mhurhangee/ep-ind-claims huggingface dataset:
A method for transmitting wireless power in a wireless power network managed by a wireless power transmitter, the method comprising: transmitting, by one resonator of the wireless power transmitter, a first power for charging a first power receiver; while outputting the first power for charging the first power receiver, receiving through a communication unit of the wireless power transmitter, a first signal from a second power receiver, the first signal being a wireless power transmitter search signal; transmitting, through the communication unit, a second signal corresponding to the first signal to the second power receiver, the second signal being a search response signal; receiving, through the communication unit, from the second power receiver, a third signal, the third signal being a request join signal; based on determining that the wireless power transmitter is capable of providing power to the second power receiver based on information in the third signal, transmitting, to the second power receiver through the communication unit, a fourth signal being a response join signal, and a command signal enabling the second power receiver to perform charging by turning on a switching unit of the second power receiver which is connected to a charging unit of the second power receiver, and transmitting, by the one resonator, a second power for charging the first power receiver and the second power receiver, wherein the second power is greater than the first power. transmitting, by one resonator of the wireless power transmitter, a first power for charging a first power receiver; while outputting the first power for charging the first power receiver, receiving through a communication unit of the wireless power transmitter, a first signal from a second power receiver, the first signal being a wireless power transmitter search signal; transmitting, through the communication unit, a second signal corresponding to the first signal to the second power receiver, the second signal being a search response signal; receiving, through the communication unit, from the second power receiver, a third signal, the third signal being a request join signal; based on determining that the wireless power transmitter is capable of providing power to the second power receiver based on information in the third signal, transmitting, to the second power receiver through the communication unit, a fourth signal being a response join signal, and a command signal enabling the second power receiver to perform charging by turning on a switching unit of the second power receiver which is connected to a charging unit of the second power receiver, and transmitting, by the one resonator, a second power for charging the first power receiver and the second power receiver, wherein the second power is greater than the first power.
A method performed by a radio node for frequency offset estimation, the method comprising: receiving a first set of reference symbols of a reference signal during respective time resources; determining a first frequency offset estimate using the first set of reference symbols; receiving a second set of reference symbols of the reference signal during respective time resources, wherein the first set of reference symbols is a subset of the second set of reference symbols; characterized by: determining symbol-to-symbol phase changes over time across the reference symbols in the second set, with symbol-to-symbol phase changes being within a set of possible phase changes that has a range of 2π and that is calculated based on the first frequency offset estimate; and determining, for each reference symbol in the second set, the phase of that reference symbol within a set of possible phases that has a range greater than 2π by calculating a partial sum of the symbol-to-symbol phase changes up to the time resource during which that reference symbol was received; and determining a second frequency offset estimate based on the determined phases. receiving a first set of reference symbols of a reference signal during respective time resources; determining a first frequency offset estimate using the first set of reference symbols; receiving a second set of reference symbols of the reference signal during respective time resources, wherein the first set of reference symbols is a subset of the second set of reference symbols; characterized by: determining symbol-to-symbol phase changes over time across the reference symbols in the second set, with symbol-to-symbol phase changes being within a set of possible phase changes that has a range of 2π and that is calculated based on the first frequency offset estimate; and determining, for each reference symbol in the second set, the phase of that reference symbol within a set of possible phases that has a range greater than 2π by calculating a partial sum of the symbol-to-symbol phase changes up to the time resource during which that reference symbol was received; and determining a second frequency offset estimate based on the determined phases. determining symbol-to-symbol phase changes over time across the reference symbols in the second set, with symbol-to-symbol phase changes being within a set of possible phase changes that has a range of 2π and that is calculated based on the first frequency offset estimate; and determining, for each reference symbol in the second set, the phase of that reference symbol within a set of possible phases that has a range greater than 2π by calculating a partial sum of the symbol-to-symbol phase changes up to the time resource during which that reference symbol was received; and determining a second frequency offset estimate based on the determined phases.
