mhurhangee/patent-ind-claim-en huggingface dataset:
A method of a wireless device arranged to perform measurements of signals wirelessly transmitted from at least one network node and being associated with a first cell and a second cell, respectively, wherein the signals to be measured comprise signals of a first type and a second type, the method comprising determining whether the signals of the first type associated with the first cell and the second cell occur simultaneously; if the signals of the first type associated with the first cell and the second cell occur simultaneously (110; YES), measuring the signal of the first type associated with the first cell and measuring the signal of the second type associated with the second cell, and if the signals of the first type associated with the first cell and the second cell does not occur simultaneously (110; NO), measuring the signal of the first type associated with the first cell and the signal of the first type associated with the second cell.
A computing device comprising: one or more processors communicably coupled with a printing apparatus , wherein the one or more processors are configured to: receive, from the printing apparatus , a utilization dataset pertaining to each heating element in a first set of heating elements , wherein the first set of heating elements are located in a print head of the printing apparatus ; analyze the utilization dataset to identify one or more overutilized heating elements of the first set of heating elements ; generate a print job, the print job including data to be printed and defining a position of the data to be printed on a print medium; determine that printing of the print job requires energization of at least one of the one or more overutilized heating elements; modify data included in the print job; and transmit the modified print job to the printing apparatus , characterized in that the one or more processors are configured such that the modifying of the data included in the print job includes shifting the position of the data to be printed such that a different set of heating elements is energized during the printing of the modified print job. receive, from the printing apparatus , a utilization dataset pertaining to each heating element in a first set of heating elements , wherein the first set of heating elements are located in a print head of the printing apparatus ; analyze the utilization dataset to identify one or more overutilized heating elements of the first set of heating elements ; generate a print job, the print job including data to be printed and defining a position of the data to be printed on a print medium; determine that printing of the print job requires energization of at least one of the one or more overutilized heating elements; modify data included in the print job; and transmit the modified print job to the printing apparatus , characterized in that the one or more processors are configured such that the modifying of the data included in the print job includes shifting the position of the data to be printed such that a different set of heating elements is energized during the printing of the modified print job.
A transcranial magnetic stimulation (TMS) device comprising: a treatment coil comprising: a base portion that is configured to reside near a cranial surface of a human subject and is configured to substantially conform to the cranial surface of the human subject; and a protruding portion that is angularly offset from the base portion and extends outwardly from the base portion in a direction away from the surface of the human subject; and a ferromagnetic component configured to at least partially enclose the base portion (614, and configured such that the protruding portion extends through a central opening of the ferromagnetic component ; wherein the treatment coil and the ferromagnetic component , in cooperative operation, are configured to generate a magnetic field in a target anatomy of the human subject; and wherein the magnetic field is further configured to induce return currents in the subject, and the ferromagnetic component is configured to spread the return currents generated by the magnetic field, such that the return currents cover a larger region in the subject as compared to the size of the region covered by the return currents induced by a magnetic field generated by the treatment coil without the inclusion of the ferromagnetic component . a treatment coil comprising: a base portion that is configured to reside near a cranial surface of a human subject and is configured to substantially conform to the cranial surface of the human subject; and a protruding portion that is angularly offset from the base portion and extends outwardly from the base portion in a direction away from the surface of the human subject; and a base portion that is configured to reside near a cranial surface of a human subject and is configured to substantially conform to the cranial surface of the human subject; and a protruding portion that is angularly offset from the base portion and extends outwardly from the base portion in a direction away from the surface of the human subject; and a ferromagnetic component configured to at least partially enclose the base portion (614, and configured such that the protruding portion extends through a central opening of the ferromagnetic component ; wherein the treatment coil and the ferromagnetic component , in cooperative operation, are configured to generate a magnetic field in a target anatomy of the human subject; and wherein the magnetic field is further configured to induce return currents in the subject, and the ferromagnetic component is configured to spread the return currents generated by the magnetic field, such that the return currents cover a larger region in the subject as compared to the size of the region covered by the return currents induced by a magnetic field generated by the treatment coil without the inclusion of the ferromagnetic component .
