mhurhangee/ep-ind-claims huggingface dataset:
A current monitoring system (100; 200) comprising: a controller; a current transfer device comprising: a first thyristor; and a first conductor (116; 204) coupled to the first thyristor and configured to convey a first current flowing through the first thyristor, wherein the first current comprises current flowing through the first thyristor when the first thyristor is in an off state; a first current sensor configured to sense the first current; a first current measurement circuit coupled to the first current sensor and coupleable to the controller and configured to output a first output value to the controller representative of the first current flowing through the first thyristor; and wherein the controller is configured to: determine an impending inoperability of the first thyristor based on the first current; and alert a user if the first current indicates the impending inoperability. a controller; a current transfer device comprising: a first thyristor; and a first conductor (116; 204) coupled to the first thyristor and configured to convey a first current flowing through the first thyristor, wherein the first current comprises current flowing through the first thyristor when the first thyristor is in an off state; a first thyristor; and a first conductor (116; 204) coupled to the first thyristor and configured to convey a first current flowing through the first thyristor, wherein the first current comprises current flowing through the first thyristor when the first thyristor is in an off state; a first current sensor configured to sense the first current; a first current measurement circuit coupled to the first current sensor and coupleable to the controller and configured to output a first output value to the controller representative of the first current flowing through the first thyristor; and wherein the controller is configured to: determine an impending inoperability of the first thyristor based on the first current; and alert a user if the first current indicates the impending inoperability. determine an impending inoperability of the first thyristor based on the first current; and alert a user if the first current indicates the impending inoperability.
A rotary vane actuator, comprising: a stationary housing having at least one housing surface, wherein the housing includes a rotor cap, a peripheral wall, and a floor that define at least one fluid chamber, and the at least one housing surface includes a rotor cap surface and a floor surface; an actuation member comprised of a rotor configured to rotate about an axis on the interior of the housing and move relative to the housing, wherein the actuation member includes at least one vane configured to move within the at least one fluid chamber, wherein each of the at least one vane includes a first axial vane surface and a second axial vane surface; a seal disposed on each of the at least one vane and contacting the at least one housing surface; characterised in that the actuator further comprises: at least one bearing, wherein the at least one bearing is inserted into each of the at least one vane and wherein the at least one bearing does not contact the seal during actuation of the actuator, wherein each of the at least one bearing is fit into one of the first axial vane surface and the second axial vane surface and each of the at least one bearing contacts one of the rotor cap surface and the floor surface. a stationary housing having at least one housing surface, wherein the housing includes a rotor cap, a peripheral wall, and a floor that define at least one fluid chamber, and the at least one housing surface includes a rotor cap surface and a floor surface; an actuation member comprised of a rotor configured to rotate about an axis on the interior of the housing and move relative to the housing, wherein the actuation member includes at least one vane configured to move within the at least one fluid chamber, wherein each of the at least one vane includes a first axial vane surface and a second axial vane surface; a seal disposed on each of the at least one vane and contacting the at least one housing surface; characterised in that the actuator further comprises: at least one bearing, wherein the at least one bearing is inserted into each of the at least one vane and wherein the at least one bearing does not contact the seal during actuation of the actuator, wherein each of the at least one bearing is fit into one of the first axial vane surface and the second axial vane surface and each of the at least one bearing contacts one of the rotor cap surface and the floor surface.
Process for collecting, with a sensor device, at least one physiological signal from a living subject who is subjected to at least one electromagnetic field, in particular subjected to an electromagnetic environment such as the one existing in an investigative device that uses magnetic resonance, consisting in implementing, via corresponding means, a physical acquisition of at least one electrophysiological signal on the subject, and at least one pre-processing operation of said at least one electrophysiological signal that is detected, process that is characterised in that it also consists in producing, using additional means (7, 8), a measurement of at least one characteristic of the electromagnetic environment at or in the immediate proximity of the point or points or zones for acquisition of the electrophysiological signal(s) on the subject, and in correcting the - or each - electrophysiological signal that is detected and pre-processed, based on said at least one measuring signal, optionally pre-processed, of at least one characteristic of the electromagnetic environment of the point or points or zones for acquisition of the above-mentioned signal, a characteristic that is selected from the group that is formed by the amplitude of the local magnetic field vector, in one or more directions, and the value of the magnetic field gradient(s) present, in one or more directions.
