mhurhangee/ep-ind-claims huggingface dataset:
A method of allocating a resource by a Base Station, BS, in a wireless access system supporting Full Duplex Radio, FDR, transmission, the method comprising: selecting candidate FDR UEs to be configured as a group among a plurality of FDR UEs, wherein the candidate FDR UEs are selected in response to a reception of a request from the plurality of FDR UEs for participating in a Full Duplex, FD, mode on a same resource; transmitting information about group configuration to the candidate FDR UEs; receiving interference information about inter-device interference from the candidate FDR UEs, wherein the inter-device interference is interference caused by several FDR UEs in FDR transmission using the same resource; configuring the candidate FDR UEs as the group based on the interference information; and allocating a resource to the candidate FDR UEs configured as the group on a group basis. selecting candidate FDR UEs to be configured as a group among a plurality of FDR UEs, wherein the candidate FDR UEs are selected in response to a reception of a request from the plurality of FDR UEs for participating in a Full Duplex, FD, mode on a same resource; transmitting information about group configuration to the candidate FDR UEs; receiving interference information about inter-device interference from the candidate FDR UEs, wherein the inter-device interference is interference caused by several FDR UEs in FDR transmission using the same resource; configuring the candidate FDR UEs as the group based on the interference information; and allocating a resource to the candidate FDR UEs configured as the group on a group basis.
A method for producing a purified chlorogenic acids composition, comprising a step A of bringing a chlorogenic acids-containing composition into contact with a cation exchange resin; a step B of bringing a liquid obtained in the step A into contact with a weakly basic anion exchange resin; and a step C of bringing an aqueous alkali hydroxide solution or an aqueous alkali carbonate solution into contact with the weakly basic anion exchange resin after the step B.
A seal structure for a fuel cell in which a plurality of cells are stacked, each cell including an electrolyte, a fuel electrode, an air electrode and a support member, characterized in that the support member includes a support portion that supports an electric power generation portion of the cell and a seal portion that is located outside the electric power generation portion and seals between cells adjacent to each other, the seal structure comprising: an outer-side wall portion and an inner-side wall portion that are located between seal portions adjacent to each other, the outer-side wall portion being located on a side of an outer circumference of one of the seal portions and protruded from the one of the seal portions toward another of the seal portions, and the inner-side wall portion being located on the other of the seal portions and on a side closer to the electric power generation portion than the outer-side wall portion and protruded from the other of the seal portions toward the one of the seal portions; an elastic member (33, 33A-33D) that is provided between the outer-side wall portion and the inner-side wall portion, and presses the both wall portions (17a, 17b) in directions as being distanced away from each other; and a seal member (35, 37) that is provided between at least one of the outer-side wall portion and the inner-side wall portion and the elastic member (33, 33A-33D). an outer-side wall portion and an inner-side wall portion that are located between seal portions adjacent to each other, the outer-side wall portion being located on a side of an outer circumference of one of the seal portions and protruded from the one of the seal portions toward another of the seal portions, and the inner-side wall portion being located on the other of the seal portions and on a side closer to the electric power generation portion than the outer-side wall portion and protruded from the other of the seal portions toward the one of the seal portions; an elastic member (33, 33A-33D) that is provided between the outer-side wall portion and the inner-side wall portion, and presses the both wall portions (17a, 17b) in directions as being distanced away from each other; and a seal member (35, 37) that is provided between at least one of the outer-side wall portion and the inner-side wall portion and the elastic member (33, 33A-33D).
A process for preparing an encapsulated particulate solid colorant dispersed in a liquid medium comprising cross-linking a dispersant with a cross-linking agent in the presence of a particulate solid colorant and the liquid medium, thereby encapsulating the particulate solid colorant within the cross-linked dispersant, wherein: a) the dispersant has at least one carboxylic acid group; b) the cross-linking agent has at least two epoxy groups; and c) the cross-linking is performed in the presence of a borate compound. a) the dispersant has at least one carboxylic acid group; b) the cross-linking agent has at least two epoxy groups; and c) the cross-linking is performed in the presence of a borate compound.
