mhurhangee/patent-ind-claim-en huggingface dataset:
A powered threader device comprising: a frame assembly; a selectively releasable chuck assembly adapted for retaining and rotating a workpiece about a workpiece central axis; a selectively positionable die assembly for forming threads in the workpiece, the die assembly disposed on the frame assembly, characterized in that the die assembly includes a manual ratcheting threader die head using fixed chasers; and the threader device further comprises a brushless DC electric motor supported by the frame assembly, the motor providing a powered rotary output in engagement with the chuck assembly to thereby selectively rotate the workpiece. a frame assembly; a selectively releasable chuck assembly adapted for retaining and rotating a workpiece about a workpiece central axis; a selectively positionable die assembly for forming threads in the workpiece, the die assembly disposed on the frame assembly, characterized in that the die assembly includes a manual ratcheting threader die head using fixed chasers; and the threader device further comprises a brushless DC electric motor supported by the frame assembly, the motor providing a powered rotary output in engagement with the chuck assembly to thereby selectively rotate the workpiece.
A strain gauge comprising: a substrate formed of resin and having flexibility; a resistor formed as a film; a pair of wiring patterns electrically connected to both ends of the resistor ; and a pair of electrodes electrically connected to the pair of wiring patterns , respectively, wherein on the substrate , an electronic component mounting area is demarcated, on which an electronic component electrically connected to the electrodes is mounted, the strain gauge being characterized by further comprising a functional layer formed from a metal, an alloy, or a metal compound, directly on one surface of the substrate , wherein the resistor is formed as a film containing Cr, CrN, and Cr 2 N, on one surface of the functional layer , wherein the pair of wiring patterns is formed on the one surface of the functional layer , wherein the pair of electrodes is formed on the one surface of the functional layer , wherein the wiring patterns include a first layer extending from the resistor , and a second layer having a lower resistance than the first layer and layered on the first layer , and wherein the functional layer includes a material that allows for promotion of crystal growth of the resistor , and the crystal growth causes the film of the resistor formed with a main component to be formed. a substrate formed of resin and having flexibility; a resistor formed as a film; a pair of wiring patterns electrically connected to both ends of the resistor ; and a pair of electrodes electrically connected to the pair of wiring patterns , respectively, wherein on the substrate , an electronic component mounting area is demarcated, on which an electronic component electrically connected to the electrodes is mounted, the strain gauge being characterized by further comprising a functional layer formed from a metal, an alloy, or a metal compound, directly on one surface of the substrate , wherein the resistor is formed as a film containing Cr, CrN, and Cr 2 N, on one surface of the functional layer , wherein the pair of wiring patterns is formed on the one surface of the functional layer , wherein the pair of electrodes is formed on the one surface of the functional layer , wherein the wiring patterns include a first layer extending from the resistor , and a second layer having a lower resistance than the first layer and layered on the first layer , and wherein the functional layer includes a material that allows for promotion of crystal growth of the resistor , and the crystal growth causes the film of the resistor formed with a main component to be formed.
A work centre to process section bars made of aluminium, light alloys, PVC or the like comprising an elongated base extending in a first direction ; a plurality of crosspieces , each mounted on the base parallel to a second direction transverse to the first direction , movable along the base in the first direction and supporting at least one holding unit designed to hold at least one section bar made of aluminium, light alloys, PVC or the like; an actuator device to move the crosspieces along the base in the first direction ; and an overhead crane , which extends above the base in the second direction , is provided with an operating head to process the section bars and is movable along the base in the first direction ; and characterized in that the actuator device comprises two feeding conveyors , each mounted along the base parallel to the first direction and comprising a driving member wound in a ring shape about at least one pair of pulleys ; each crosspiece being provided with two fastening devices to fasten the crosspiece to the feeding conveyors .
