mhurhangee/ep-ind-claims huggingface dataset:
A peak-and-hold driver for a solenoid coil, comprising: a solenoid controller connectable to the solenoid coil and configured to apply two levels of current to the solenoid coil to energize the solenoid coil based on a signal from an external source, the two levels of current including a peak current and a hold current; an input threshold detector connected to the solenoid controller and configured to put the solenoid controller in a reset mode wherein the solenoid controller is in a suspended or hold state while the solenoid controller remains powered on; and a resistive load connected to the input threshold detector and configured to receive a supervisory current from the external source when the solenoid coil is deenergized, the supervisory current being a current for determining the integrity of wiring between the external source and a solenoid valve actuated by supplying electrical power to the solenoid coil and the resistive load providing at least a portion of the supervisory current to the input threshold detector; wherein the input threshold detector puts the solenoid controller in the reset mode if the supervisory current provided to the input threshold detector, or a voltage corresponding to said supervisory current, is below a threshold level, and releases the controller from the reset mode if the supervisory current provided to the input threshold detector, or a voltage corresponding to said supervisory current, is above the threshold level, the threshold level being a dropout voltage or a current corresponding to said dropout voltage. a solenoid controller connectable to the solenoid coil and configured to apply two levels of current to the solenoid coil to energize the solenoid coil based on a signal from an external source, the two levels of current including a peak current and a hold current; an input threshold detector connected to the solenoid controller and configured to put the solenoid controller in a reset mode wherein the solenoid controller is in a suspended or hold state while the solenoid controller remains powered on; and a resistive load connected to the input threshold detector and configured to receive a supervisory current from the external source when the solenoid coil is deenergized, the supervisory current being a current for determining the integrity of wiring between the external source and a solenoid valve actuated by supplying electrical power to the solenoid coil and the resistive load providing at least a portion of the supervisory current to the input threshold detector; wherein the input threshold detector puts the solenoid controller in the reset mode if the supervisory current provided to the input threshold detector, or a voltage corresponding to said supervisory current, is below a threshold level, and releases the controller from the reset mode if the supervisory current provided to the input threshold detector, or a voltage corresponding to said supervisory current, is above the threshold level, the threshold level being a dropout voltage or a current corresponding to said dropout voltage.
A method of receiving data packets asynchronously transmitted by a plurality of user terminals using a spread-aloha medium access protocol, the method including a step of successive interference cancellation for cancelling interferences between colliding packets and being characterized in that said step of successive interference cancellation comprises: a) storing received signal samples in a processing memory; b) performing packet identification on the signals stored in said processing memory within a sliding processing window; c) selecting one among the identified packets, and cancelling the interferences of said packet with the other received data inside the sliding processing window; d) repeating step c) for all or part of the packets identified at step b); and e) shifting the processing window by a shifting step which is shorter than the overall length of said processing window, wherein the length of said sliding processing window is at least equal to two, and preferably three times the length of a physical layer packet emitted by said user terminals; wherein substep b) comprises performing packet identification by detecting known packet preambles; wherein substep c) comprises: c0) ranking the identified packets by their signal-to-noise-and-interference ratio; c1) performing data-aided channel estimation for the selected packet over the preamble by a burst Direct Sequence Spread Sequence, DS/SS, demodulator; and c2) performing forward error correction, FEC, decoding of the selected packet, and wherein substep c) further comprises, if the FEC is considered as successful after Cyclic Redundancy Check, CRC: c3) performing enhanced data-aided channel estimation over the whole packet; c4) reconstructing said packet at baseband; and c5) performing interference cancellation by an interference cancellation processor, ICP. a) storing received signal samples in a processing memory; b) performing packet identification on the signals stored in said processing memory within a sliding processing window; c) selecting one among the identified packets, and cancelling the interferences of said packet with the other received data inside the sliding processing window; d) repeating step c) for all or part of the packets identified at step b); and e) shifting the processing window by a shifting step which is shorter than the overall length of said processing window, c0) ranking the identified packets by their signal-to-noise-and-interference ratio; c1) performing data-aided channel estimation for the selected packet over the preamble by a burst Direct Sequence Spread Sequence, DS/SS, demodulator; and c2) performing forward error correction, FEC, decoding of the selected packet, and wherein substep c) further comprises, c3) performing enhanced data-aided channel estimation over the whole packet; c4) reconstructing said packet at baseband; and c5) performing interference cancellation by an interference cancellation processor, ICP.