A method comprising: coupling a heat exchanger assembly with a lower housing having a lower stack of fuel cells disposed therein; and characterized by: coupling an upper housing having an upper stack of fuel cells disposed therein with the heat exchanger assembly, wherein the heat exchanger assembly is coupled with the lower and upper housing (318, 302) such that weight of the upper stack of the fuel cells in the upper housing compresses the fuel cells in the lower stack against each other.
A method of manufacturing a cutting tool from a highly refractory composite obtained from boron carbide and an intermetallic compound of the Ti-Si system, relaying on mixing starting powders in the form of boron carbide (B 4 C), the intermetallic compound of the Ti-Si system, carbon C and boron B in the isopropyl alcohol environment, forming shaped pieces from the mixture of powders and subjecting them to sintering and mechanical working, characterized in that the highly refractory composite contains titanium silicide TiSi or TiSi 2 as the intermetallic compound of the Ti-Si system, in the molar ratio B 4 C:TiSi/TiSi 2:C:B of 1:2:3:1, wherein the obtained TiB 2 -TiC-SiC-TiSi composite containing titanium silicide TiSi has 60.0-65.0% by weight of TiB 2, 20-34% by weight of TiC, 5-14% by weight of SiC and 0.9-1.0% by weight of TiSi, while the obtained TiB 2 -TiC-SiC-TiSi 2 composite containing titanium silicide TiSi 2 has 65.0-70.0% by weight of TiB 2, 9.2-10% by weight of TiC, 19.9-24.1% by weight of SiC and 0.9-1.0% by weight of TiSi 2, and the sintering process of the formed shaped pieces is carried out by spark plasma sintering method SPS under the protection of argon, at a temperature of 1350-1450°C, with a temperature increase of 200-300°C per minute, with a holding time of 1÷5 minutes and under the pressure of 50 MPa or by the hot pressing method at a temperature of 1500-1550°C, with the temperature increase of 10°C per minute, with the holding time of 30 minutes and under the pressure of 50 MPa.
A method, comprising: sending, by a first entity associated with an access network, a first request message including a session identifier associated with a user session to a second entity associated with a core network; establishing a first control channel with the second entity, the first control channel associated with the session identifier, wherein the first control channel is an in-band channel between the first entity and the second entity; and receiving policy information associated with the user session from the second entity using the first control channel, the policy information indicative of one or more policies to be applied in the access network to user data associated with the user session, wherein the policy information is included within a tunneling protocol packet. sending, by a first entity associated with an access network, a first request message including a session identifier associated with a user session to a second entity associated with a core network; establishing a first control channel with the second entity, the first control channel associated with the session identifier, wherein the first control channel is an in-band channel between the first entity and the second entity; and receiving policy information associated with the user session from the second entity using the first control channel, the policy information indicative of one or more policies to be applied in the access network to user data associated with the user session, wherein the policy information is included within a tunneling protocol packet.
A method performed by a first wireless device for handling a device-to-device, D2D, communication with a second wireless device, the second wireless device being served by a first network node, during handover of the first wireless device from a source network node (110, 111), wherein the source network node may be the first network node or another network node, to a target network node (110, 111, 112) in a wireless telecommunications network, characterized in that the method comprises: interrupting the D2D communication; and determining a first uplink timing difference as the difference between the uplink timing to the source network node (110, 111) and the uplink timing to the target network node (110, 111, 112); reconfiguring the D2D communication based on the first uplink timing difference; and re-starting the D2D communication, as reconfigured, with the second wireless device, the second wireless device continues to being served by the first network node after handover, wherein the reconfiguring further comprises transmitting the determined first uplink timing difference to the target network node (110, 111, 112) after the handover has been completed; and receiving a scheduling scheme for the D2D communication from the target network node (110, 111, 112), which scheduling scheme indicates time locations of sub-frames in which transmission resources may be allocated for the D2D communication. interrupting the D2D communication; and determining a first uplink timing difference as the difference between the uplink timing to the source network node (110, 111) and the uplink timing to the target network node (110, 111, 112); reconfiguring the D2D communication based on the first uplink timing difference; and re-starting the D2D communication, as reconfigured, with the second wireless device, the second wireless device continues to being served by the first network node after handover, transmitting the determined first uplink timing difference to the target network node (110, 111, 112) after the handover has been completed; and receiving a scheduling scheme for the D2D communication from the target network node (110, 111, 112), which scheduling scheme indicates time locations of sub-frames in which transmission resources may be allocated for the D2D communication.