A stator of an electric rotating machine, comprising a stator core including a plurality of slots , a stator winding including a neutral line and an output line (108U1 - 108W2), wherein the neutral line has a crawling portion that extends in a circumferential direction at an upper portion of a coil at a coil end and the neutral line has an acute-angle axially folded bent portion that turns by more than 90 degrees in the lead-out direction of the neutral line, the neutral line being led out from one axial end of the slot , and the crawling portion has an axially-bent stepped portion provided in the vicinity of the acute-angle axially folded bent portion ; wherein the output line (108U1 - 108W2) passes under the neutral line (300a - 300b) in the axial direction to slip under the neutral line (300a-300b) through a space generated under and between the acute-angle axially folded bent portion and the axially-bent stepped portion thus providing a sandwiching structure of the neutral line sandwiching the output line to restrict the movement of the output line during assembly, whereby the output line (108U1 - 108W2) is tacked without being fixed with thread or the like. a stator core including a plurality of slots , a stator winding including a neutral line and an output line (108U1 - 108W2), wherein the neutral line has a crawling portion that extends in a circumferential direction at an upper portion of a coil at a coil end and the neutral line has an acute-angle axially folded bent portion that turns by more than 90 degrees in the lead-out direction of the neutral line, the neutral line being led out from one axial end of the slot , and the crawling portion has an axially-bent stepped portion provided in the vicinity of the acute-angle axially folded bent portion ; wherein the output line (108U1 - 108W2) passes under the neutral line (300a - 300b) in the axial direction to slip under the neutral line (300a-300b) through a space generated under and between the acute-angle axially folded bent portion and the axially-bent stepped portion thus providing a sandwiching structure of the neutral line sandwiching the output line to restrict the movement of the output line during assembly, whereby the output line (108U1 - 108W2) is tacked without being fixed with thread or the like.
Crushing device with a comb system (I), wherein the crushing device consists of at least one crushing roller rotatably mounted in a machine frame with at least one crushing tool arranged thereon, wherein the crushing device has at least one counter-blade which cooperates with the crushing tool , the comb system (I) having at least one base comb (II) on which the at least one counter-blade is arranged and on which at least one screening element can be arranged as a component of a screening device , wherein the screening device during the intended use at least partially encloses the crushing roller and the screening element is resiliently mounted on the base comb (II) by means of a suspension , wherein the suspension is formed by at least one compression spring which is in the form of a spiral spring, characterized in that in in its core at least one cylindrical body made of an elastic material is arranged, and in that the cylindrical body is in the form of an elastomeric spring element, of which the external diameter corresponds to the internal diameter and/or to the core diameter of the compression spring .
A combustion device (C) comprising: a compressor configured to compress combustion air; a combustor configured to combust the compressed combustion air and fuel ammonia; and an ammonia injector configured to inject the fuel ammonia into the combustion air during compression of the combustion air by the compressor and to cool the combustion air, wherein the compressor includes a plurality of stator blades (2a1) and a plurality of rotor blades (2a2), and the plurality of stator blades (2a1) configures stator blade rows formed at intervals in a flow direction of the combustion air, and each of the stator blade rows is configured of stator blades (2a1) of the plurality of stator blades (2a1) that is annularly arranged, characterized in that injection holes (2a3) are provided in stator blades (2a1) configuring one of the stator blade rows, other stator blades (2a1), disposed upstream of the stator blades (2a1) provided with the injection holes (2a3) in the flow direction of the combustion air, are provided with flow passageways through which the fuel ammonia flows, are provided with no injection holes, and are configured such that the fuel ammonia is supplied thereinto and is collected without being injected, and the ammonia injector is configured to inject the collected fuel ammonia into the combustion air from the injection holes (2a3). a compressor configured to compress combustion air; a combustor configured to combust the compressed combustion air and fuel ammonia; and an ammonia injector configured to inject the fuel ammonia into the combustion air during compression of the combustion air by the compressor and to cool the combustion air, wherein the compressor includes a plurality of stator blades (2a1) and a plurality of rotor blades (2a2), and the plurality of stator blades (2a1) configures stator blade rows formed at intervals in a flow direction of the combustion air, and each of the stator blade rows is configured of stator blades (2a1) of the plurality of stator blades (2a1) that is annularly arranged, characterized in that injection holes (2a3) are provided in stator blades (2a1) configuring one of the stator blade rows, other stator blades (2a1), disposed upstream of the stator blades (2a1) provided with the injection holes (2a3) in the flow direction of the combustion air, are provided with flow passageways through which the fuel ammonia flows, are provided with no injection holes, and are configured such that the fuel ammonia is supplied thereinto and is collected without being injected, and
Method for manufacturing a fluid dispenser with the following features: a. the fluid dispenser has a fluid store and a delivery opening through which the fluid can be discharged to the environment in a delivery direction , and b. the fluid dispenser has a housing component through which the continuous delivery opening is made and which has a delivery structure forming the delivery opening and/or adjoining the delivery opening , for influencing a delivery characteristic, c. the housing component having the continuous delivery opening is manufactured in that firstly a base body is manufactured by plastic injection moulding in a casting mould and then, in the region of a provisional delivery structure of the base body , a mechanical force is applied to deform the provisional delivery structure and hence create a definitive delivery structure . a. the fluid dispenser has a fluid store and a delivery opening through which the fluid can be discharged to the environment in a delivery direction , and b. the fluid dispenser has a housing component through which the continuous delivery opening is made and which has a delivery structure forming the delivery opening and/or adjoining the delivery opening , for influencing a delivery characteristic, c. the housing component having the continuous delivery opening is manufactured in that firstly a base body is manufactured by plastic injection moulding in a casting mould and then, in the region of a provisional delivery structure of the base body , a mechanical force is applied to deform the provisional delivery structure and hence create a definitive delivery structure .