A patient support apparatus comprising: a patient support, a weighing scale comprising a plurality of load cells that support the patient support, each load cell configured to produce a signal indicative of a load on that load cell, and a controller in communication with the plurality of load cells, characterized in that the controller is configured to: determine whether the patient support is supporting a patient, calibrate the weighing scale to zero state, detect, subsequent to zeroing the weighing scale, any non-patient weight events on the patient support, determine a net weight change of the patient being supported on the patient support over an occupancy time period by accounting for the non-patient weight events to distinguish between a change in an actual weight of the patient and other non-patient weight events, and update an actual weight of the patient being supported on the patient support using the determined net weight change of the patient. a patient support, a weighing scale comprising a plurality of load cells that support the patient support, each load cell configured to produce a signal indicative of a load on that load cell, and a controller in communication with the plurality of load cells, determine whether the patient support is supporting a patient, calibrate the weighing scale to zero state, detect, subsequent to zeroing the weighing scale, any non-patient weight events on the patient support, determine a net weight change of the patient being supported on the patient support over an occupancy time period by accounting for the non-patient weight events to distinguish between a change in an actual weight of the patient and other non-patient weight events, and update an actual weight of the patient being supported on the patient support using the determined net weight change of the patient.
A welding-type system, comprising: a welding-type power source configured to generate output power for an arc welding process; a bi-directional wire feeder to advance or retract an electrode wire to or from a workpiece; one or more sensors configured to measure one or more welding process parameters; and a controller to generate control signals based on the one or more welding process parameters; characterized by: a switch to provide an alternative current path for arc current between an electrode wire and a workpiece, wherein the switch is configured to close to redirect all or part of the arc current through the alternative current path in response to one or more welding process parameters exceeding a first threshold value corresponding t 0 a short clearance event, wherein the switch is configured to fully or partially close to adjust the amount of the arc current flowing through the alternative current path based on the control signals. a welding-type power source configured to generate output power for an arc welding process; a bi-directional wire feeder to advance or retract an electrode wire to or from a workpiece; one or more sensors configured to measure one or more welding process parameters; and a controller to generate control signals based on the one or more welding process parameters; characterized by: a switch to provide an alternative current path for arc current between an electrode wire and a workpiece, wherein the switch is configured to close to redirect all or part of the arc current through the alternative current path in response to one or more welding process parameters exceeding a first threshold value corresponding t 0 a short clearance event, wherein the switch is configured to fully or partially close to adjust the amount of the arc current flowing through the alternative current path based on the control signals. a switch to provide an alternative current path for arc current between an electrode wire and a workpiece, wherein the switch is configured to close to redirect all or part of the arc current through the alternative current path in response to one or more welding process parameters exceeding a first threshold value corresponding t 0 a short clearance event, wherein the switch is configured to fully or partially close to adjust the amount of the arc current flowing through the alternative current path based on the control signals.
Ultrasound sensor having a pot-shaped diaphragm which has an oscillatory diaphragm base and which has a diaphragm wall which surrounds the diaphragm base at least sectionally, wherein the diaphragm wall has a foam-like structure at least sectionally, and the diaphragm base is composed of the same material as the diaphragm wall, characterized in that the diaphragm base has a defoamed structure.
A system with - a radiographic device for recording an X-ray image on a storage film and - a scanning device for the storage film, which comprises, as a source of readout light, a laser which generates a readout light beam for readout of the storage film, characterised in that the storage film includes, as a data carrier, an optically readable marking with regions of increased reflectivity and regions of lower reflectivity, and the scanning device comprises a data device (18, 20) for reading information stored on the data carrier, wherein the data device (18, 20) is configured to generate and detect a scattered light arising from the different reflectivities of the optically readable marking by means of the readout light beam of the scanning device. - a radiographic device for recording an X-ray image on a storage film and - a scanning device for the storage film, which comprises, as a source of readout light, a laser which generates a readout light beam for readout of the storage film, the storage film includes, as a data carrier, an optically readable marking with regions of increased reflectivity and regions of lower reflectivity, and the scanning device comprises a data device (18, 20) for reading information stored on the data carrier, wherein the data device (18, 20) is configured to generate and detect a scattered light arising from the different reflectivities of the optically readable marking by means of the readout light beam of the scanning device.
