mhurhangee/patent-ind-claim-en huggingface dataset:
Single axle drive , for a rail vehicle, - the single axle drive having a wheelset axle , and - the single axle drive comprising a motor , a motor housing which surrounds the motor , a transmission and a transmission housing which surrounds the transmission , - the transmission housing consisting of two transmission housing parts which bear against one another in a connecting plane , in which a longitudinal axis of the wheelset axle runs, and are connected releasably to one another, the transmission housing being supported by way of a first cannon box bearing on the wheelset axle , and the first cannon box bearing being arranged on the wheelset axle and being configured as an anti-friction bearing which runs in an annular manner around the wheelset axle , characterized in that a transmission housing part has a housing wall which is configured as an output-side motor bearing plate of the motor , which motor bearing plate receives an output-side motor shaft bearing . - the single axle drive having a wheelset axle , and - the single axle drive comprising a motor , a motor housing which surrounds the motor , a transmission and a transmission housing which surrounds the transmission , - the transmission housing consisting of two transmission housing parts which bear against one another in a connecting plane , in which a longitudinal axis of the wheelset axle runs, and are connected releasably to one another, the transmission housing being supported by way of a first cannon box bearing on the wheelset axle , and the first cannon box bearing being arranged on the wheelset axle and being configured as an anti-friction bearing which runs in an annular manner around the wheelset axle , characterized in that a transmission housing part has a housing wall which is configured as an output-side motor bearing plate of the motor , which motor bearing plate receives an output-side motor shaft bearing .
A bone reduction and fixation device comprising an elongated biplanar plate having an L-shaped profile along its length defined by a first plate and second plates in which the first and second plates each comprise one or more holes configured for receipt of bone-fixing screws , characterised in that the biplanar plate comprises two biplanar L-shaped end sections and a monoplanar central section and is defined by a continuous first plate and two end second plates , in which the first plate at the monoplanar central section has a thickness at least 30% greater than the thickness of the first plate at the L-shaped end sections , in which the central section comprises a central part of the first plate and no second plate, thus providing a lag window .
A method for repairing a rotor having an active part and shafts extending from the ends thereof, said active part having a rotor core with protruding fingers defining slots for conductors , retaining rings provided at ends of the active part , support blocks for the conductors at axial ends of the fingers fixed by screws , the fingers having holes for housing the screws , the method being characterised by : a) removing the retaining rings , b) removing a first screw and at least a first support block from a first finger , c) drilling a first hole to increase the diameter thereof, d) providing a plug into said first hole , connecting said first or a different support block to the first finger , e) repeating steps b) to d) for all holes that need repairing, and f) replacing the retaining rings . retaining rings provided at ends of the active part , support blocks for the conductors at axial ends of the fingers fixed by screws , the fingers having holes for housing the screws , the method being characterised by : a) removing the retaining rings , b) removing a first screw and at least a first support block from a first finger , c) drilling a first hole to increase the diameter thereof, d) providing a plug into said first hole , connecting said first or a different support block to the first finger , e) repeating steps b) to d) for all holes that need repairing, and f) replacing the retaining rings . a) removing the retaining rings , b) removing a first screw and at least a first support block from a first finger , c) drilling a first hole to increase the diameter thereof, d) providing a plug into said first hole , connecting said first or a different support block to the first finger , e) repeating steps b) to d) for all holes that need repairing, and f) replacing the retaining rings .
A method for making a reinforcement mesh for use in concrete structures, said mesh comprising reinforcement bars, which are held together by two wires so as to form a mesh comprising held bars at a desired mutual distance, the method comprising: a) providing two wires each rolled up on their respective coils , which are mounted diametrically opposite each other on a rotatable shaft with a wire guide element secured to the shaft at each coil ; b) inserting a reinforcement bar between said wires , such that said two wires extend respectively above and below said reinforcement bar ; c) forming a spacer of said wires by rotation of the shaft , said spacer comprising twisting said wires around said reinforcement bar , which is thereby kept in the position as said wires are clamped around it; wherein said wire guide elements are extending at an oblique angle toward the twisting point of the wires for uniform positioning of the wires during the twisting operation. a) providing two wires each rolled up on their respective coils , which are mounted diametrically opposite each other on a rotatable shaft with a wire guide element secured to the shaft at each coil ; b) inserting a reinforcement bar between said wires , such that said two wires extend respectively above and below said reinforcement bar ; c) forming a spacer of said wires by rotation of the shaft , said spacer comprising twisting said wires around said reinforcement bar , which is thereby kept in the position as said wires are clamped around it;
A device , for insertion into an ear canal of a mammalian subject, comprising: a body , having a sound path extending therethrough; characterised by : a tensioned membrane (10;100;200;300;400;500;600) in the sound path comprising at least one corrugation ; and an adjustable member arranged to bear against the membrane to adjust the tension of the membrane and thereby to alter an acoustic response of the sound path. a body , having a sound path extending therethrough; characterised by : a tensioned membrane (10;100;200;300;400;500;600) in the sound path comprising at least one corrugation ; and an adjustable member arranged to bear against the membrane to adjust the tension of the membrane and thereby to alter an acoustic response of the sound path. a tensioned membrane (10;100;200;300;400;500;600) in the sound path comprising at least one corrugation ; and an adjustable member arranged to bear against the membrane to adjust the tension of the membrane and thereby to alter an acoustic response of the sound path.