A split inner ring of a bearing assembly comprising: a first ring and a second ring which mate axially to define an inner raceway formed on an outer surface of the first ring and the second ring, and an inner surface; characterised by a plurality of circumferentially spaced holes, each hole extending from an outside side surface of the first ring to an inside side surface of the first ring, the inside side surface of the first ring mating against an inside side surface of the second ring; a first circumferential annulus formed on the inside side surface of the first ring or second ring between the inner raceway and the inner surface, the first circumferential annulus being fluidly linked to the plurality of circumferentially spaced holes; and a lubrication system connecting the first circumferential annulus to the outer surface of the first ring and the second ring. a first ring and a second ring which mate axially to define an inner raceway formed on an outer surface of the first ring and the second ring, and an inner surface; characterised by a plurality of circumferentially spaced holes, each hole extending from an outside side surface of the first ring to an inside side surface of the first ring, the inside side surface of the first ring mating against an inside side surface of the second ring; a first circumferential annulus formed on the inside side surface of the first ring or second ring between the inner raceway and the inner surface, the first circumferential annulus being fluidly linked to the plurality of circumferentially spaced holes; and a lubrication system connecting the first circumferential annulus to the outer surface of the first ring and the second ring.
A method for performing handover for a user equipment, UE, between a source access point, AP, and a target AP, wherein the source AP and the target AP are connected to a core network, CN, through an access gateway, AG, wherein the AG is allocated with an radio network controller identity, RNC-ID, and the target AP and source AP under the AG share the RNC-ID of the AG, characterized in that the method comprises: receiving, by the AG, a handover complete message sent from the target AP, notifying the AG of the information that the UE completes the handover from the source AP to the target AP and a reconfiguration in the target AP, wherein the handover complete message is sent by the target AP after the target AP receives a handover request from the source AP and receives a RB Reconfiguration Complete message from the UE; adjusting, by the AG, uplink and downlink tunnels between the AG and the source AP to uplink and downlink tunnels between the AG and the target AP. receiving, by the AG, a handover complete message sent from the target AP, notifying the AG of the information that the UE completes the handover from the source AP to the target AP and a reconfiguration in the target AP, wherein the handover complete message is sent by the target AP after the target AP receives a handover request from the source AP and receives a RB Reconfiguration Complete message from the UE; adjusting, by the AG, uplink and downlink tunnels between the AG and the source AP to uplink and downlink tunnels between the AG and the target AP.
A metering apparatus having a metering pipette which includes a metering body and a piston which is longitudinally displaceably guided in the metering body; and a metering attachment which is releasably connected or connectable to the metering pipette and which includes a stop body (16, 16') having a stop (17, 17') for the piston and a connection part for connecting the metering attachment to the metering body, characterized in that the metering attachment includes a semi-cylindrical body; and the connection part is provided at the end of the semi-cylindrical body facing the metering body.
A method for developing a treatment plan for treating a subject, comprising: receiving a scanned dental model of a subject's dentition; determining a treatment plan having a plurality of incremental movements for repositioning one or more teeth of the subject's dentition; applying a label to one or more teeth within the dental model: simulating a rolling ball process along an exterior of the one or more teeth and gums within the dental model; determining a boundary between each of the one or more teeth and gums based on a path or trajectory of the rolling ball process; assigning a hard or soft region to each of the one or more teeth and gums within the dental model; and moving a position of the one or more teeth within the dental model to correct for malocclusions in developing a treatment plan; and fabricating one or more aligners correlating to a first subset of the plurality of incremental movements receiving a scanned dental model of a subject's dentition; determining a treatment plan having a plurality of incremental movements for repositioning one or more teeth of the subject's dentition; applying a label to one or more teeth within the dental model: simulating a rolling ball process along an exterior of the one or more teeth and gums within the dental model; determining a boundary between each of the one or more teeth and gums based on a path or trajectory of the rolling ball process; assigning a hard or soft region to each of the one or more teeth and gums within the dental model; and moving a position of the one or more teeth within the dental model to correct for malocclusions in developing a treatment plan; and fabricating one or more aligners correlating to a first subset of the plurality of incremental movements simulating a rolling ball process along an exterior of the one or more teeth and gums within the dental model; determining a boundary between each of the one or more teeth and gums based on a path or trajectory of the rolling ball process; assigning a hard or soft region to each of the one or more teeth and gums within the dental model; and moving a position of the one or more teeth within the dental model to correct for malocclusions in developing a treatment plan; and fabricating one or more aligners correlating to a first subset of the plurality of incremental movements
A process for further use of a carbon raw material, wherein the carbon raw material has a water content of 20 to 90 weight percent based on the total mass and a sulfur content of less than 0.05 percent based on the total dry mass and which comprises that the carbon raw material is treated with carbon dioxide or water vapor or a mixture thereof at a temperature of up to 1100°C and that the thus obtained carbon material is admixed with an acid, wherein the carbon raw material originates from the acetylene water quench process.
