mhurhangee/patent-ind-claim-en huggingface dataset:
A wireless communication device, comprising: a transceiver; and a processor coupled to the transceiver, wherein the processor is configured to: send a mobility management registration request signal to a wireless communication network indicating the wireless communication device supports Ethernet header compression, EHC, for data transfer over a control plane; obtain a mobility management registration response from the wireless communication network indicating the wireless communication network supports EHC for data transfer over the control plane; send a session establishment request signal to the wireless communication network comprising a request for a field length for an EHC Context ID; obtain a session establishment acknowledgement from the wireless communication network comprising an indicator of the field length for the EHC Context ID; and send data compressed using EHC to the wireless communication network over the control plane, the data comprising the EHC Context ID configured in accordance with the field length. a transceiver; and a processor coupled to the transceiver, wherein the processor is configured to: send a mobility management registration request signal to a wireless communication network indicating the wireless communication device supports Ethernet header compression, EHC, for data transfer over a control plane; obtain a mobility management registration response from the wireless communication network indicating the wireless communication network supports EHC for data transfer over the control plane; send a session establishment request signal to the wireless communication network comprising a request for a field length for an EHC Context ID; obtain a session establishment acknowledgement from the wireless communication network comprising an indicator of the field length for the EHC Context ID; and send data compressed using EHC to the wireless communication network over the control plane, the data comprising the EHC Context ID configured in accordance with the field length. send a mobility management registration request signal to a wireless communication network indicating the wireless communication device supports Ethernet header compression, EHC, for data transfer over a control plane; obtain a mobility management registration response from the wireless communication network indicating the wireless communication network supports EHC for data transfer over the control plane; send a session establishment request signal to the wireless communication network comprising a request for a field length for an EHC Context ID; obtain a session establishment acknowledgement from the wireless communication network comprising an indicator of the field length for the EHC Context ID; and send data compressed using EHC to the wireless communication network over the control plane, the data comprising the EHC Context ID configured in accordance with the field length.
A non-volatile memory cell, comprising: a substrate of semiconductor material of a first conductivity type; first and second spaced-apart regions in the substrate of a second conductivity type different from the first conductivity type, with a channel region in the substrate therebetween; an electrically conductive floating gate having a first portion disposed vertically over and insulated from a first portion of the channel region , and a second portion disposed vertically over and insulated from the first region, wherein the floating gate includes a sloping upper surface that terminates with one or more sharp edges; an electrically conductive erase gate disposed vertically over and insulated from the floating gate , wherein the one or more sharp edges face and are insulated from the erase gate , wherein the erase gate has a bottom surface with a portion facing, and having a shape matching that of, the sloping upper surface of the floating gate , and wherein the erase gate bottom surface further includes one or more portions that wrap around the one or more sharp edges; an electrically conductive control gate having a first portion disposed laterally adjacent to and insulated from the floating gate , and vertically over and insulated from the first region; and an electrically conductive select gate having a first portion disposed vertically over and insulated from a second portion of the channel region , and laterally adjacent to and insulated from the floating gate . a substrate of semiconductor material of a first conductivity type; first and second spaced-apart regions in the substrate of a second conductivity type different from the first conductivity type, with a channel region in the substrate therebetween; an electrically conductive floating gate having a first portion disposed vertically over and insulated from a first portion of the channel region , and a second portion disposed vertically over and insulated from the first region, wherein the floating gate includes a sloping upper surface that terminates with one or more sharp edges; an electrically conductive erase gate disposed vertically over and insulated from the floating gate , wherein the one or more sharp edges face and are insulated from the erase gate , wherein the erase gate has a bottom surface with a portion facing, and having a shape matching that of, the sloping upper surface of the floating gate , and wherein the erase gate bottom surface further includes one or more portions that wrap around the one or more sharp edges; an electrically conductive control gate having a first portion disposed laterally adjacent to and insulated from the floating gate , and vertically over and insulated from the first region; and an electrically conductive select gate having a first portion disposed vertically over and insulated from a second portion of the channel region , and laterally adjacent to and insulated from the floating gate .