A denture base for a dental prosthesis, comprising: a dental arch form ; a plurality of tooth socket compartments recessed within the dental arch form , wherein one or more of the tooth socket compartments comprises a convex surface, the convex surface configured in a step-like structure characterized by a tread-like lingual-basal surface having a horizontal top section or surface and a riser-like buccal-basal surface having a vertical upright section or surface , such that the step-like structure projects from a lingual-facing side of the tooth socket compartment toward a buccal-facing side of the tooth socket compartment , and substantially traverses the width of the tooth socket compartment in a mesial-distal orientation; and one or more prominences projecting from the lingual-basal surface of the step-like structure, wherein the location of one or more prominences is selected from the group consisting of: a) the lingual-basal surface of the step-like structure, b) the lingual-basal surface of the step-like structure, and the buccal-basal surface of the step-like structure, c) both the lingual-basal surface and the buccal-basal surface of the step-like structure, wherein the one or more prominences extend in a continuous form over at least a portion of both the lingual-basal surface and the buccal-basal surface . a dental arch form ; a plurality of tooth socket compartments recessed within the dental arch form , wherein one or more of the tooth socket compartments comprises a convex surface, the convex surface configured in a step-like structure characterized by a tread-like lingual-basal surface having a horizontal top section or surface and a riser-like buccal-basal surface having a vertical upright section or surface , such that the step-like structure projects from a lingual-facing side of the tooth socket compartment toward a buccal-facing side of the tooth socket compartment , and substantially traverses the width of the tooth socket compartment in a mesial-distal orientation; and one or more prominences projecting from the lingual-basal surface of the step-like structure, wherein the location of one or more prominences is selected from the group consisting of: a) the lingual-basal surface of the step-like structure, b) the lingual-basal surface of the step-like structure, and the buccal-basal surface of the step-like structure, c) both the lingual-basal surface and the buccal-basal surface of the step-like structure, wherein the one or more prominences extend in a continuous form over at least a portion of both the lingual-basal surface and the buccal-basal surface . a) the lingual-basal surface of the step-like structure, b) the lingual-basal surface of the step-like structure, and the buccal-basal surface of the step-like structure, c) both the lingual-basal surface and the buccal-basal surface of the step-like structure, wherein the one or more prominences extend in a continuous form over at least a portion of both the lingual-basal surface and the buccal-basal surface .