A pharmaceutically acceptable complex of ethyl 8-fluoro-5,6-dihydro-5-methyl-6-oxo-4H-imidazo[1,5-a][1,4]benzodiazepine-3-carboxylate or a salt thereof and nicotinamide.
Closure for fluid-tight closing of a vessel filled with a substance, wherein the closure comprises a fluid-tight pressure-transmission element and wherein the closure comprises a base body to which the pressure-transmission element is attachable in a fluid-tight manner, wherein the pressure-transmission element is deflectable by pressurisation without incurring damage, for biological inactivation of microorganisms present in the substance, wherein the closure is configured in such a way that the pressure-transmission element, when the vessel is closed with the closure, is held clamped between the vessel and the base body, characterized in that the base body comprises at least one tamper-evident element, wherein the base body is configured to be attached to the vessel without damage to the at least one tamper-evident element and to be separated from the vessel with a damage to at least one of the at least one tamper-evident element, wherein the base body has a longitudinal body axis along which the directions proximal and distal are defined, wherein proximal, in the intended use, points towards an interior of the vessel and distal is opposite thereto, wherein the at least one tamper-evident element is a plurality of tamper-evident elements, and wherein at least two of the tamper-evident elements are arranged at different positions along the longitudinal body axis. characterized in that the base body comprises at least one tamper-evident element, wherein the base body is configured to be attached to the vessel without damage to the at least one tamper-evident element and to be separated from the vessel with a damage to at least one of the at least one tamper-evident element, wherein the base body has a longitudinal body axis along which the directions proximal and distal are defined, wherein proximal, in the intended use, points towards an interior of the vessel and distal is opposite thereto, wherein the at least one tamper-evident element is a plurality of tamper-evident elements, and wherein at least two of the tamper-evident elements are arranged at different positions along the longitudinal body axis.
A service redundancy method, wherein the method comprises: after a first mobility management entity, MME, to which user equipment, UE, is attached becomes faulty, receiving, by a serving MME, a service request message sent by the UE by using an evolved NodeB, eNodeB, wherein the service request message comprises an identity of the UE and an identity of the first MME, the serving MME is an MME selected, after the first MME becomes faulty, by the eNodeB to provide a service for the UE, and the first MME and the serving MME are located in a same MME pool; acquiring, by the serving MME, user information of the UE from a backup MME of the first MME; and providing, by the serving MME according to the user information of the UE, the service corresponding to the service request message for the UE. after a first mobility management entity, MME, to which user equipment, UE, is attached becomes faulty, receiving, by a serving MME, a service request message sent by the UE by using an evolved NodeB, eNodeB, wherein the service request message comprises an identity of the UE and an identity of the first MME, the serving MME is an MME selected, after the first MME becomes faulty, by the eNodeB to provide a service for the UE, and the first MME and the serving MME are located in a same MME pool; acquiring, by the serving MME, user information of the UE from a backup MME of the first MME; and providing, by the serving MME according to the user information of the UE, the service corresponding to the service request message for the UE.
A method of pumping powder in a powder coating system from a pump that is used to transfer powder from a powder supply to one or more spray guns, said pump having chambers A and B, wherein powder is drawn into the chambers A and B alternately during a suction cycle for each chamber, and pushed out of the chambers A and B alternately during a delivery cycle for each chamber, wherein within the suction cycle time is a suction duration time during which suction is applied to chambers A and B, the method comprising the steps of providing a data structure which stores powder flow recipes for producing desired powder flow characteristics from the pump, the powder flow recipes having one or more parameters: suction cycle time and suction duration time, characterized in that an air flow rate controller is used to control the flow rate of air used to push powder out of chambers A and B during the delivery cycle, to draw powder into chambers A and B during the suction cycle, or both, and in that a parameter of the powder flow recipes is the air flow rate for pushing powder out of pump chambers to the spray gun.