A method of protecting a substrate against liquid and/or solid particle erosion, the method comprising: (a) forming one or more polyurethane or polyurea coatings onto the substrate, (b) wherein at least one of the coatings is configured to have a tensile strength greater than 70 kg/cm 2 (1000 psi) according to ASTM D 412-92, an elongation at break greater than 350% according to ASTM D 412-92 modified according to page 29, paragraph 2 of WO 2006/055038 A1, and a Shore A hardness of 44A to 93A as measured at 20°C (68°F) according to ASTM D2240, characterized in that (c) the substrate is a leading edge of an airfoil, and (d) the at least one of the coatings is configured to have a tensile set at break of less than 490% according to ASTM D 412-92 modified according to page 30, paragraph 2 of WO 2006/055038 A1. (a) forming one or more polyurethane or polyurea coatings onto the substrate, (b) wherein at least one of the coatings is configured to have a tensile strength greater than 70 kg/cm 2 (1000 psi) according to ASTM D 412-92, an elongation at break greater than 350% according to ASTM D 412-92 modified according to page 29, paragraph 2 of WO 2006/055038 A1, and a Shore A hardness of 44A to 93A as measured at 20°C (68°F) according to ASTM D2240, (c) the substrate is a leading edge of an airfoil, and (d) the at least one of the coatings is configured to have a tensile set at break of less than 490% according to ASTM D 412-92 modified according to page 30, paragraph 2 of WO 2006/055038 A1.
A device for receiving and displaying media content, the device comprising: a processor configured to: display a first viewport, wherein the first viewport comprises at least a portion of one or more dynamic adaptive streaming over HTTP, DASH, video segments, wherein the first viewport is associated with a first presentation quality; determine a movement from the first viewport towards a second viewport at a first time; display the second viewport, wherein the second viewport comprises at least a portion of one or more DASH video segments; determine a second time when the second viewport reaches a second presentation quality that is comparable to the first presentation quality of the first viewport; determine a quality viewport switching latency metric based on a difference between the first time and the second time; and send the quality viewport switching latency metric. display a first viewport, wherein the first viewport comprises at least a portion of one or more dynamic adaptive streaming over HTTP, DASH, video segments, wherein the first viewport is associated with a first presentation quality; determine a movement from the first viewport towards a second viewport at a first time; display the second viewport, wherein the second viewport comprises at least a portion of one or more DASH video segments; determine a second time when the second viewport reaches a second presentation quality that is comparable to the first presentation quality of the first viewport; determine a quality viewport switching latency metric based on a difference between the first time and the second time; and send the quality viewport switching latency metric.
Compound of formula (I) for use in the treatment of a population of patients suffering from a renal disease, wherein the population to be treated is characterized by having a serum level of TNFR1 of > 2.9 ng/mL and/or an ACR > 300 mg/g.
A deaerator , comprising: a case defining a vortex chamber ; a fluid inlet for allowing a mixture of lubricating liquid and air to pass through the case into the vortex chamber ; an air outlet for allowing air flow out of the deaerator ; a liquid outlet for allowing lubricating liquid flow out of the deaerator ; and a porous diffuser (68;68';68") positioned proximate the liquid outlet for slowing the flow of lubricating liquid, characterised in that the liquid outlet comprises a plurality of liquid outlets, and in that the porous diffuser is positioned outside the deaerator, adjacent the liquid outlets, and by a vortex regulator plate positioned in the vortex chamber between the fluid inlet and the liquid outlets . a case defining a vortex chamber ; a fluid inlet for allowing a mixture of lubricating liquid and air to pass through the case into the vortex chamber ; an air outlet for allowing air flow out of the deaerator ; a liquid outlet for allowing lubricating liquid flow out of the deaerator ; and a porous diffuser (68;68';68") positioned proximate the liquid outlet for slowing the flow of lubricating liquid,
A terminal apparatus comprising: a transmission unit configured to transmit, in one uplink Bandwidth Part, BWP, of one serving cell, a first Physical Uplink Shared Channel, PUSCH, corresponding to a configured uplink grant, the configured uplink grant being a Radio Resource Control, RRC, configured uplink grant; and a reception unit configured to receive, in one downlink BWP of the one serving cell, downlink control information on a Physical Downlink Control Channel, PDCCH, that schedule a second PUSCH, wherein in the one uplink BWP, in a case that a duration of the first PUSCH overlaps a duration of the second PUSCH, an initial uplink symbol of the first PUSCH is expected to not be earlier than an initial uplink symbol at which a Cyclic Prefix, CP, begins after a predetermined period of time after a last symbol of the PDCCH, the predetermined period of time is provided at least based on a parameter μ′′′, the parameter μ′′′ corresponds to a smaller one of μ DL and μ PUSCH , the μ DL corresponds to a first subcarrier spacing configuration of downlink in which the PDCCH is transmitted, and the μ PUSCH corresponds to a second subcarrier spacing configuration of uplink in which the first PUSCH and the second PUSCH are transmitted. a transmission unit configured to transmit, in one uplink Bandwidth Part, BWP, of one serving cell, a first Physical Uplink Shared Channel, PUSCH, corresponding to a configured uplink grant, the configured uplink grant being a Radio Resource Control, RRC, configured uplink grant; and a reception unit configured to receive, in one downlink BWP of the one serving cell, downlink control information on a Physical Downlink Control Channel, PDCCH, that schedule a second PUSCH, wherein in the one uplink BWP, in a case that a duration of the first PUSCH overlaps a duration of the second PUSCH, an initial uplink symbol of the first PUSCH is expected to not be earlier than an initial uplink symbol at which a Cyclic Prefix, CP, begins after a predetermined period of time after a last symbol of the PDCCH, the predetermined period of time is provided at least based on a parameter μ′′′, the parameter μ′′′ corresponds to a smaller one of μ DL and μ PUSCH , the μ DL corresponds to a first subcarrier spacing configuration of downlink in which the PDCCH is transmitted, and the μ PUSCH corresponds to a second subcarrier spacing configuration of uplink in which the first PUSCH and the second PUSCH are transmitted.