An electronic device, comprising: a battery ; a charging circuit electrically connected to the battery ; a first connector ; a second connector ; a first switch configured to electrically connect the first connector to the charging circuit or to open an electrical connection between the first connector and the charging circuit ; a second switch configured to electrically connect the second connector to the charging circuit or to open an electrical connection between the second connector and the charging circuit ; a first control circuit configured to control the first switch to electrically connect the first connector to the charging circuit and to control the second switch to open the electrical connection between the second connector and the charging circuit based on first power supplied by a first external electronic device through the first connector ; and a second control circuit configured to at least partially control the second switch to electrically connect the second connector to the charging circuit based at least in part on second power supplied by a second external electronic device through the second connector . a battery ; a charging circuit electrically connected to the battery ; a first connector ; a second connector ; a first switch configured to electrically connect the first connector to the charging circuit or to open an electrical connection between the first connector and the charging circuit ; a second switch configured to electrically connect the second connector to the charging circuit or to open an electrical connection between the second connector and the charging circuit ; a first control circuit configured to control the first switch to electrically connect the first connector to the charging circuit and to control the second switch to open the electrical connection between the second connector and the charging circuit based on first power supplied by a first external electronic device through the first connector ; and a second control circuit configured to at least partially control the second switch to electrically connect the second connector to the charging circuit based at least in part on second power supplied by a second external electronic device through the second connector .
An intake system for a fan module within a computer system, the intake system comprising: at least one remote intake (210, 410, 610, 710-1,710-2, 810) having: a remote inlet (212, 412, 712-1, 712-2, 812)configured to intake air from around an element that is within the computer system and outside of an intake path of the fan module ; a remote outlet (214, 414, 614, 714-1 , 714-2, 814) configured to discharge the air from the remote inlet (212, 412, 712-1, 712-2, 812) into the intake path of the fan module ; and a remote conduit (216, 416, 616, 716-1, 716-2, 816) configured to transport the air from the remote inlet (212, 412, 712-1, 712-2, 812) to the remote outlet (214, 414, 614, 714-1, 714-2, 814), characterized by further comprising: a cowling positioned in line with the intake path of the fan module , wherein the cowling is configured to direct air into the fan module . a remote inlet (212, 412, 712-1, 712-2, 812)configured to intake air from around an element that is within the computer system and outside of an intake path of the fan module ; a remote outlet (214, 414, 614, 714-1 , 714-2, 814) configured to discharge the air from the remote inlet (212, 412, 712-1, 712-2, 812) into the intake path of the fan module ; and a remote conduit (216, 416, 616, 716-1, 716-2, 816) configured to transport the air from the remote inlet (212, 412, 712-1, 712-2, 812) to the remote outlet (214, 414, 614, 714-1, 714-2, 814), characterized by further comprising: a cowling positioned in line with the intake path of the fan module , wherein the cowling is configured to direct air into the fan module .