A film suitable for use as an optical reflector in LED lighting and LED backlit units, the film comprising: a) a substrate film layer comprised of a thermoplastic polymer or a metal sheet; and b) an acrylic coating on at least one side of the substrate film layer, wherein the acrylic coating is comprised of an acrylic polymer and one or more white pigments, wherein the acrylic polymer has a Tg of at least 80°C and wherein the white pigment comprises from 55 to 85 weight % of the acrylic coating. a) a substrate film layer comprised of a thermoplastic polymer or a metal sheet; and b) an acrylic coating on at least one side of the substrate film layer, wherein the acrylic coating is comprised of an acrylic polymer and one or more white pigments,
A method for fixing and treating a flexible plate on a drum with a plurality of vacuum suction openings, said method comprising the steps: - providing a flexible plate comprising a support layer made of a first material and at least one additional layer made of a second material which is different from said first material, wherein one or more thin film side wings are connected to one or more sides of the flexible plate, said one or more thin film side wings having a thickness which is at least 5 times smaller than the thickness of the flexible plate, said one or more thin film side wings having a lower face which is substantially free from adhesive; - positioning the flexible plate on the drum such that the lower face of each thin film side wing of the flexible plate covers at least one vacuum suction opening of the plurality of vacuum suction openings; - rotating the drum whilst applying vacuum through the plurality of vacuum suction openings, and performing a treatment on at least one layer of said at least one additional layer of the flexible plate whilst rotating the drum. - providing a flexible plate comprising a support layer made of a first material and at least one additional layer made of a second material which is different from said first material, wherein one or more thin film side wings are connected to one or more sides of the flexible plate, said one or more thin film side wings having a thickness which is at least 5 times smaller than the thickness of the flexible plate, said one or more thin film side wings having a lower face which is substantially free from adhesive; - positioning the flexible plate on the drum such that the lower face of each thin film side wing of the flexible plate covers at least one vacuum suction opening of the plurality of vacuum suction openings; - rotating the drum whilst applying vacuum through the plurality of vacuum suction openings, and performing a treatment on at least one layer of said at least one additional layer of the flexible plate whilst rotating the drum.
An apparatus for pyrolysing and combusting a material, the apparatus comprising: one or more crucibles for receiving a material to be pyrolysed and combusted therein; and one or more heating tubes (100-210) disposed around the crucible(s) , wherein the or each heating tube (100-210) is configured for: receiving byproduct(s) via a conduit produced during pyrolysis and combustion of the material within the crucible(s); mixing, in a mixing chamber (110A-210A) a hydroxy gas comprising a mix of hydrogen and oxygen with the byproduct(s); and igniting the hydroxy gas, via an electronic ignition device that is electrically connected to the or each heating tube (100-210) to pyrolyse and combust the mixture of the byproduct(s) and the hydroxy gas to produce processed gas from the byproduct(s). one or more crucibles for receiving a material to be pyrolysed and combusted therein; and one or more heating tubes (100-210) disposed around the crucible(s) , wherein the or each heating tube (100-210) is configured for: receiving byproduct(s) via a conduit produced during pyrolysis and combustion of the material within the crucible(s); mixing, in a mixing chamber (110A-210A) a hydroxy gas comprising a mix of hydrogen and oxygen with the byproduct(s); and igniting the hydroxy gas, via an electronic ignition device that is electrically connected to the or each heating tube (100-210) to pyrolyse and combust the mixture of the byproduct(s) and the hydroxy gas to produce processed gas from the byproduct(s). receiving byproduct(s) via a conduit produced during pyrolysis and combustion of the material within the crucible(s); mixing, in a mixing chamber (110A-210A) a hydroxy gas comprising a mix of hydrogen and oxygen with the byproduct(s); and igniting the hydroxy gas, via an electronic ignition device that is electrically connected to the or each heating tube (100-210) to pyrolyse and combust the mixture of the byproduct(s) and the hydroxy gas to produce processed gas from the byproduct(s).