A method for optimizing hydrocarbon fuel combustion process in a boiler , comprising: measuring continuously fuel consumption in the boiler and the magnitude of heat transfer in the heat-carrier at the outlet of the boiler , determining deviations of measured values from previous values, followed by changing air flow rate depending on the increase or a decrease in the rate of heat transfer, determining, on the basis of the measured values, the specific fuel consumption per 4,184 GJ of heat by way of calculating the ratio of fuel consumption to the magnitude of heat transfer in the heat-carrier at the outlet of the boiler , further comprising, at the beginning of the optimization of the fuel combustion process, performing a one-time discrete increase in the air flow rate to determine the tendency of the value of the rate of heat transfer in the heat-carrier to increase or decrease, further comprising, to obtain an optimal fuel-air ratio, with an increase in the magnitude of heat transfer, continuing the increase in the air flow until the rate of heat transfer begins to decrease, and with a decrease in the magnitude of heat transfer, reducing the air flow until the rate of heat transfer begins to decrease.
A method of separating a mixture in an installation comprising: - a first system comprising a plurality of chromatography columns, an outlet line for collecting a raffinate and an outlet line for collecting an extract; - at least one second system placed downstream of a first system; and - at least one tank fed by one of said outlet lines of the first system and feeding the second system with a continuous stream; the method successively comprising, in a cyclic manner, in a given part of the first system: - a step of collecting a raffinate, a step of injecting the mixture to be separated, a step of collecting an extract, and a step of injecting a mobile phase; wherein the method further comprises the measurement of the purity and/or of the yield of at least one collected fraction chosen from the extract and the raffinate, said measurement of the purity and/or of the yield comprising the following steps: - the determination of the concentration of at least two species of the mixture to be separated in the fraction collected in the tank; - the determination of the purity and/or of the yield of at least one species of the fraction collected in the tank based on the concentrations of the at least two species of the mixture to be separated as determined in the fraction collected in the tank. - a first system comprising a plurality of chromatography columns, an outlet line for collecting a raffinate and an outlet line for collecting an extract; - at least one second system placed downstream of a first system; and - at least one tank fed by one of said outlet lines of the first system and feeding the second system with a continuous stream; - a step of collecting a raffinate, a step of injecting the mixture to be separated, a step of collecting an extract, and a step of injecting a mobile phase; - the determination of the concentration of at least two species of the mixture to be separated in the fraction collected in the tank; - the determination of the purity and/or of the yield of at least one species of the fraction collected in the tank based on the concentrations of the at least two species of the mixture to be separated as determined in the fraction collected in the tank.
An image capturing method of an image capturing apparatus comprising: obtaining geographical position information of the image capturing apparatus ; setting a target position in a live view image based on a moving object from the live view image, a location of said image capturing apparatus , and a direction from which said live view image is captured, the location and the direction being determined based on the geographical position information; tracking the moving object from the live view image; estimating a position of the moving object after a certain period of time in the future by using information on the tracked moving object ; and capturing a still image based on the estimated position when the moving object is positioned on the target position in the live view image. obtaining geographical position information of the image capturing apparatus ; setting a target position in a live view image based on a moving object from the live view image, a location of said image capturing apparatus , and a direction from which said live view image is captured, the location and the direction being determined based on the geographical position information; tracking the moving object from the live view image; estimating a position of the moving object after a certain period of time in the future by using information on the tracked moving object ; and capturing a still image based on the estimated position when the moving object is positioned on the target position in the live view image.