A positive electrode active material for a secondary battery, the positive electrode active material comprising: lithium composite transition metal oxide particles including 70 mol% or more of nickel (Ni) among total metals excluding lithium; and a coating portion formed on surfaces of the lithium composite transition metal oxide particles, wherein the coating portion comprises a compound including fluorine and at least one selected from the group consisting of aluminum (Al), titanium (Ti), magnesium (Mg), zirconium (Zr), tungsten, and strontium (Sr), wherein the positive electrode active material has a Brunauer-Emmett-Teller specific surface area in a range of 0.1 m 2 /g to 0.9 m 2 /g, and wherein an amount of a lithium by-product on a surface of the positive electrode active material is 0.65 wt% or less based on a total weight of the positive electrode active material. lithium composite transition metal oxide particles including 70 mol% or more of nickel (Ni) among total metals excluding lithium; and a coating portion formed on surfaces of the lithium composite transition metal oxide particles, wherein the coating portion comprises a compound including fluorine and at least one selected from the group consisting of aluminum (Al), titanium (Ti), magnesium (Mg), zirconium (Zr), tungsten, and strontium (Sr), wherein the positive electrode active material has a Brunauer-Emmett-Teller specific surface area in a range of 0.1 m 2 /g to 0.9 m 2 /g, and wherein an amount of a lithium by-product on a surface of the positive electrode active material is 0.65 wt% or less based on a total weight of the positive electrode active material.
An implantable medical device comprising a metallic layer on which is located a surface dielectric insulating layer comprising titanium oxide, the dielectric insulating layer having ions thereon which are capable of forming an electrostatic charge capable of locally creating an electric field associated with at least part of the surface of said implantable medical device upon application of an electrolyte solution to said surface; and wherein the dielectric insulating layer has a thickness in the range 1nm - 100μm and said ions include Mg 2+ cations applied to said dielectric layer.
A system for estimating a quantity of fluid in a container, the system comprising: a plurality of integrated sensor units, each of the sensor units comprising: a pressure sensor configured to measure a pressure at a physical location of the sensor unit; an acceleration sensor configured to measure at least three components of an acceleration vector at the physical location of the sensor unit; and a temperature sensor configured to measure a temperature at the physical location of the sensor unit; and a remote data concentrator; wherein each of the sensor units is configured to provide an output signal comprising the pressure, acceleration, and temperature measurements to the remote data concentrator via a communication pathway. a plurality of integrated sensor units, each of the sensor units comprising: a pressure sensor configured to measure a pressure at a physical location of the sensor unit; an acceleration sensor configured to measure at least three components of an acceleration vector at the physical location of the sensor unit; and a temperature sensor configured to measure a temperature at the physical location of the sensor unit; and a pressure sensor configured to measure a pressure at a physical location of the sensor unit; an acceleration sensor configured to measure at least three components of an acceleration vector at the physical location of the sensor unit; and a temperature sensor configured to measure a temperature at the physical location of the sensor unit; and a remote data concentrator; wherein each of the sensor units is configured to provide an output signal comprising the pressure, acceleration, and temperature measurements to the remote data concentrator via a communication pathway.
A single motor gearbox assembly for driving multiple selected outputs, the assembly comprising: a housing; a shift motor supported by the housing; a drive motor supported by the housing for driving a main drive gear; a plurality of spaced apart output gears (112a-112c) rotatably supported by the housing and selectively driven by the drive motor; a drive selection arm operatively coupled to said shift motor for actuation between select positions aligned with at least one of said output gears (112a-112c), said drive selection arm including an intermediate gear meshed between said main drive gear and one of said output gears (112a-112c) in response to alignment of said drive selection arm with the output gear (112a-112c) in the select position for actuating and driving the output gear (112a-112c) and the selected output; and a plurality of micro-switches (114a-114c) operably connected to interchangeably activate and deactivate the shift motor for alignment of the drive selection arm with one of the output gears (112a-112c) and the drive motor for driving the main, intermediate, and output gears (112a-112c). a housing; a shift motor supported by the housing; a drive motor supported by the housing for driving a main drive gear; a plurality of spaced apart output gears (112a-112c) rotatably supported by the housing and selectively driven by the drive motor; a drive selection arm operatively coupled to said shift motor for actuation between select positions aligned with at least one of said output gears (112a-112c), said drive selection arm including an intermediate gear meshed between said main drive gear and one of said output gears (112a-112c) in response to alignment of said drive selection arm with the output gear (112a-112c) in the select position for actuating and driving the output gear (112a-112c) and the selected output; and a plurality of micro-switches (114a-114c) operably connected to interchangeably activate and deactivate the shift motor for alignment of the drive selection arm with one of the output gears (112a-112c) and the drive motor for driving the main, intermediate, and output gears (112a-112c).
