mhurhangee/ep-ind-claims huggingface dataset:
An apparatus for generating an electrical current from a temperature differential in an ablutionary fitting, the apparatus comprising: a heat transfer plate having a projection configured to directly contact water carried in a first region of the fitting; and a thermoelectric module comprising one or more thermoelectric elements (97a-c), the thermoelectric elements (97a-c) configured to be thermally coupled between the heat transfer plate and a housing of the ablutionary fitting in a second region of the ablutionary fitting, the thermoelectric elements (97a-c) also being configured to generate electricity from a temperature differential between water carried in the first and second regions of the ablutionary fitting. a heat transfer plate having a projection configured to directly contact water carried in a first region of the fitting; and a thermoelectric module comprising one or more thermoelectric elements (97a-c), the thermoelectric elements (97a-c) configured to be thermally coupled between the heat transfer plate and a housing of the ablutionary fitting in a second region of the ablutionary fitting, the thermoelectric elements (97a-c) also being configured to generate electricity from a temperature differential between water carried in the first and second regions of the ablutionary fitting.
A microwave antenna system for applying microwave energy therapy comprising: at least one microwave antenna comprising a proximal portion having an inner conductor and an outer conductor, each extending therethrough, the inner conductor disposed within the outer conductor, and a distal portion attached to the proximal portion such that the inner conductor extends at least partially therein; an energy generator in communication with a proximal end of the microwave antenna, wherein the energy generator is configured to deliver RF energy to the distal portion to facilitate advancement of the microwave antenna through tissue and subsequently to deliver microwave energy to the distal portion to treat tissue and; a channel splitter in electrical communication with the microwave energy of the energy generator, wherein the channel splitter is adapted to create multiple channels from a single channel received from the energy generator. at least one microwave antenna comprising a proximal portion having an inner conductor and an outer conductor, each extending therethrough, the inner conductor disposed within the outer conductor, and a distal portion attached to the proximal portion such that the inner conductor extends at least partially therein; an energy generator in communication with a proximal end of the microwave antenna, wherein the energy generator is configured to deliver RF energy to the distal portion to facilitate advancement of the microwave antenna through tissue and subsequently to deliver microwave energy to the distal portion to treat tissue and; a channel splitter in electrical communication with the microwave energy of the energy generator, wherein the channel splitter is adapted to create multiple channels from a single channel received from the energy generator.
A polyethylene-based polymer composition characterized by a Comonomer Distribution Constant greater than 45, a recrystallization temperature between 85°C and 110°C, a tan delta value at 0.1 rad/sec from 15 to 50, and a complex viscosity at 0.1 rad/second of 1400 Pa.sec or less.
An ear-wearable device comprising: a shell shaped for wearing in an ear of a user, wherein the shell comprises a tunnel wall that defines a tunnel; a receiver coil that is formed in or around the tunnel wall of the tunnel, wherein the tunnel is configured to receive a power coil, wherein the receiver coil is configured to inductively couple with the power coil via the tunnel and to inductively receive electromagnetic power from the power coil, and wherein the receiver coil is configured to convert the electromagnetic power to an electrical current; and one or more electrical components encased within the shell and configured to receive the electrical current from the receiver coil. a shell shaped for wearing in an ear of a user, wherein the shell comprises a tunnel wall that defines a tunnel; a receiver coil that is formed in or around the tunnel wall of the tunnel, wherein the tunnel is configured to receive a power coil, wherein the receiver coil is configured to inductively couple with the power coil via the tunnel and to inductively receive electromagnetic power from the power coil, and wherein the receiver coil is configured to convert the electromagnetic power to an electrical current; and one or more electrical components encased within the shell and configured to receive the electrical current from the receiver coil.
A method, performed by a supporting node, for supporting a process scheduling node when scheduling a process to a first execution node of a cluster of execution nodes (130, 140, 150), wherein the method comprises: receiving, from the first execution node being selected by the process scheduling node for execution of the process, a request for allocation of one or more Hardware Acceleration, HA, devices (131, 141, 151), selecting at least one HA device among a list of HA devices available for allocation to the first execution node, allocating said at least one HA device, being managed by a second execution node of the cluster, to be available for use by the first execution node, reducing a value representing number of HA devices (131, 141, 151) available for allocation to the first execution node while taking said at least one HA device into account, sending the value to the first execution node, and sending, to the first execution node, a message indicating successful allocation of said at least one HA device. receiving, from the first execution node being selected by the process scheduling node for execution of the process, a request for allocation of one or more Hardware Acceleration, HA, devices (131, 141, 151), selecting at least one HA device among a list of HA devices available for allocation to the first execution node, allocating said at least one HA device, being managed by a second execution node of the cluster, to be available for use by the first execution node, reducing a value representing number of HA devices (131, 141, 151) available for allocation to the first execution node while taking said at least one HA device into account, sending the value to the first execution node, and sending, to the first execution node, a message indicating successful allocation of said at least one HA device.