An apparatus for hydrolysing a product, comprising: a continuous conduit having an inlet for receiving the product and an outlet for discharging the product, the conduit being formed so as to follow a path that winds around a longitudinal axis as the conduit extends parallel to the longitudinal axis between the inlet and the outlet; and a heating system for heating at least part of the conduit; wherein the conduit is rotatable about the longitudinal axis so as to transport product received in the inlet towards the outlet. a continuous conduit having an inlet for receiving the product and an outlet for discharging the product, the conduit being formed so as to follow a path that winds around a longitudinal axis as the conduit extends parallel to the longitudinal axis between the inlet and the outlet; and a heating system for heating at least part of the conduit; wherein the conduit is rotatable about the longitudinal axis so as to transport product received in the inlet towards the outlet.
Communication module for connecting a lighting bus system to a network based on an internet protocol, wherein at least one property of at least one component (2a..2f) coupled to the bus system, which property can be queried in the bus system, represents a resource that is accessible via the network and can be reached via a URL, and the communication module is designed, when data received via the network contain a query for the resource, to determine the property of the component (2a..2f) that is associated with the queried resource in a translation table, wherein the communication module is designed to query the property in a data transmission via the bus system from the at least one component (2a..2f), characterized in that the bus system is a Digital Addressable Lighting Interface DALI Bus, the communication module is designed to receive a DALI event message transmitted by the at least one component (2a..2f) via the bus system, to determine a callback URL associated with the DALI event message in the translation table as a resource, and to forward the DALI event message to the callback URL. at least one property of at least one component (2a..2f) coupled to the bus system, which property can be queried in the bus system, represents a resource that is accessible via the network and can be reached via a URL, and the communication module is designed, when data received via the network contain a query for the resource, to determine the property of the component (2a..2f) that is associated with the queried resource in a translation table, wherein the communication module is designed to query the property in a data transmission via the bus system from the at least one component (2a..2f), characterized in that the bus system is a Digital Addressable Lighting Interface DALI Bus, the communication module is designed to receive a DALI event message transmitted by the at least one component (2a..2f) via the bus system, to determine a callback URL associated with the DALI event message in the translation table as a resource, and to forward the DALI event message to the callback URL.
A method of purification of a radiotracer which comprises the following steps: (a) provision of a radiotracer which comprises an 18 F-labelled aminoxy-functionalised biological targeting moiety; (b) adding a radioprotectant to said radiotracer to give a radiotracer solution which comprises said radiotracer in one or more aqueous water-miscible organic solvent(s) of 5 to 25% v/v organic solvent content; (c) passing the radiotracer solution from step (b) through a reverse phase SPE cartridge, wherein the radiotracer is retained on said SPE cartridge; (d) washing the SPE cartridge from step (c) one or more times with a wash solution which comprises an aqueous water-miscible organic solvent(s) solution of a radioprotectant of 15 to 25% v/v organic solvent content; (e) washing the SPE cartridge from step (d) one or more times with water or aqueous buffer solution; (f) eluting the washed SPE cartridge of step (d) or (e) with an elution solvent which comprises a radioprotectant in an aqueous ethanol solution having an ethanol content of 35 to 80 % v/v, wherein the eluent comprises purified radiotracer in said elution solvent; wherein each radioprotectant independently comprises one or more of: ascorbic acid; para -aminobenzoic acid; and gentisic acid, and salts thereof with a biocompatible cation. (a) provision of a radiotracer which comprises an 18 F-labelled aminoxy-functionalised biological targeting moiety; (b) adding a radioprotectant to said radiotracer to give a radiotracer solution which comprises said radiotracer in one or more aqueous water-miscible organic solvent(s) of 5 to 25% v/v organic solvent content; (c) passing the radiotracer solution from step (b) through a reverse phase SPE cartridge, wherein the radiotracer is retained on said SPE cartridge; (d) washing the SPE cartridge from step (c) one or more times with a wash solution which comprises an aqueous water-miscible organic solvent(s) solution of a radioprotectant of 15 to 25% v/v organic solvent content; (e) washing the SPE cartridge from step (d) one or more times with water or aqueous buffer solution; (f) eluting the washed SPE cartridge of step (d) or (e) with an elution solvent which comprises a radioprotectant in an aqueous ethanol solution having an ethanol content of 35 to 80 % v/v, wherein the eluent comprises purified radiotracer in said elution solvent;