A molding apparatus for molding a fiber reinforced resin material, the apparatus comprising: a fiber feeder configured to feed fibers to a lamination area; a resin feeder configured to feed a resin to the lamination area; a curing accelerator configured to accelerate curing of the resin to which the fibers are being fed while the fed fibers are being tensioned; an impregnator configured to impregnate the fed fibers with the resin to which the fibers are being fed; and a transporter configured to relatively change a feeding position of the fibers, a feeding position of the resin, an accelerating position of the curing, and a position of impregnating, wherein the impregnator includes a pressing roller configured to apply pressure to the fibers and the resin that are fed to the lamination area and the pressing roller is movable in a direction in which the pressure is applied; and wherein the pressing roller includes a roller and an actuator. a fiber feeder configured to feed fibers to a lamination area; a resin feeder configured to feed a resin to the lamination area; a curing accelerator configured to accelerate curing of the resin to which the fibers are being fed while the fed fibers are being tensioned; an impregnator configured to impregnate the fed fibers with the resin to which the fibers are being fed; and a transporter configured to relatively change a feeding position of the fibers, a feeding position of the resin, an accelerating position of the curing, and a position of impregnating, wherein the impregnator includes a pressing roller configured to apply pressure to the fibers and the resin that are fed to the lamination area and the pressing roller is movable in a direction in which the pressure is applied; and wherein the pressing roller includes a roller and an actuator.
A method of determining the sensitivity of tumor cell growth to inhibition by an EGFR kinase inhibitor, comprising detecting the methylation status of the ERBB2 gene in a sample tumor cell, wherein hypomethylation of the ERBB2 gene indicates that the tumor cell growth is sensitive to inhibition with the EGFR inhibitor.
An intraocular lens suitable for implantation in a phakic eye, comprising: an optic providing a far focus and a near focus having an add power, the add power being in a range of 1 D to 4.5 D, characterized by wherein a depth-of-focus associated with at least one of the foci is greater than 1 D. an optic providing a far focus and a near focus having an add power, the add power being in a range of 1 D to 4.5 D, characterized by wherein a depth-of-focus associated with at least one of the foci is greater than 1 D.
A method of transmitting an application to a wireless device, the method comprising: receiving an application on a first wireless device from a server, the application having a plurality of parts, the plurality of parts having at least a first part and a second part, the first part being operable to be executed on the first wireless device, the second part being operable to be executed on a second wireless device, wherein after executing the first part of the plurality of parts, the first wireless device is prevented from executing the second part of the plurality of parts, wherein the first or second wireless device is operable to receive a reward when each part of the plurality of parts is completed; executing the first part of the plurality of parts on a processor of the first wireless device; transmitting a first application information to the second wireless device, wherein the first application information indicates the first part of the plurality of parts is executed, further wherein the first application information is associated with the application; transmitting the application to the second wireless device based on the first application information; wherein upon the second wireless device receiving the first application information and the application and the second wireless device has determined from the first application information that the first wireless device has executed the first part of the plurality of parts the second wireless device is arranged to execute the second part of the plurality of parts. receiving an application on a first wireless device from a server, the application having a plurality of parts, the plurality of parts having at least a first part and a second part, the first part being operable to be executed on the first wireless device, the second part being operable to be executed on a second wireless device, wherein after executing the first part of the plurality of parts, the first wireless device is prevented from executing the second part of the plurality of parts, wherein the first or second wireless device is operable to receive a reward when each part of the plurality of parts is completed; executing the first part of the plurality of parts on a processor of the first wireless device; transmitting a first application information to the second wireless device, wherein the first application information indicates the first part of the plurality of parts is executed, further wherein the first application information is associated with the application; transmitting the application to the second wireless device based on the first application information; wherein upon the second wireless device receiving the first application information and the application and the second wireless device has determined from the first application information that the first wireless device has executed the first part of the plurality of parts the second wireless device is arranged to execute the second part of the plurality of parts.