A method comprising: receiving, at a network element, first network traffic directed to a first address associated with a first network node; forwarding the first network traffic to the first network node; receiving from the first network node the first network traffic directed to a second address associated with a second network node coupled to the network element and a forwarding policy for a second network traffic, wherein the second network traffic originates from the second network node; identifying a plurality of ports of the network element, wherein the second network node is accessible from the network element through each of the plurality of ports; forwarding the first network traffic to the second network node via one of the plurality of ports; configuring the plurality of ports of the network element to apply the forwarding policy; receiving the second network traffic from the second network node at one of the plurality of ports; and applying the forwarding policy by forwarding the second network traffic to the first network node. receiving, at a network element, first network traffic directed to a first address associated with a first network node; forwarding the first network traffic to the first network node; receiving from the first network node the first network traffic directed to a second address associated with a second network node coupled to the network element and a forwarding policy for a second network traffic, wherein the second network traffic originates from the second network node; identifying a plurality of ports of the network element, wherein the second network node is accessible from the network element through each of the plurality of ports; forwarding the first network traffic to the second network node via one of the plurality of ports; configuring the plurality of ports of the network element to apply the forwarding policy; receiving the second network traffic from the second network node at one of the plurality of ports; and applying the forwarding policy by forwarding the second network traffic to the first network node.
A power switching cell comprising: - an input port capable of receiving a switching control signal (V IN ), - an input transistor (T com ) having a gate linked to said input port, and a source linked to a reference voltage (Vss), - a self-biasing circuit (P) comprising a resistor (R pol ) and a self-biasing transistor (T pol ), a gate of said self-biasing transistor being linked to a drain of said input transistor (T com ), the resistor (R pol ) being connected in parallel between a gate and a source of said self-biasing transistor (T pol ) and in series between a drain of the input transistor and a source of said self-biasing transistor (T pol ), - a power transistor (T p ), having a gate linked to a source of the self-biasing transistor (T pol ), a drain linked to a power supply voltage (V DD ), and a source linked to a drain of the self-biasing transistor (T pol ), and - an output port, the switching cell being characterised in that it further comprises an isolating transistor (T iso ) having a gate linked to a gate of the power transistor (T p ), a source linked to a source of the power transistor (T p ) and a drain linked to said output port of the cell. - an input port capable of receiving a switching control signal (V IN ), - an input transistor (T com ) having a gate linked to said input port, and a source linked to a reference voltage (Vss), - a self-biasing circuit (P) comprising a resistor (R pol ) and a self-biasing transistor (T pol ), a gate of said self-biasing transistor being linked to a drain of said input transistor (T com ), the resistor (R pol ) being connected in parallel between a gate and a source of said self-biasing transistor (T pol ) and in series between a drain of the input transistor and a source of said self-biasing transistor (T pol ), - a power transistor (T p ), having a gate linked to a source of the self-biasing transistor (T pol ), a drain linked to a power supply voltage (V DD ), and a source linked to a drain of the self-biasing transistor (T pol ), and - an output port,
A cell cartridge , comprising: a first pouch cell having a first fixing portion extending out of a sealing portion of the first pouch cell ; a second pouch cell having a second fixing portion extending out of a sealing portion of the second pouch cell ; and a cartridge configured to accommodate a cell stack formed by stacking the first pouch cell and the second pouch cell , wherein the first fixing portion is bent toward the second pouch cell to restrict movement of the second pouch cell , and wherein the second fixing portion is bent toward the first pouch cell to restrict movement of the first pouch cell . a first pouch cell having a first fixing portion extending out of a sealing portion of the first pouch cell ; a second pouch cell having a second fixing portion extending out of a sealing portion of the second pouch cell ; and a cartridge configured to accommodate a cell stack formed by stacking the first pouch cell and the second pouch cell , wherein the first fixing portion is bent toward the second pouch cell to restrict movement of the second pouch cell , and wherein the second fixing portion is bent toward the first pouch cell to restrict movement of the first pouch cell .
