast fluidization or transport conditions and at least a second polymerization zone adapted and arranged for the growing polymer particles to flow downward; and a gas/solid separation zone having a cylindrical shape; wherein the second polymerization zone has an upper part being connected to the separation zone , a lower part being connected to the upper part and a line for feeding a gas and/or liquid into the second polymerization zone ; the first polymerization zone being connected to the separation zone by a connecting part ; the lower part of the second polymerization zone being connected to the lower part of the first polymerization zone by a connecting part ; wherein the ratio of the diameter D01 of the separation zone to the diameter D03 of the upper part of the second polymerization zone is 1.02 to 1.5, preferably 1.05 to 1.4, more preferably 1.08 to 1.3; wherein the ratio of the height H01 of the separation zone to the diameter D01 of the separation zone is 2.5 to 4.5, preferably 2.8 to 4.2, more preferably 2.9 to 4; and wherein the ratio of the diameter D03 of the upper part of the second polymerization zone to the diameter D04 of the lower part of the second polymerization zone is 12 to 2, preferably 1.3 to 1.8, more preferably 1.4 to 1.7.
A process for preparing a compound of formula (I) comprising contacting a compound of formula (II) in the gas phase with a solid catalyst comprising a boron containing zeolitic material comprising a membered ring (MR) pore system greater than 10 MR, wherein k is, independently from each other, 0, 1, 2 or 3; R 1 is, independently from each other, hydroxy, C 1 -C 6 alkoxy, di(C 1 -C 6 -alkyl) aminyl; wherein in the boron containing zeolitic material, the molar ratio of silicon, calculated as elemental silicon, relative to boron, calculated as elemental boron, is in the range of from 1:1 to 100:1. in the gas phase with a solid catalyst comprising a boron containing zeolitic material comprising a membered ring (MR) pore system greater than 10 MR, wherein k is, independently from each other, 0, 1, 2 or 3; R 1 is, independently from each other, hydroxy, C 1 -C 6 alkoxy, di(C 1 -C 6 -alkyl) aminyl; wherein in the boron containing zeolitic material, the molar ratio of silicon, calculated as elemental silicon, relative to boron, calculated as elemental boron, is in the range of from 1:1 to 100:1.