Timepiece regulating mechanism, including, arranged on a plate, a resonator mechanism with a quality factor Q, and an escapement mechanism which is arranged to be subjected to a torque of drive means included in a movement, said resonator mechanism including an inertia element arranged to oscillate with respect to said plate, said inertia element being subjected to the action of elastic return means directly or indirectly attached to said plate, and said inertia element being arranged to cooperate indirectly with an escape wheel set included in said escapement mechanism, said resonator mechanism being a resonator with a virtual pivot rotating about a main axis, with a flexure bearing including at least two flexible strips, and including an impulse pin integral with said inertia element, said escapement mechanism including a lever pivoting about a secondary axis and including a lever fork arranged to cooperate with said impulse pin, and being a detached escapement mechanism, wherein, during the operating cycle, said resonator mechanism has at least a freedom phase in which said impulse pin is at a distance from said lever fork, said regulating mechanism being configured so that, during each vibration, in a contact phase, said impulse pin penetrates said lever fork with a depth of travel greater than 100 micrometres, and in an unlocking phase, said impulse pin remains at a distance from said lever fork with a safety distance greater than 25 micrometres, and so that said impulse pin and said lever fork are dimensioned such that the width of said lever fork is greater than (P+S)/sin(α/2+β/2), where α is the overall lift angle of said lever, which corresponds to the maximum angular stroke of said anchor fork, and where β is the lift angle of said resonator, which is an overall angle, taken on either side of the rest position, said depth of travel and said safety distance being measured radially with respect to said main axis, said lift angle β of the resonator, during which said impulse pin is in contact with said lever fork, being less than 10°.
Method for allocating resources of a network infrastructure for the provision of a telecommunications service, wherein the method comprises: - receiving (107, 207), by a resource orchestrator (102, 202), a request to instantiate virtualized functions on servers; - determining (108, 208) servers to be allocated (104, 204) and resources of the network infrastructure enabling connectivity between said servers on the basis of the instantiation request (107, 207); - sending, to the determined resources, a configuration request (113, 211) enabling connectivity between said determined servers (104, 204); - sending, to the determined servers, a request to allocate computing means on said determined servers (111, 210). - receiving (107, 207), by a resource orchestrator (102, 202), a request to instantiate virtualized functions on servers; - determining (108, 208) servers to be allocated (104, 204) and resources of the network infrastructure enabling connectivity between said servers on the basis of the instantiation request (107, 207); - sending, to the determined resources, a configuration request (113, 211) enabling connectivity between said determined servers (104, 204); - sending, to the determined servers, a request to allocate computing means on said determined servers (111, 210).
A multilayer composite material comprising at least: a) a three-dimensional matrix comprising at least a first layer i. and a second layer ii. of a fabric comprising, or consisting of a polyester fiber, wherein said first layer i. and said second layer ii. are superimposed and welded together in at least two distinct and separate points, so as to define a space S between the two layers i. and ii. and b) a composition consisting of - sodium salt of hyaluronic acid, prepared starting from hyaluronic acid having a weight average molecular weight ranging from 150 to 2,000 kDa, preferably from 150 to 500 kDa, even more preferably from 150 to 250 kDa, as such, or in association with another polysaccharide, preferably with chitosan derivatized with lactose, - at least one excipient suitable for pharmaceutical use, and - possibly one or more pharmacologically and/or biologically active substance; wherein said composition b) is contained in at least a part of said space S included between the layers i. and ii., wherein fabric refers to a thin and flexible product with a flat surface produced by an interweaving of threads perpendicular to each other and said composition b) being present at least in part on the surfaces of the layers i. and ii. that are external to the intermediate space S. a) a three-dimensional matrix comprising at least a first layer i. and a second layer ii. of a fabric comprising, or consisting of a polyester fiber, wherein said first layer i. and said second layer ii. are superimposed and welded together in at least two distinct and separate points, so as to define a space S between the two layers i. and ii. and b) a composition consisting of - sodium salt of hyaluronic acid, prepared starting from hyaluronic acid having a weight average molecular weight ranging from 150 to 2,000 kDa, preferably from 150 to 500 kDa, even more preferably from 150 to 250 kDa, as such, or in association with another polysaccharide, preferably with chitosan derivatized with lactose, - at least one excipient suitable for pharmaceutical use, and - possibly one or more pharmacologically and/or biologically active substance; - sodium salt of hyaluronic acid, prepared starting from hyaluronic acid having a weight average molecular weight ranging from 150 to 2,000 kDa, preferably from 150 to 500 kDa, even more preferably from 150 to 250 kDa, as such, or in association with another polysaccharide, preferably with chitosan derivatized with lactose, - at least one excipient suitable for pharmaceutical use, and - possibly one or more pharmacologically and/or biologically active substance;