A computer-implemented monitoring method of a steelmaking process in a steelmaking vessel, wherein matters M n, each having its respective properties P Mn with n being superior or equal to 2 are charged into said steelmaking vessel so as to produce a liquid steel and a slag, the method comprising the steps of: a. Defining at least one set of target characteristics TCS Y of the liquid steel to be produced, b. Defining at least two slag targets ST X, each of these slag targets comprising values representative of the slag properties, c. Calculating, for each slag target STx, a matter amount AM YX to be charged into the steelmaking vessel allowing to reach the at least one defined set of target characteristics TCS Y, taking into account respective properties of each matter P Mn, said matter amount AM YX comprising the individual amount a YX M n of each matter M n to be charged, d. Selecting one of the previously calculated matter amounts AM YX, together with its associated combination of steel target characteristics TC SY and slag target STx, e. Send selected matter amount AM YX to the operator in charge of the steelmaking process or to automatic loading means in charge of loading the steelmaking vessel with the different matters M n. a. Defining at least one set of target characteristics TCS Y of the liquid steel to be produced, b. Defining at least two slag targets ST X, each of these slag targets comprising values representative of the slag properties, c. Calculating, for each slag target STx, a matter amount AM YX to be charged into the steelmaking vessel allowing to reach the at least one defined set of target characteristics TCS Y, taking into account respective properties of each matter P Mn, said matter amount AM YX comprising the individual amount a YX M n of each matter M n to be charged, d. Selecting one of the previously calculated matter amounts AM YX, together with its associated combination of steel target characteristics TC SY and slag target STx, e. Send selected matter amount AM YX to the operator in charge of the steelmaking process or to automatic loading means in charge of loading the steelmaking vessel with the different matters M n.
A fabrication method of an element with nanogap electrodes including a first electrode, a second electrode provided above the first electrode, and a gap provided between the first electrode and the second electrode, the gap being in an order of nanometer to allow resistive state to be switched by applying a predetermined voltage between the first electrode and the second electrode, the method comprising: forming the first electrode; forming a spacer in contact with an upper surface of the first electrode; forming the second electrode in contact with an upper surface of the spacer; and removing the spacer to form the gap, wherein the gap is sized such that a tunnel current occurs between the first electrode and the second electrode by applying the predetermined voltage, and wherein the material of the first electrode as well as the material of the second electrode is metal. forming the first electrode; forming a spacer in contact with an upper surface of the first electrode; forming the second electrode in contact with an upper surface of the spacer; and removing the spacer to form the gap, wherein the gap is sized such that a tunnel current occurs between the first electrode and the second electrode by applying the predetermined voltage, and wherein the material of the first electrode as well as the material of the second electrode is metal.
A method implemented by a network traffic management system comprising one or more network traffic management apparatuses, server devices, or client devices, the method comprising: scheduling a deployment of a first software module to execute a first service on a computing node based on an availability of general-purpose computing resources at the computing node, the computing node selected from a plurality of computing nodes; analyzing network traffic transiting the computing node during the execution of the first service to determine a hardware accelerator of the computing node is capable of assisting the execution of the first service; in response to determining the hardware accelerator of the computing node is capable of assisting the execution of the first service, dynamically reconfiguring hardware of the computing node to implement the hardware accelerator; using the hardware accelerator to assist with the execution of the first service; and scheduling a deployment of a second software module to execute a second service on the computing node based on the availability of the general-purpose computing resources and the usage of the hardware accelerator on the computing node. scheduling a deployment of a first software module to execute a first service on a computing node based on an availability of general-purpose computing resources at the computing node, the computing node selected from a plurality of computing nodes; analyzing network traffic transiting the computing node during the execution of the first service to determine a hardware accelerator of the computing node is capable of assisting the execution of the first service; in response to determining the hardware accelerator of the computing node is capable of assisting the execution of the first service, dynamically reconfiguring hardware of the computing node to implement the hardware accelerator; using the hardware accelerator to assist with the execution of the first service; and scheduling a deployment of a second software module to execute a second service on the computing node based on the availability of the general-purpose computing resources and the usage of the hardware accelerator on the computing node.
Diffuser device for an air flow in the compartment of a railway vehicle, defining a circulation channel suitable for circulating an air flow, the diffusion device consisting of different parts, characterised in that at least one of the parts of the diffusion device is composed of thermo-compressed fibres, in that the diffusion device comprises two walls made of thermo-compressed fibres, the two walls being joined together to form part of the airflow channel, in that the diffusion device comprises an airflow inlet and an airflow outlet and is adapted to circulate the airflow from the inlet to the outlet; and in that the outlet of the air flow is adapted to be connected to said compartment. characterised in that at least one of the parts of the diffusion device is composed of thermo-compressed fibres, in that the diffusion device comprises two walls made of thermo-compressed fibres, the two walls being joined together to form part of the airflow channel, in that the diffusion device comprises an airflow inlet and an airflow outlet and is adapted to circulate the airflow from the inlet to the outlet; and in that the outlet of the air flow is adapted to be connected to said compartment.