A ground fault protection method for a power distribution system (1") comprising a plurality of power converter systems (2 1 -2 4) electrically connected to a point of common coupling, each power converter system (2 1 -2 4) including a power converter (3 1 -3 4) with a plurality of semiconductor switching devices controlled using a pulse width modulation strategy with a switching frequency, the method comprising applying a spectrum analysis process to each power converter system (2 1 -2 4) that uses measured or derived zero sequence currents associated with the respective power converter system (2 1 -2 4) to determine the location of a ground fault within the power distribution system (1"), and a switching frequency process where the switching frequency of the power converter (3 1 -3 4) of at least one of the power converter systems (2 1 -2 4) is different from the switching frequency of the power converter (3 1 -3 4) of at least another one of the power converter systems (2 1 -2 4) during at least part of the time that the spectrum analysis process is applied to improve the signal to noise ratio for the benefit of the spectrum analysis process when determining the location of the ground fault within the power distribution system (1"); wherein the spectrum analysis process comprises the steps of: measuring or deriving zero sequence currents associated with the respective power converter system (2 1 -2 4); performing spectrum analysis on the zero sequence currents and deriving the amplitude of a frequency component within the zero sequence current frequency spectrum; and generating a signal indicative of a ground fault being present within the respective power converter system (2 1 -2 4) if the amplitude exceeds a fault location threshold or one or more stored amplitudes, the signal optionally being used to open a protective circuit breaker/switchgear (21 1 -21 4) for the respective power converter system (2 1 -2 4) to isolate it from the point of common coupling and/or trip the power converter system (2 1 -2 4). measuring or deriving zero sequence currents associated with the respective power converter system (2 1 -2 4); performing spectrum analysis on the zero sequence currents and deriving the amplitude of a frequency component within the zero sequence current frequency spectrum; and generating a signal indicative of a ground fault being present within the respective power converter system (2 1 -2 4) if the amplitude exceeds a fault location threshold or one or more stored amplitudes, the signal optionally being used to open a protective circuit breaker/switchgear (21 1 -21 4) for the respective power converter system (2 1 -2 4) to isolate it from the point of common coupling and/or trip the power converter system (2 1 -2 4).
A method for optimizing a control voltage of an electron multiplier of an ion detector of a mass spectrometer system, comprising: (a) collecting an array of data representing mass peaks of a mass scan obtained from operating the mass spectrometer system while the ion detector is set to a current detector gain; (b) finding the largest peak in the array or at least a portion of the array; (c) based on a size of the largest peak, determining whether the current detector gain should be changed to a new detector gain; (d) obtaining the new detector gain and adjusting the control voltage of the electron multiplier during a subsequent mass scan to a new control voltage corresponding to the new detector gain; and (e) scaling the data of the array based on the current detector gain. (a) collecting an array of data representing mass peaks of a mass scan obtained from operating the mass spectrometer system while the ion detector is set to a current detector gain; (b) finding the largest peak in the array or at least a portion of the array; (c) based on a size of the largest peak, determining whether the current detector gain should be changed to a new detector gain; (d) obtaining the new detector gain and adjusting the control voltage of the electron multiplier during a subsequent mass scan to a new control voltage corresponding to the new detector gain; and (e) scaling the data of the array based on the current detector gain.
A modular and adjustable sliding base, comprising an upper surface and a lower surface, where said upper surface has a plurality of through holes communicating the upper and lower surfaces, and a plurality of legs on the lower surface for supporting the base, the base further comprising legs having a through hole along the length of the leg and an elastic element arranged around the perimeter of each leg and having a threaded fixing element that can be inserted in the through hole and emerging from the free end of the leg, for allowing height adjustment of each leg on a support surface as a result of modifying the thread depth of each fixing element with respect to said support surface, wherein the upper surface comprises a plurality of cavities, and in that each cavity has a perforation and several half bearings in said base configured for allowing the support and free rotation of plastic, metal or mixed rollers, with respect to each cavity.
A heat exchanger for exhaust gas cooling, having at least one housing, at least one first flow duct for a first medium, at least one second flow duct for a second medium, at least one bottom (1, 20, 121) which is connectable to the housing, wherein the bottom has at least one expansion element for the compensation of longitudinal extensions, characterised in that the expansion element is an expansion element (24, 30, 40, 60, 65, 70, 77, 80, 81) which is expandable in the direction of a thermal lateral expansion of at least one flow duct.