A sub frame configuration method, comprising: classifying (S101), by a base station, user equipments, UEs, in a first cell into N user groups, wherein UEs in a same user group of the N user groups have a same uplink-downlink subframe configuration, and N is a positive integer greater than or equal to 2; determining (S102), by the base station, a primary uplink-downlink subframe configuration of the first cell according to an uplink-downlink subframe configuration of each user group in the N user groups, wherein the primary uplink-downlink subframe configuration indicates a flexible subframe, and a transmission direction of the flexible subframe is variable; determining (S103), by the base station, configuration indication information of each user group according to the primary uplink-downlink subframe configuration and the uplink-downlink subframe configuration of each user group, wherein the configuration indication information indicates a transmission direction of the flexible subframe in each user group; and sending (SI04), by the base station, the primary uplink-downlink subframe configuration and the configuration indication information to each user group. classifying (S101), by a base station, user equipments, UEs, in a first cell into N user groups, wherein UEs in a same user group of the N user groups have a same uplink-downlink subframe configuration, and N is a positive integer greater than or equal to 2; determining (S102), by the base station, a primary uplink-downlink subframe configuration of the first cell according to an uplink-downlink subframe configuration of each user group in the N user groups, wherein the primary uplink-downlink subframe configuration indicates a flexible subframe, and a transmission direction of the flexible subframe is variable; determining (S103), by the base station, configuration indication information of each user group according to the primary uplink-downlink subframe configuration and the uplink-downlink subframe configuration of each user group, wherein the configuration indication information indicates a transmission direction of the flexible subframe in each user group; and sending (SI04), by the base station, the primary uplink-downlink subframe configuration and the configuration indication information to each user group.
Cleaning turbine having a cylindrical shape with an axis of rotation (Z) and provided with a concave base surface facing toward the work zone, with an upper surface , opposite the base surface , and a circumferential surface interposed between the base surface and the upper surface , said cleaning turbine being provided circumferentially with a plurality of slits angularly distanced from each other, facing upward and passing through said base surface and said upper surface , characterized in that said cleaning turbine is also provided with a plurality of lateral apertures each of which extends radially from said slits to said circumferential surface .
A medical device, comprising: a disposable Ear-Nose-Throat (ENT) tool , which is configured to perform a medical procedure in a patient ENT organ; a reusable handle , which is configured to hold and control the disposable ENT tool, and which comprises a position sensor configured to produce one or more position signals that are indicative of a first position of the reusable handle, wherein the handle comprises a mechanical connector configured to connect the disposable ENT tool to the handle, wherein the disposable ENT tool comprises a remotely readable memory configured to store a tool offset value indicative of a vector between coordinates of a point of connection of the disposable ENT tool to the connector and coordinates of a distal tip of the disposable ENT tool; and a processor , which is configured to: store a handle offset value indicative of a vector between coordinates of the mechanical connector and coordinates of the position sensor; read the tool offset value stored in the remotely readable memory; receive the position signals from the position sensor; and estimate, based on the position signals and a vector sum of the handle offset value and the tool offset value, a position of the distal tip of the disposable ENT tool in the patient ENT organ. a disposable Ear-Nose-Throat (ENT) tool , which is configured to perform a medical procedure in a patient ENT organ; a reusable handle , which is configured to hold and control the disposable ENT tool, and which comprises a position sensor configured to produce one or more position signals that are indicative of a first position of the reusable handle, wherein the handle comprises a mechanical connector configured to connect the disposable ENT tool to the handle, wherein the disposable ENT tool comprises a remotely readable memory configured to store a tool offset value indicative of a vector between coordinates of a point of connection of the disposable ENT tool to the connector and coordinates of a distal tip of the disposable ENT tool; and a processor , which is configured to: store a handle offset value indicative of a vector between coordinates of the mechanical connector and coordinates of the position sensor; read the tool offset value stored in the remotely readable memory; receive the position signals from the position sensor; and estimate, based on the position signals and a vector sum of the handle offset value and the tool offset value, a position of the distal tip of the disposable ENT tool in the patient ENT organ. store a handle offset value indicative of a vector between coordinates of the mechanical connector and coordinates of the position sensor; read the tool offset value stored in the remotely readable memory; receive the position signals from the position sensor; and estimate, based on the position signals and a vector sum of the handle offset value and the tool offset value, a position of the distal tip of the disposable ENT tool in the patient ENT organ.