mhurhangee/patent-ind-claim-en huggingface dataset:
Device for the additive production of three-dimensional objects by successive layer-by-layer selective exposure and concomitant successive layer-by-layer selective solidification of building material layers from a building material solidifiable by means of laser radiation in a processing chamber on the device side, comprising an illuminating device which is set up to generate laser radiation for the selective exposure and concomitant selective solidification of respective building material layers, comprising a detection device comprising at least one detection element , which, in order to increase the safety of the apparatus , is set up to detect the penetration of reflected secondary radiation into a process chamber boundary element bounding the process chamber at least in sections and/or to detect the penetration of reflected secondary radiation through a process chamber boundary element bounding the process chamber at least in sections, wherein the at least one detection element is arranged or formed on or in a process chamber boundary element, characterized in that the at least one detection element is arranged or formed in a process chamber boundary element having, at least in sections, a multilayer structure, it being arranged or formed as an intermediate layer between two outer layers of the process chamber boundary element in the process chamber boundary element, or in that the at least one detection element is arranged or formed on or in a support structure arranged as a separate component group on or in a process chamber delimiting element and having a multilayer structure, the at least one detection element being arranged or formed as an intermediate layer between two outer layers of the support structure in the support structure . a detection device comprising at least one detection element , which, in order to increase the safety of the apparatus , is set up to detect the penetration of reflected secondary radiation into a process chamber boundary element bounding the process chamber at least in sections and/or to detect the penetration of reflected secondary radiation through a process chamber boundary element bounding the process chamber at least in sections, wherein the at least one detection element is arranged or formed on or in a process chamber boundary element, characterized in that the at least one detection element is arranged or formed in a process chamber boundary element having, at least in sections, a multilayer structure, it being arranged or formed as an intermediate layer between two outer layers of the process chamber boundary element in the process chamber boundary element, or in that the at least one detection element is arranged or formed on or in a support structure arranged as a separate component group on or in a process chamber delimiting element and having a multilayer structure, the at least one detection element being arranged or formed as an intermediate layer between two outer layers of the support structure in the support structure .
An assembled battery comprising: a case which retains a plurality of single batteries arranged side by side and each provided with a positive electrode terminal and a negative electrode terminal on one surface; an insulation cover which covers one surface side of the plurality of single batteries retained in the case ; a bus bar which electrically connects the terminals adjacent to each other of the plurality of single batteries and is exposed from the insulation cover ; and a circuit board which is fixed to the case and is disposed above the insulation cover , wherein an elastic contact member is attached to a back surface of the circuit board facing the insulation cover so as to be brought into pressure contact with the bus bar by fixing the circuit board to the case , and a support member is provided on the insulation cover or the bus bar so as to be in contact with a front surface of the circuit board on an opposite side of the back surface of the circuit board to support the circuit board . a case which retains a plurality of single batteries arranged side by side and each provided with a positive electrode terminal and a negative electrode terminal on one surface; an insulation cover which covers one surface side of the plurality of single batteries retained in the case ; a bus bar which electrically connects the terminals adjacent to each other of the plurality of single batteries and is exposed from the insulation cover ; and a circuit board which is fixed to the case and is disposed above the insulation cover , wherein an elastic contact member is attached to a back surface of the circuit board facing the insulation cover so as to be brought into pressure contact with the bus bar by fixing the circuit board to the case , and a support member is provided on the insulation cover or the bus bar so as to be in contact with a front surface of the circuit board on an opposite side of the back surface of the circuit board to support the circuit board .
An antenna for an electronic device , the antenna comprising: a carrier including a via hole ; a first antenna radiator formed on an outer surface of the carrier; a second antenna radiator formed on an inner surface of the carrier; and wherein the first antenna radiator further extends along the surface of the carrier that defines the via hole and wherein the second antenna radiator electrically contacts the first antenna radiator through the via hole, or wherein the second antenna radiator further extends along the surface of the carrier that defines the via hole and wherein the first antenna radiator electrically contacts the second antenna radiator through the via hole; wherein the first antenna radiator is formed as a direct printed antenna, DPA, radiator, and wherein the second antenna radiator is either formed as a laser direct structuring, LDS, antenna radiator, or the second antenna radiator is formed by a process of thermally fusing a punched pattern of the second antenna radiator in the carrier; the antenna further comprising a coupling member configured to electrically connect the second antenna radiator with a circuit board of the electronic device. a carrier including a via hole ; a first antenna radiator formed on an outer surface of the carrier; a second antenna radiator formed on an inner surface of the carrier; and wherein the first antenna radiator further extends along the surface of the carrier that defines the via hole and wherein the second antenna radiator electrically contacts the first antenna radiator through the via hole, or wherein the second antenna radiator further extends along the surface of the carrier that defines the via hole and wherein the first antenna radiator electrically contacts the second antenna radiator through the via hole; wherein the first antenna radiator is formed as a direct printed antenna, DPA, radiator, and wherein the second antenna radiator is either formed as a laser direct structuring, LDS, antenna radiator, or the second antenna radiator is formed by a process of thermally fusing a punched pattern of the second antenna radiator in the carrier; the antenna further comprising a coupling member configured to electrically connect the second antenna radiator with a circuit board of the electronic device.