A switching regulator circuit comprising: a power switch controller (20, 24, 50; 84) configured to generate control signals for controlling a duty cycle of a power switch (26, 28) for generating a regulated voltage to a load; a feedback control loop (42, 44), configured to sense at least an output voltage of the regulator circuit, and to provide feedback signals to the power switch controller for maintaining a regulated output voltage of the regulator circuit; characterized by a first circuit configured to generate a first signal prior to and in anticipation of a first load current step; and an offset circuit connected in the feedback control loop that, in response to the first signal, adjusts the duty cycle of the power switch (26, 28) for the first load current step. a power switch controller (20, 24, 50; 84) configured to generate control signals for controlling a duty cycle of a power switch (26, 28) for generating a regulated voltage to a load; a feedback control loop (42, 44), configured to sense at least an output voltage of the regulator circuit, and to provide feedback signals to the power switch controller for maintaining a regulated output voltage of the regulator circuit; characterized by a first circuit configured to generate a first signal prior to and in anticipation of a first load current step; and an offset circuit connected in the feedback control loop that, in response to the first signal, adjusts the duty cycle of the power switch (26, 28) for the first load current step.
Use of a supplement for making metal (nutritionally) available to animals, said supplement comprising at least one compound selected from the group consisting of glutamic acid N,N-diacetic acid (GLDA), a metal complex of GLDA, a sodium salt of GLDA, a potassium salt of GLDA, methylglycine-N,N-diacetic acid (MGDA), a metal complex of MGDA, a sodium salt of MGDA, and a potassium salt of MGDA.
Apparatus for controlling flow of air through an air inlet in a solid fuel burner, the apparatus comprising: a. a mechanical temperature sensor for sensing the temperature within the solid fuel burner, and b. a movable valve member for controlling the flow of air through the air inlet, the movable valve member being coupled to the mechanical temperature sensor so as to close or restrict the air inlet as the sensed temperature increases; characterised in that: the sensor comprises first and second elongate parts (1, 2), the first elongate part having a first, moveable end that moves linearly in a direction of the length of the first elongate part due to a difference in thermal expansion coefficients of the materials of the first and second elongate parts (1, 2), in response to a change in the sensed temperature; and in that the movable valve member is coupled to the first, moveable end of the first elongate part. a. a mechanical temperature sensor for sensing the temperature within the solid fuel burner, and b. a movable valve member for controlling the flow of air through the air inlet, the movable valve member being coupled to the mechanical temperature sensor so as to close or restrict the air inlet as the sensed temperature increases; characterised in that: the sensor comprises first and second elongate parts (1, 2), the first elongate part having a first, moveable end that moves linearly in a direction of the length of the first elongate part due to a difference in thermal expansion coefficients of the materials of the first and second elongate parts (1, 2), in response to a change in the sensed temperature; and in that the movable valve member is coupled to the first, moveable end of the first elongate part. the sensor comprises first and second elongate parts (1, 2), the first elongate part having a first, moveable end that moves linearly in a direction of the length of the first elongate part due to a difference in thermal expansion coefficients of the materials of the first and second elongate parts (1, 2), in response to a change in the sensed temperature; and in that the movable valve member is coupled to the first, moveable end of the first elongate part.
A crystalline form of lesinurad, designated as Form III, having an X-ray powder diffraction pattern comprising the following 2θ values measured using CuKa radiation: 7.9°±0.2°, 11.9°±0.2°, 15.3°±0.2°, 20.8°±0.2°, and 23.8°±0.2°.