At least one machine-readable storage device for use in connection with a computing device for scheduling workload submissions for a graphics processing unit , GPU, the computing device comprising a virtualization service to establish a virtualization environment comprising a plurality of virtual machines wherein each of the virtual machines comprises a graphics driver to communicate with the GPU, and a plurality of command buffers to store GPU commands, wherein the GPU has a first render engine and a second render engine capable of executing commands from the command buffers in parallel with each other, the at least one machine-readable storage device comprising instructions that, when executed, cause at least one processor to at least: populate a first command buffer of a first VM of the plurality of VMs with a first GPU command; populate a second command buffer of the first VM with a second GPU command, wherein the first and second command buffers are embodied as ring buffers; associate the second GPU command with a synchronization primitive in the second command buffer; set a flag for the second command buffer in response to determining the presence of the synchronization primitive, to switch from a per-ring scheduling policy to a gang scheduling policy if the flag is set; cause the first render engine to execute the first GPU command; and execute a wait operation in accordance with the synchronization primitive to cause the second render engine to execute the second GPU command after the first render engine has completed the execution of the first GPU command to serialize execution of the first and second GPU commands. populate a first command buffer of a first VM of the plurality of VMs with a first GPU command; populate a second command buffer of the first VM with a second GPU command, wherein the first and second command buffers are embodied as ring buffers; associate the second GPU command with a synchronization primitive in the second command buffer; set a flag for the second command buffer in response to determining the presence of the synchronization primitive, to switch from a per-ring scheduling policy to a gang scheduling policy if the flag is set; cause the first render engine to execute the first GPU command; and execute a wait operation in accordance with the synchronization primitive to cause the second render engine to execute the second GPU command after the first render engine has completed the execution of the first GPU command to serialize execution of the first and second GPU commands.
A zoom lens comprising, in order from an object side to an image side: a first lens unit (LI) having a positive refractive power; a plurality of zooming lens units configured to move along an optical axis in zooming and including a lens unit having a negative refractive power; and a final lens unit having a positive refractive power, wherein a distance between each pair of adjacent lens units changes in zooming, wherein the first lens unit includes, in order from the object side to the image side, a first subunit (L1 1) having a negative refractive power, a second subunit (L12) having a negative refractive power, and at least one subsequent subunit (L1R), a distance between each pair of adjacent subunits changing for focusing, wherein the second subunit is configured to move along the optical axis for focusing, wherein the zoom lens comprises an aperture stop (SP) disposed between a lens unit closest to the object side in the plurality of zooming lens units, and the final lens unit, the aperture stop (SP) being configured to move along the optical axis in zooming, characterized in that the following inequalities are satisfied: 0.20 < f1R / f1 < 1.10 − 0.60 < β 12 / β 1 R < 0.00 where f1R is a focal length of the at least one subsequent subunit in an in-focus state at infinity, f1 is a focal length of the first lens unit in the in-focus state at infinity, β12 is a lateral magnification of the second subunit in the in-focus state at infinity, and β1R is a lateral magnification of the at least one subsequent subunit in the in-focus state at infinity. a first lens unit (LI) having a positive refractive power; a plurality of zooming lens units configured to move along an optical axis in zooming and including a lens unit having a negative refractive power; and a final lens unit having a positive refractive power, wherein a distance between each pair of adjacent lens units changes in zooming, wherein the first lens unit includes, in order from the object side to the image side, a first subunit (L1 1) having a negative refractive power, a second subunit (L12) having a negative refractive power, and at least one subsequent subunit (L1R), a distance between each pair of adjacent subunits changing for focusing, wherein the second subunit is configured to move along the optical axis for focusing, wherein the zoom lens comprises an aperture stop (SP) disposed between a lens unit closest to the object side in the plurality of zooming lens units, and the final lens unit, the aperture stop (SP) being configured to move along the optical axis in zooming, characterized in that the following inequalities are satisfied: 0.20 < f1R / f1 < 1.10 − 0.60 < β 12 / β 1 R < 0.00 where f1R is a focal length of the at least one subsequent subunit in an in-focus state at infinity, f1 is a focal length of the first lens unit in the in-focus state at infinity, β12 is a lateral magnification of the second subunit in the in-focus state at infinity, and β1R is a lateral magnification of the at least one subsequent subunit in the in-focus state at infinity.