A combustion system for use with a cooling flow, comprising: a head end ; an aft end ; a transition nozzle extending from the head end to the aft end ; an impingement sleeve surrounding the transition nozzle and defining a first cavity in communication with the head end for a first portion of the cooling flow and a second cavity in communication with the aft end for a second portion of the cooling flow ; wherein the impingement sleeve comprises a splitter rail ; wherein the splitter rail divides the first cavity and the second cavity, wherein the first portion of the cooling flow is provided to the head end through the first cavity and is used to charge a flow of combustion gases; and a plurality of cooling holes positioned about a near-choked flow region of the transition nozzle and in communication with the second portion of the cooling flow , wherein the second portion of the cooling flow is directed to the aft end in the second cavity and is in communication with the cooling holes; and characterized in that : the transition nozzle comprises an integrated liner , a transition piece and a first stage nozzle vane ; and the second portion of the cooling flow is provided to the aft end through the second cavity and is used for film cooling. a head end ; an aft end ; a transition nozzle extending from the head end to the aft end ; an impingement sleeve surrounding the transition nozzle and defining a first cavity in communication with the head end for a first portion of the cooling flow and a second cavity in communication with the aft end for a second portion of the cooling flow ; wherein the impingement sleeve comprises a splitter rail ; wherein the splitter rail divides the first cavity and the second cavity, wherein the first portion of the cooling flow is provided to the head end through the first cavity and is used to charge a flow of combustion gases; and a plurality of cooling holes positioned about a near-choked flow region of the transition nozzle and in communication with the second portion of the cooling flow , wherein the second portion of the cooling flow is directed to the aft end in the second cavity and is in communication with the cooling holes; and characterized in that : the transition nozzle comprises an integrated liner , a transition piece and a first stage nozzle vane ; and the second portion of the cooling flow is provided to the aft end through the second cavity and is used for film cooling. the transition nozzle comprises an integrated liner , a transition piece and a first stage nozzle vane ; and the second portion of the cooling flow is provided to the aft end through the second cavity and is used for film cooling.
A coordinated-spatial reuse, in the following also referred to as CO-SR, transmission method, comprising: transmitting (S810), by a transceiver of a sharing access point, AP, an announcement frame to a shared AP; receiving (S820), by the transceiver, a first block acknowledgement, BA, frame from a first station, STA, associated with the sharing AP; and transmitting (S830), by the transceiver, a dummy clear-to-send, CTS, frame before transmitting a next announcement frame in response to the first STA being a first legacy STA. transmitting (S810), by a transceiver of a sharing access point, AP, an announcement frame to a shared AP; receiving (S820), by the transceiver, a first block acknowledgement, BA, frame from a first station, STA, associated with the sharing AP; and transmitting (S830), by the transceiver, a dummy clear-to-send, CTS, frame before transmitting a next announcement frame in response to the first STA being a first legacy STA.
An aerial work platform comprising a people-holding cage ; and a lifting unit for lifting the cage ; the lifting unit comprising a telescopic arm comprising, in turn, a first section bar , a second section bar fitted inside the first section bar and movable between a retracted position and an extracted position, a third section bar fitted inside the second section bar and movable between a retracted position and an extracted position, a fourth section bar fitted inside the third section bar and movable between a retracted position and an extracted position, an actuator cylinder to move the second section bar between its extracted and retracted positions, a first rope operating system fitted inside the telescopic arm to move the third section bar between its extracted and retracted positions, a second rope operating system fitted inside the telescopic arm to move the fourth section bar between its extracted and retracted positions, and at least one pipe to feed an operating fluid along the telescopic arm ; the pipe comprising a first flexible segment to feed the operating fluid from the first section bar to the third section bar and a second flexible segment to feed the operating fluid from the third section bar to the fourth section bar ; wherein the first flexible segment is fitted inside the telescopic arm , extends inside a hollow space defined between the first section bar and the second section bar and projects into the second section bar to be connected to the third section bar ; and wherein the second flexible segment is fitted inside the telescopic arm and extends inside said third and fourth section bars ; and characterized in that the actuator cylinder is fitted inside the telescopic arm and in that the telescopic arm further comprises a guide device to control the position of the first flexible segment during the movement of said second and third section bars between the respective extracted positions and the respective retracted positions; the guide device comprising at least one pulley , which is mounted on the second section bar ; the first flexible segment being wound around the pulley .