A method comprising: receiving, by a network device in a software-defined Wide Area Network, SD-WAN, comprising a plurality of network nodes, respective routing information from a respective routing agent present on each node of the plurality of network nodes; determining, by the network device, an overlay network topology of Internet Protocol Security, IPsec, tunnels among the plurality of network nodes; determining, by the network device, a respective routing decision for each node, based on the overlay network topology and the respective routing information received from the respective routing agent; and distributing, by the network device, the respective routing decision to corresponding network nodes in the SD-WAN, characterized in that determining, by the network device, the overlay network topology of Internet Protocol Security, IPsec, tunnels among the plurality of network nodes comprises: exchanging, by the network device, link state messages with each node in the plurality of network nodes, wherein the link state messages include cost and role information related to existing Internet Protocol Security, IPsec, tunnels in a node, and wherein the role information classifies an IPsec tunnel of said IPSec tunnels as one of a primary role, a secondary role and a peer role, and the primary role indicates that the tunnel is terminating to a virtual internet gateway and being load-balanced with failover support. receiving, by a network device in a software-defined Wide Area Network, SD-WAN, comprising a plurality of network nodes, respective routing information from a respective routing agent present on each node of the plurality of network nodes; determining, by the network device, an overlay network topology of Internet Protocol Security, IPsec, tunnels among the plurality of network nodes; determining, by the network device, a respective routing decision for each node, based on the overlay network topology and the respective routing information received from the respective routing agent; and distributing, by the network device, the respective routing decision to corresponding network nodes in the SD-WAN, characterized in that determining, by the network device, the overlay network topology of Internet Protocol Security, IPsec, tunnels among the plurality of network nodes comprises: exchanging, by the network device, link state messages with each node in the plurality of network nodes, wherein the link state messages include cost and role information related to existing Internet Protocol Security, IPsec, tunnels in a node, and wherein the role information classifies an IPsec tunnel of said IPSec tunnels as one of a primary role, a secondary role and a peer role, and the primary role indicates that the tunnel is terminating to a virtual internet gateway and being load-balanced with failover support.
An electronic system comprising: a processing core; a power supply circuit having a load voltage feedback input and a voltage regulator control loop into which the load voltage feedback input is coupled, the control loop including a compensation network; a power gate coupled to the power supply circuit to selectively provide power to the processing core; a switch having a local state and a remote state to alternately route a local sense point on a supply side of the power gate and a remote sense point on a load side of the power gate, to the feedback input of the power supply circuit; and timing logic and driver circuitry coupled to control the power gate and the switch, characterized in that the timing logic and driver circuitry includes a further input that is directly coupled to the remote sense point, and is configured to: maintain a predefined timing between operation of the power gate and selection of the local and remote states of the switch; and control the power gate to limit a slew rate on the load side of the power gate based on a signal at the further input; and wherein the compensation network is configured to use a first transfer function in response to the selection of the local state of the switch and to use a second transfer function in response to the selection of the remote state of the switch. a processing core; a power supply circuit having a load voltage feedback input and a voltage regulator control loop into which the load voltage feedback input is coupled, the control loop including a compensation network; a power gate coupled to the power supply circuit to selectively provide power to the processing core; a switch having a local state and a remote state to alternately route a local sense point on a supply side of the power gate and a remote sense point on a load side of the power gate, to the feedback input of the power supply circuit; and timing logic and driver circuitry coupled to control the power gate and the switch, maintain a predefined timing between operation of the power gate and selection of the local and remote states of the switch; and control the power gate to limit a slew rate on the load side of the power gate based on a signal at the further input; and wherein the compensation network is configured to use a first transfer function in response to the selection of the local state of the switch and to use a second transfer function in response to the selection of the remote state of the switch.
A workstation standing plate comprising: a front edge, a back edge, first and second lateral edges extending between the front edge and the back edge, a top surface, and a bottom surface, a ridge on the top surface extending along a center line of the top surface between the front edge and the back edge, wherein the top surface is divided into a first portion and a second portion by the ridge, wherein each of the first portion and the second portion of the top surface comprises an oblique inclination from an intersection between the ridge and the back edge towards an intersection of the front edge and the respective lateral edges (6, 7), wherein the oblique inclination comprises a longitudinal inclination in a direction parallel to the ridge, characterised in that the longitudinal inclination between the front edge and back edge gradually decreases towards the respective lateral edge (6,7). a front edge, a back edge, first and second lateral edges extending between the front edge and the back edge, a top surface, and a bottom surface, a ridge on the top surface extending along a center line of the top surface between the front edge and the back edge, wherein the top surface is divided into a first portion and a second portion by the ridge, wherein each of the first portion and the second portion of the top surface comprises an oblique inclination from an intersection between the ridge and the back edge towards an intersection of the front edge and the respective lateral edges (6, 7), wherein the oblique inclination comprises a longitudinal inclination in a direction parallel to the ridge, characterised in that the longitudinal inclination between the front edge and back edge gradually decreases towards the respective lateral edge (6,7).