A continuous process for the preparation of: compound of formula (II) or formula (III); wherein; R is -OEt; R 2 is hydrogen ; or 2,4-di-tert-butyl-5-(4-oxo-1,4-dihydroquinoline-3-carboxamido)phenylmethyl carbonate; the continuous process comprising the steps of: a) passing an O 3 stream to a T-junction containing indole-3-acetic acid ester selected from ethyl 2-(1H-indol-3-yl)acetate or 5-(2-(1H-indol-3-yl)acetamido)-2,4-di-tert-butylphenyl methyl carbonate , in solvent at temperature in the range of 0 to 5 °C in continuous flow reactor; b) pumping the reaction mixture in to a continuous stirred tank reactor containing solvent followed by pumping the reaction mixture to a continuous layer separator for separation of two phases; c) pumping the solvent layer to another T-junction containing DMF-DMA in solvent followed by pumping in continuous flow reactor to maintain the residence time in the range of 35 to 45 min to afford the compound of formula (II) or the 2,4-di-tert-butyl-5-(4-oxo-1,4-dihydroquinoline-3-carboxamido)phenylmethyl carbonate. R is -OEt; R 2 is hydrogen ; or 2,4-di-tert-butyl-5-(4-oxo-1,4-dihydroquinoline-3-carboxamido)phenylmethyl carbonate; a) passing an O 3 stream to a T-junction containing indole-3-acetic acid ester selected from ethyl 2-(1H-indol-3-yl)acetate or 5-(2-(1H-indol-3-yl)acetamido)-2,4-di-tert-butylphenyl methyl carbonate , in solvent at temperature in the range of 0 to 5 °C in continuous flow reactor; b) pumping the reaction mixture in to a continuous stirred tank reactor containing solvent followed by pumping the reaction mixture to a continuous layer separator for separation of two phases; c) pumping the solvent layer to another T-junction containing DMF-DMA in solvent followed by pumping in continuous flow reactor to maintain the residence time in the range of 35 to 45 min to afford the compound of formula (II) or the 2,4-di-tert-butyl-5-(4-oxo-1,4-dihydroquinoline-3-carboxamido)phenylmethyl carbonate.
A wireless communication system that forms a communication network using a plurality of communication terminals, wherein the plurality of communication terminals include a master unit , a plurality of slave units connected to the master unit and constituting the communication network and a plurality of information acquiring devices acquiring predetermined information and connected to the plurality of slave units , the master unit and the plurality of slave units communicate with each other according to a communication schedule divided into a plurality of time slots, each of the plurality of slave units is assigned with a specific time slot in the plurality of time slots, the master unit communicates, in the specific time slot, with one of the slave units corresponding to the specific time slot according to the communication schedule, in the specific time slot assigned to the slave unit that communicates with the master unit through another slave unit , communication between the master unit and the slave unit is performed through the another slave unit , each of the slave units includes a communication controller that switches a state between an active state and a sleep state with a smaller power consumption than that in the active state, communicates with at least the master unit , another slave unit or one of the plurality of information acquiring devices in the active state, temporarily stores the information acquired by communicating with the one of the plurality of information acquiring devices, , and transmits the stored information to the higher-layer communication terminal in the specific time slot, and a slot determiner that determines arrival of the specific time slot and arrival of a relay time slot, the relay time slot being a time slot assigned to another lower-layer slave unit , the communication controller changes to the active state and performs a predetermined communication process if the slot determiner determines arrival of the specific time slot, and changes to the active state and performs a communication relay process between the lower-layer slave unit and another higher-layer slave unit if the slot determiner determines arrival of the relay time slot, and each of the plurality of information acquiring devices switches a state between an active state and a sleep state with a smaller power consumption than that in the active state, changes to the active state in accordance with the specific time slot of the slave unit connected to the each of the plurality of information acquiring devices and transmits the information to the slave unit , and changes to the sleep state after completion of transmission of the information to the slave unit .
A method for managing a location of a mission critical, MC, client in a wireless network , comprising: receiving , from a location management server, LMS , a location reporting configuration request containingatriggering criteria associated with a change of 3rd generation partnership project, 3GPP, access network related location information; sending , to a MC gateway UE from which the MC client gets MC access, a MC gateway, GW, location reporting configuration request containing the triggering criteria based on the location information request; receiving , from the MC gateway UE , a MC GW location information report containing location information requested by the MC client ; updating locally available location information with the location information received from the MC gateway UE ; and sending, to the LMS , a location information report including the updated locally available location information, wherein the MC client resides on a non-3GPP device. receiving , from a location management server, LMS , a location reporting configuration request containingatriggering criteria associated with a change of 3rd generation partnership project, 3GPP, access network related location information; sending , to a MC gateway UE from which the MC client gets MC access, a MC gateway, GW, location reporting configuration request containing the triggering criteria based on the location information request; receiving , from the MC gateway UE , a MC GW location information report containing location information requested by the MC client ; updating locally available location information with the location information received from the MC gateway UE ; and sending, to the LMS , a location information report including the updated locally available location information, wherein the MC client resides on a non-3GPP device.