A method for generation of integrated test scenarios for software testing, the method comprising: creating , by a computing device , a test process model comprising a plurality of processes and one or more interaction paths amongst the plurality of processes based on process information, wherein an interaction path between two processes from the plurality of processes define a flow between the two processes; identifying , by the computing device , a plurality of test scenarios based on an analysis of the plurality of processes and the one or more interaction paths amongst the plurality of processes, wherein each of the plurality of test scenarios comprises a unique process flow path comprising at least one of the plurality of processes and at least one of the one or more interaction paths; assigning, by the computing device , a risk weight and a criticality weight to each process covered in the plurality of test scenarios based on predefined criteria pertaining to the number or occurrences of said process in each of the plurality of test scenarios; determining , by the computing device , a risk weight and a criticality weight associated with each of the plurality of test scenarios by computing an average of risk weight and an average of criticality weight assigned to each process in said each of the plurality of test scenarios; and identifying , by the computing device , at least one test scenario from the plurality of test scenarios based on a comparison of the risk weight and the criticality weight determined for each of the plurality of test scenarios with an associated threshold weight. creating , by a computing device , a test process model comprising a plurality of processes and one or more interaction paths amongst the plurality of processes based on process information, wherein an interaction path between two processes from the plurality of processes define a flow between the two processes; identifying , by the computing device , a plurality of test scenarios based on an analysis of the plurality of processes and the one or more interaction paths amongst the plurality of processes, wherein each of the plurality of test scenarios comprises a unique process flow path comprising at least one of the plurality of processes and at least one of the one or more interaction paths; assigning, by the computing device , a risk weight and a criticality weight to each process covered in the plurality of test scenarios based on predefined criteria pertaining to the number or occurrences of said process in each of the plurality of test scenarios; determining , by the computing device , a risk weight and a criticality weight associated with each of the plurality of test scenarios by computing an average of risk weight and an average of criticality weight assigned to each process in said each of the plurality of test scenarios; and identifying , by the computing device , at least one test scenario from the plurality of test scenarios based on a comparison of the risk weight and the criticality weight determined for each of the plurality of test scenarios with an associated threshold weight.
A driving apparatus in which a position of a rotating shaft of an electric motor in an axis direction is determined, the driving apparatus comprising: a positioning member which determines a position of the rotating shaft in the axis direction, and a terminal holder which holds a first terminal for supplying an electric current to the electric motor , a gear case in which the rotating shaft is housed, wherein a layout region of the positioning member in the axis direction and a layout region of the terminal holder in the axis direction are overlapped with each other, characterized in that the driving apparatus further comprises: a control board having installed thereon electric parts which control the electric motor , and a second terminal attached to the control board and connected to the first terminal , wherein at least, either one of a mount which protrudes from an inner surface of the gear case and a plate portion of the positioning member constitutes a load receiving mechanism configured to support the terminal holder by receiving a load which is applied to the terminal holder , when the first terminal and the second terminal are connected to each other at the terminal holder .