A method for regulating an access regime to an object, wherein a blocking element can be associated to the object, wherein the blocking element can release an access to the object depending on a verification of an electronic authorization information, wherein, in particular for performing the verification of the electronic authorization information, a precondition for releasing the access is a presence of a generic mobile element at the location of the blocking element, and wherein the authorization information is contained in a mobile authorization carrier element, which additionally to the blocking element and to the generic mobile element is present at the location of the blocking element and/or wherein the generic mobile element does not contain the authorization information in a period of time, which is prior to the presence of the generic mobile element at the location of the blocking element and borders the presence of the generic mobile element at the location of the blocking element, characterized in that the method comprises the following steps: a. the blocking element and the generic mobile element entering in contact with each other, b. subsequently performing the verification of the authorization information, whereby preferably cableless communication occurs between the blocking element and the mobile authorization carrier element. wherein the authorization information is contained in a mobile authorization carrier element, which additionally to the blocking element and to the generic mobile element is present at the location of the blocking element and/or wherein the generic mobile element does not contain the authorization information in a period of time, which is prior to the presence of the generic mobile element at the location of the blocking element and borders the presence of the generic mobile element at the location of the blocking element, characterized in that the method comprises the following steps: a. the blocking element and the generic mobile element entering in contact with each other, b. subsequently performing the verification of the authorization information, whereby preferably cableless communication occurs between the blocking element and the mobile authorization carrier element. a. the blocking element and the generic mobile element entering in contact with each other, b. subsequently performing the verification of the authorization information, whereby preferably cableless communication occurs between the blocking element and the mobile authorization carrier element.
A metal card core (2; 2a; 2b) to be used in a credential card, comprising: a body comprising a metal material, the body defining: a cutout that includes an opening in the body, and a discontinuity (10; 10a; 10b) that includes a channel defined by the body and extending from an outer surface (12a, 12b, 14a, 14b) of the body to the cutout; and at least one circuit element (16a, 16b) positioned within the cutout, characterized in that the discontinuity comprises a sinuous line discontinuity (10; 10a; 10b) that includes at least one curved portion (34a-34d) and at least one straight line portion (36a-36c; 42a, 42b), and in that the cutout defines a size and geometry such that a gap between the at least one circuit element (16a, 16b) and an edge of the cutout has an effective spacing to electromagnetically isolate the at least one circuit element (16a, 16b) from the metal material of the body. a body comprising a metal material, the body defining: a cutout that includes an opening in the body, and a discontinuity (10; 10a; 10b) that includes a channel defined by the body and extending from an outer surface (12a, 12b, 14a, 14b) of the body to the cutout; and a cutout that includes an opening in the body, and a discontinuity (10; 10a; 10b) that includes a channel defined by the body and extending from an outer surface (12a, 12b, 14a, 14b) of the body to the cutout; and at least one circuit element (16a, 16b) positioned within the cutout, characterized in that the discontinuity comprises a sinuous line discontinuity (10; 10a; 10b) that includes at least one curved portion (34a-34d) and at least one straight line portion (36a-36c; 42a, 42b), and in that the cutout defines a size and geometry such that a gap between the at least one circuit element (16a, 16b) and an edge of the cutout has an effective spacing to electromagnetically isolate the at least one circuit element (16a, 16b) from the metal material of the body.
A process of forming an antimicrobial formulation for coating a medical device, the process comprising: milling at least one water permeable polymer with at least one antimicrobial agent in a liquid medium to form the antimicrobial formulation, wherein the at least one antimicrobial agent is not soluble in the formulation and is a silver-based antimicrobial agent, and wherein the liquid medium includes a primary C 1-6 primary alcohol; whereby milling of the formulation causes the at least one water permeable polymer to encapsulate at least a portion of the antimicrobial agent. milling at least one water permeable polymer with at least one antimicrobial agent in a liquid medium to form the antimicrobial formulation, wherein the at least one antimicrobial agent is not soluble in the formulation and is a silver-based antimicrobial agent, and wherein the liquid medium includes a primary C 1-6 primary alcohol; whereby milling of the formulation causes the at least one water permeable polymer to encapsulate at least a portion of the antimicrobial agent.