A method for processing a push message, comprising: generating a first profile identifier based on an account identifier of a currently logged-in account of an app; sending the first profile identifier, a token, and the account identifier of the app in a push system to a server of the app; receiving a push message from the server by using a push connection corresponding to the token, wherein the push message comprises a second profile identifier; and determining a processing manner of the push message based on whether the second profile identifier is the same as the first profile identifier, wherein the determining a processing manner of the push message based on whether the second profile identifier is the same as the first profile identifier comprises: when the second profile identifier is the same as the first profile identifier, displaying the push message; or when the second profile identifier is different from the first profile identifier, determining not to display the push message, wherein, when verifying the second profile identifier, there is no need to interact with the server by using a network, nor there is a need to consider whether a process of the app exists. generating a first profile identifier based on an account identifier of a currently logged-in account of an app; sending the first profile identifier, a token, and the account identifier of the app in a push system to a server of the app; receiving a push message from the server by using a push connection corresponding to the token, wherein the push message comprises a second profile identifier; and determining a processing manner of the push message based on whether the second profile identifier is the same as the first profile identifier, wherein the determining a processing manner of the push message based on whether the second profile identifier is the same as the first profile identifier comprises: when the second profile identifier is the same as the first profile identifier, displaying the push message; or when the second profile identifier is different from the first profile identifier, determining not to display the push message, wherein, when verifying the second profile identifier, there is no need to interact with the server by using a network, nor there is a need to consider whether a process of the app exists. when the second profile identifier is the same as the first profile identifier, displaying the push message; or when the second profile identifier is different from the first profile identifier, determining not to display the push message, wherein, when verifying the second profile identifier, there is no need to interact with the server by using a network, nor there is a need to consider whether a process of the app exists.
Toggle fixing having a screw for fixing to an insertion hole, having a crosspiece which has a screw hole for screwing in the screw transversely with respect to the crosspiece, having a strip for handling the toggle fixing, which strip is pivotally arranged on the crosspiece laterally of the screw hole of the crosspiece, and having a sleeve which is displaceably arranged on the strip and which has a through-hole which is in alignment with the screw hole of the crosspiece when the strip projects from the crosspiece axially parallel to the screw hole of the crosspiece, the through-hole of the sleeve being a screw hole for screwing through the screw that is arranged to be screwed into the screw hole of the crosspiece, wherein the screw needs to be screwed into the screw hole of the crosspiece by rotation and cannot be introduced into the screw hole without a rotational movement, so that the thread flanks of the screw enter into engagement with the wall of the screw hole, characterised in that the screw hole of the sleeve prevents the screw from being able to be pushed through the sleeve, in such a way that the screw must be screwed through the sleeve in order that it can be screwed into the screw hole of the crosspiece.
Method of operating a group of receivers and transmitters to make the same information (K c) available to several receivers belonging to the group of receivers, each receiver i in the group comprising a central processing unit and information storage means (3, 4, 5), the storage means storing information (SA i) specific to each receiver i, respectively, characterised in that it comprises the following steps: - enabling each receiver to access information (b i) before making (K c) available; and - transmitting a secret key to all receivers, just before making (K c) available; - operating each receiver to calculate K c from a pre-defined relation K c =f(K, b i, SA i) where (f) is a given function, is a secret key common to all the receivers, and (b i) is information different for each receiver and for each value of the secret key. - enabling each receiver to access information (b i) before making (K c) available; and - transmitting a secret key to all receivers, just before making (K c) available; - operating each receiver to calculate K c from a pre-defined relation K c =f(K, b i, SA i) where (f) is a given function, is a secret key common to all the receivers, and (b i) is information different for each receiver and for each value of the secret key.
A membrane, which is a polymer electrolyte membrane comprising (i) a porous film having pores having an average pore size of > 0.20 μm and being obtained by copolymerizing TFE, tetrafluoroethylene, and an ethylenic comonomer to provide PTFE, polytetrafluorethylene, and then stretching the PTFE, and (ii) a polymer electrolyte contained in the pores, characterized in that the PTFE, based on all monomer units, contains 0.011-0.250 mol-% of units derived from the ethylenic comonomer. (i) a porous film having pores having an average pore size of > 0.20 μm and being obtained by copolymerizing TFE, tetrafluoroethylene, and an ethylenic comonomer to provide PTFE, polytetrafluorethylene, and then stretching the PTFE, and (ii) a polymer electrolyte contained in the pores, characterized in that the PTFE, based on all monomer units, contains 0.011-0.250 mol-% of units derived from the ethylenic comonomer.