A method for detecting the presence of an object in a zone by means of a wireless detector (15, 16, 17, 18, 19, 20; 80) located proximal to the zone, the wireless detector (15, 16, 17, 18, 19, 20; 80) comprising an orientation sensor for sensing the spatial attitude of the detector (15, 16, 17, 18, 19, 20; 80), the method comprising: receiving a solid angle defined, by a user, relative to a first spatial reference plane by an azimuth range and an elevation range, the azimuth range and the elevation range being such that the solid angle would include at least part of the zone were the solid angle to be projected from the location of the detector (15, 16, 17, 18, 19, 20; 80); detecting by means of the detector (15, 16, 17, 18, 19, 20; 80) a wireless signal from the object, and thereby estimating the direction of the object from the detector (15, 16, 17, 18, 19, 20; 80) with reference to a second spatial reference plane fixed relative to the detector; sensing by means of the orientation sensor the spatial attitude of the detector (15, 16, 17, 18, 19, 20; 80); and transforming at least one of the solid angle and the estimated direction using the sensed spatial attitude such that they are both in the same spatial reference plane, and comparing the solid angle and the estimated direction in that same spatial reference plane so as to determine whether the object is present in the zone. receiving a solid angle defined, by a user, relative to a first spatial reference plane by an azimuth range and an elevation range, the azimuth range and the elevation range being such that the solid angle would include at least part of the zone were the solid angle to be projected from the location of the detector (15, 16, 17, 18, 19, 20; 80); detecting by means of the detector (15, 16, 17, 18, 19, 20; 80) a wireless signal from the object, and thereby estimating the direction of the object from the detector (15, 16, 17, 18, 19, 20; 80) with reference to a second spatial reference plane fixed relative to the detector; sensing by means of the orientation sensor the spatial attitude of the detector (15, 16, 17, 18, 19, 20; 80); and transforming at least one of the solid angle and the estimated direction using the sensed spatial attitude such that they are both in the same spatial reference plane, and comparing the solid angle and the estimated direction in that same spatial reference plane so as to determine whether the object is present in the zone.
A root crop washer (1, 50, 100) including a root crop washing apparatus and a stone separator mounted at an inlet of the root crop washing apparatus, the stone separator comprising a separator housing having a root crop inlet and a root crop outlet spaced-apart from the root crop inlet, the root crop outlet communicating with the inlet of the root crop washing apparatus, and a first liquid stream generator for generating a first liquid stream within the separator housing travelling between the root crop inlet and the root crop outlet for delivery of the root crop from the inlet to the outlet, characterised in that the stone separator comprises a cyclonic separator with a vortex generator for swirling liquid within the separator housing for generating a vortex within the separator housing forming the first liquid stream.
Method for processing data in a telecommunications network, the method being implemented in a first server of the telecommunications network and comprising the following steps: - receiving a first session initiation request from a second server of a service provider, said first request containing a service provider identifier; - from the service provider identifier, obtaining a set of technical parameters of the network that are suitable for a quality of service subscribed by said service provider identified in the first request, by consulting a database matching each provider identifier, from among a plurality of provider identifiers, with at least one set of technical parameters of the network; - generating a second session initiation request from the set of technical parameters obtained, said second request containing the set of suitable technical parameters; - transmitting said second session initiation request to a resource control server of the telecommunications network. - receiving a first session initiation request from a second server of a service provider, said first request containing a service provider identifier; - from the service provider identifier, obtaining a set of technical parameters of the network that are suitable for a quality of service subscribed by said service provider identified in the first request, by consulting a database matching each provider identifier, from among a plurality of provider identifiers, with at least one set of technical parameters of the network; - generating a second session initiation request from the set of technical parameters obtained, said second request containing the set of suitable technical parameters; - transmitting said second session initiation request to a resource control server of the telecommunications network.