A cam driven compressor comprising: a) a housing having a first block half attached to a second block half and defining a sealed cavity therebetween, the housing including a central bore ; b) a cam rotatably mounted on a camshaft, the camshaft extending through said housing bore and including a shaft sleeve configured to create an airtight seal between the camshaft and the housing and sealed cavity; c) a plurality of cylinder and piston assemblies wherein each said cylinder and piston assembly comprises a piston and inter-stage seal located and movable within a respective cylinder, each cylinder having a cylinder head defining a compression chamber between the cylinder head and the piston, the compression chamber sealed from said sealed cavity by said inter-stage seal; and d) a plurality of cam follower assemblies, wherein a respective cam follower assembly is coupled to a respective piston and cylinder assembly, wherein a gas enters into a first cylinder and piston assembly via an inlet port , whereby rotation of said cam is operable to sequentially reciprocate each of said respective cam follower assemblies and its respective piston and cylinder assembly to pressurize the gas within its respective compression chamber, wherein the sealed cavity is pressurized from leakage of the gas between a respective inter-stage seal and cylinder from the compression chamber of one or more of the cylinders. a) a housing having a first block half attached to a second block half and defining a sealed cavity therebetween, the housing including a central bore ; b) a cam rotatably mounted on a camshaft, the camshaft extending through said housing bore and including a shaft sleeve configured to create an airtight seal between the camshaft and the housing and sealed cavity; c) a plurality of cylinder and piston assemblies wherein each said cylinder and piston assembly comprises a piston and inter-stage seal located and movable within a respective cylinder, each cylinder having a cylinder head defining a compression chamber between the cylinder head and the piston, the compression chamber sealed from said sealed cavity by said inter-stage seal; and d) a plurality of cam follower assemblies, wherein a respective cam follower assembly is coupled to a respective piston and cylinder assembly,
A bladder for an article of footwear , comprising: a first sheet ; and a second sheet , wherein a first side of the first sheet faces a second side of the second sheet, wherein the first sheet and the second sheet are bonded together to form an internal cavity in a space between the first side of the first sheet and the second side of the second sheet, wherein the bond extends around at least a portion of a perimeter of the internal cavity, and includes one or more apertures capable of admitting a gas to the internal cavity, forming an open cavity; or wherein the bond is contiguous around an entire perimeter of the internal cavity, forming a sealed bladder capable of retaining a gas in the internal cavity at a pressure above atmospheric pressure, at atmospheric pressure, or below atmospheric pressure; and wherein the first sheet, or the second sheet, or each of the first sheet and the second sheet, comprise a multi-layered film including a core region comprising at least 20 gas-barrier layers and a plurality of elastomeric layers , wherein the gas-barrier layers alternate with the elastomeric layers, wherein each of the gas-barrier layers has an average thickness of less than or equal to 0.75 micrometers and comprises at least one gas-barrier material, and wherein each of the elastomeric layers comprises at least one elastomeric material, and wherein the core region has an average total thickness of less than 200 micrometers. a first sheet ; and a second sheet , wherein a first side of the first sheet faces a second side of the second sheet, wherein the first sheet and the second sheet are bonded together to form an internal cavity in a space between the first side of the first sheet and the second side of the second sheet, wherein the bond extends around at least a portion of a perimeter of the internal cavity, and includes one or more apertures capable of admitting a gas to the internal cavity, forming an open cavity; or wherein the bond is contiguous around an entire perimeter of the internal cavity, forming a sealed bladder capable of retaining a gas in the internal cavity at a pressure above atmospheric pressure, at atmospheric pressure, or below atmospheric pressure; and wherein the first sheet, or the second sheet, or each of the first sheet and the second sheet, comprise a multi-layered film including a core region comprising at least 20 gas-barrier layers and a plurality of elastomeric layers , wherein the gas-barrier layers alternate with the elastomeric layers, wherein each of the gas-barrier layers has an average thickness of less than or equal to 0.75 micrometers and comprises at least one gas-barrier material, and wherein each of the elastomeric layers comprises at least one elastomeric material, and wherein the core region has an average total thickness of less than 200 micrometers.
A compound represented by the following Formula 1: in Formula 1, R 1 is a monovalent hydrocarbon group of 1 to 20 carbon atoms; or a monovalent hydrocarbon group of 1 to 20 carbon atoms, including one or more heteroatoms selected from the group consisting of N, S and O, R 2 is a divalent hydrocarbon group of 1 to 20 carbon atoms, which is unsubstituted or substituted with one or more substituents selected from the group consisting of an alkyl group of 1 to 20 carbon atoms, a cycloalkyl group of 3 to 20 carbon atoms and an aryl group of 6 to 30 carbon atoms; or a divalent hydrocarbon group of 1 to 20 carbon atoms, including one or more heteroatoms selected from the group consisting of N, S and O, and R 3 and R 4 are connected with each other to form an aliphatic hydrocarbon ring of 5 to 20 carbon atoms. R 1 is a monovalent hydrocarbon group of 1 to 20 carbon atoms; or a monovalent hydrocarbon group of 1 to 20 carbon atoms, including one or more heteroatoms selected from the group consisting of N, S and O, R 2 is a divalent hydrocarbon group of 1 to 20 carbon atoms, which is unsubstituted or substituted with one or more substituents selected from the group consisting of an alkyl group of 1 to 20 carbon atoms, a cycloalkyl group of 3 to 20 carbon atoms and an aryl group of 6 to 30 carbon atoms; or a divalent hydrocarbon group of 1 to 20 carbon atoms, including one or more heteroatoms selected from the group consisting of N, S and O, and R 3 and R 4 are connected with each other to form an aliphatic hydrocarbon ring of 5 to 20 carbon atoms.