A computer-implemented method for determining hydrocarbon accumulations in a subsurface structure of a reservoir, wherein the subsurface structure includes a plurality of grid cells, the method comprising: identifying , by a hardware processor , one of grid cells neighboring an accumulation as a recent back-filled grid cell, wherein each of the grid cells neighboring the accumulation are represented as a node in a binomial min-heap data structure ; setting, by the hardware processor , an oil phase potential of identified grid cell as an accumulation potential of the accumulation; comparing , by the hardware processor , oil phase potentials of grid cells neighboring the recent back-filled grid cell with the accumulation potential of the accumulation, wherein the oil phase potential of each of the grid cells neighboring the recent back-filled grid cell is stored as a key in the node corresponding to the respective grid cell; ending , by the hardware processor , the back-filling process, if there is a neighboring cell having a less oil phase potential than the accumulation potential of the accumulation; selecting , by the hardware processor , among the grid cells neighboring the accumulation, a grid cell having a least oil phase potential as a next back-filled grid cell, if none of the grid cells neighboring the accumulation has a less oil phase potential than the oil phase potential of the recent back-filled grid cell; and updating, by the hardware processor , the accumulation potential of the accumulation based on the oil phase potential of the selected grid cell. identifying , by a hardware processor , one of grid cells neighboring an accumulation as a recent back-filled grid cell, wherein each of the grid cells neighboring the accumulation are represented as a node in a binomial min-heap data structure ; setting, by the hardware processor , an oil phase potential of identified grid cell as an accumulation potential of the accumulation; comparing , by the hardware processor , oil phase potentials of grid cells neighboring the recent back-filled grid cell with the accumulation potential of the accumulation, wherein the oil phase potential of each of the grid cells neighboring the recent back-filled grid cell is stored as a key in the node corresponding to the respective grid cell; ending , by the hardware processor , the back-filling process, if there is a neighboring cell having a less oil phase potential than the accumulation potential of the accumulation; selecting , by the hardware processor , among the grid cells neighboring the accumulation, a grid cell having a least oil phase potential as a next back-filled grid cell, if none of the grid cells neighboring the accumulation has a less oil phase potential than the oil phase potential of the recent back-filled grid cell; and updating, by the hardware processor , the accumulation potential of the accumulation based on the oil phase potential of the selected grid cell.
A vehicle-sensitive sensor for a self-locking belt retractor , comprising - a ball-shaped sensor mass , - a sensor housing comprising a nest , in which the sensor mass is moveable and kept, and - a sensor lever comprising - a locking pawl which is adapted to engage in a steering disc of the belt retractor , - a resting pin which protrudes through the nest , and - a bearing portion , - wherein the bearing portion of the sensor lever is pivot-mounted at a bearing support of the sensor housing creating a pivot axis , - wherein the sensor lever is adapted to pivot about the pivot axis and to engage the locking pawl by force applied to the mass of the sensor lever at its center of gravity when the sensor mass is moved away from the resting pin , characterized in that - in a mounting position the sensor lever has two sections separated by a vertical plane through the pivot axis , wherein - a first section is on a first side of the vertical plane and a second section is on a second side opposite to the first side , wherein - the resting pin is in the first section of the sensor lever , and - the locking pawl and the center of gravity of the sensor lever are in the second section . - a ball-shaped sensor mass , - a sensor housing comprising a nest , in which the sensor mass is moveable and kept, and - a sensor lever comprising - a locking pawl which is adapted to engage in a steering disc of the belt retractor , - a resting pin which protrudes through the nest , and - a bearing portion , - a locking pawl which is adapted to engage in a steering disc of the belt retractor , - a resting pin which protrudes through the nest , and - a bearing portion , - wherein the bearing portion of the sensor lever is pivot-mounted at a bearing support of the sensor housing creating a pivot axis , - wherein the sensor lever is adapted to pivot about the pivot axis and to engage the locking pawl by force applied to the mass of the sensor lever at its center of gravity when the sensor mass is moved away from the resting pin , - in a mounting position the sensor lever has two sections separated by a vertical plane through the pivot axis , wherein - a first section is on a first side of the vertical plane and a second section is on a second side opposite to the first side , wherein - the resting pin is in the first section of the sensor lever , and - the locking pawl and the center of gravity of the sensor lever are in the second section .
A method for locating idle-state user equipment, UE, comprising: sending , by an access network device, a paging message to UE in a cell, wherein the paging message comprises read instruction information, and the read instruction information is used to instruct the UE in the cell to read a system message; and sending , by the access network device, the system message to the UE in the cell, ; and locating , by the access network device, the idle-state UE in the cell according to a location update process initiated by the idle-state UE in the cell characterized in that a cell location identifier in the system message is a preset location identifier, and the preset location identifier is used to trigger the UE in the cell to initiate the location update process. sending , by an access network device, a paging message to UE in a cell, wherein the paging message comprises read instruction information, and the read instruction information is used to instruct the UE in the cell to read a system message; and sending , by the access network device, the system message to the UE in the cell, ; and locating , by the access network device, the idle-state UE in the cell according to a location update process initiated by the idle-state UE in the cell characterized in that a cell location identifier in the system message is a preset location identifier, and the preset location identifier is used to trigger the UE in the cell to initiate the location update process.