A container opener, comprising: an end panel (101; 201); and a cover panel (104; 204) covering an aperture (199, 299) through the end panel (101; 201), the cover panel (104; 204) extending beyond the aperture (199; 299) to form a perimeter area around the aperture (199; 299); the perimeter area being removably bonded to the end panel (101; 201), wherein a lever (102; 202) is movably attached to the end panel (101; 201), wherein the lever (102, 202) is configured to selectively debond the cover panel (104; 204) from the end panel (101, 201), characterised in that the lever is movably attached to the cover panel (104, 204), and configured to progressively debond the cover panel (104, 204) from the end panel (101, 201). an end panel (101; 201); and a cover panel (104; 204) covering an aperture (199, 299) through the end panel (101; 201), the cover panel (104; 204) extending beyond the aperture (199; 299) to form a perimeter area around the aperture (199; 299); the perimeter area being removably bonded to the end panel (101; 201), wherein a lever (102; 202) is movably attached to the end panel (101; 201), wherein the lever (102, 202) is configured to selectively debond the cover panel (104; 204) from the end panel (101, 201), characterised in that the lever is movably attached to the cover panel (104, 204), and configured to progressively debond the cover panel (104, 204) from the end panel (101, 201).
Wellbore drilling system comprising: - a drilling tower, - a drill floor having a well center through which a drill string passes along a firing line, - a drilling tubulars storage rack (10, 11) adapted to store multiple drilling tubulars in vertical orientation, - a tubular racking device (40, 40') having at least a lower first tubular racker assembly (41, 41'; 141, 141') and at least a second tubular racker assembly (42, 42'; 142, 142') operable at a greater height than the lower first tubular racker assembly, each tubular racker assembly comprises a base (41b'; 141'b), a motion arm (41b; 142'b) connected to said base, and a tubular gripper member (41t; 141t) connected or connectable to the motion arm and adapted to grip a tubular, wherein - with the tubular gripping member connected to the motion arm of the racker assemblies - the tubular racking device is adapted to grip and retain a drilling tubular by the tubular racker assemblies, and wherein the tubular racking device is adapted to place a tubular in and remove a tubular from the drilling tubulars storage rack (10, 11), and wherein the tubular racking device has a reach at least allowing to transfer a tubular gripped by said first and second tubular racker assemblies between the drilling tubulars storage rack (10, 11) and a position of the tubular aligned with the firing line above the well center so as to allow for building and disassembly of a tubulars string, e.g. a drill string or a casing string, wherein the system further comprises one or more well center tools, each adapted for operation above the well center of the drill floor, e.g. an iron roughneck tool for making up and breaking out of threaded tubular joints, characterized in that the motion arm of the lower first tubular racker assembly is provided with a connector, and the at least one well center tool is provided with a complementary connector, and wherein - with the at least one well center tool connected to the motion arm of the lower first tubular racker assembly - the well center tool is operable above the drill floor. - a drilling tower, - a drill floor having a well center through which a drill string passes along a firing line, - a drilling tubulars storage rack (10, 11) adapted to store multiple drilling tubulars in vertical orientation, - a tubular racking device (40, 40') having at least a lower first tubular racker assembly (41, 41'; 141, 141') and at least a second tubular racker assembly (42, 42'; 142, 142') operable at a greater height than the lower first tubular racker assembly, each tubular racker assembly comprises a base (41b'; 141'b), a motion arm (41b; 142'b) connected to said base, and a tubular gripper member (41t; 141t) connected or connectable to the motion arm and adapted to grip a tubular,
A transmission apparatus, comprising: a message generating section configured to generate a signaling message on each of assets, the assets including timed media and non-timed media; and a transmission section configured to transmit packets in a MPEG media transport system, the packets storing the signaling message, wherein the timed media include items corresponding to video, audio and/or caption data, wherein the non-timed media include items corresponding to files or directories of an application, characterized in that the signaling message includes - a first table, the first table indicating presentation unit identification information and item tag information, the presentation unit identification information identifying a presentation unit of the application and the item tag information identifying an item included in the presentation unit of the application, and - a second table indicating item identification information identifying an item on a transport stream, the item identification information corresponding to the item tag information identifying an item included in the presentation unit of the application. a message generating section configured to generate a signaling message on each of assets, the assets including timed media and non-timed media; and a transmission section configured to transmit packets in a MPEG media transport system, the packets storing the signaling message, wherein the timed media include items corresponding to video, audio and/or caption data, wherein the non-timed media include items corresponding to files or directories of an application, characterized in that the signaling message includes - a first table, the first table indicating presentation unit identification information and item tag information, the presentation unit identification information identifying a presentation unit of the application and the item tag information identifying an item included in the presentation unit of the application, and - a second table indicating item identification information identifying an item on a transport stream, the item identification information corresponding to the item tag information identifying an item included in the presentation unit of the application. - a first table, the first table indicating presentation unit identification information and item tag information, the presentation unit identification information identifying a presentation unit of the application and the item tag information identifying an item included in the presentation unit of the application, and - a second table indicating item identification information identifying an item on a transport stream, the item identification information corresponding to the item tag information identifying an item included in the presentation unit of the application.