mhurhangee/patent-ind-claim-en huggingface dataset:
An injectable composition comprising toltrazuril and an iron complex, wherein said composition is an aqueous suspension containing one or more surfactant(s) having an HLB comprised between 1 and 8 and selected from sorbitan monooleate, propylene glycol monolaurate, and simethicone emulsion.
Use of a metal complex of the Formula : M[(L 1 ) a X] d whereby L 1 has the formula R 1 -N 3 -R 2 , where R 1 and R 2 are alkyl radicals having 1 to 12 carbon atoms, X is selected from H, halogen, CO and alkyl with 1 to 6 C atoms, a = 2 or 3, d = 0 or 1, and M is selected from In, Co, Cu, Al, Ga, TI and La for depositing the metal or a compound of the metal from the gas phase. L 1 has the formula R 1 -N 3 -R 2 , where R 1 and R 2 are alkyl radicals having 1 to 12 carbon atoms, X is selected from H, halogen, CO and alkyl with 1 to 6 C atoms, a = 2 or 3, d = 0 or 1, and M is selected from In, Co, Cu, Al, Ga, TI and La for depositing the metal or a compound of the metal from the gas phase.
A method performed by a user equipment configured for downlink carrier aggregation for transmitting one or more Channel State Information, CSI, reports in a communication network, said method comprising: - receiving a configuration on a first serving cell, wherein the configuration assigns a set of semi-persistent Channel State Information Reference Signal, CSI-RS, resources; - receiving a grant on a first serving cell, wherein the grant comprises a first identifier identifying at least one semi-persistent CSI-RS resource of the first serving cell; - using the semi-persistent CSI-RS resource identified by the first identifier to calculate one or more CSI reports for the first serving cell until said user equipment receives a second grant comprising a second identifier identifying at least one different semi-persistent CSI-RS resource than the CSI-RS resource identified by the first identifier, - transmitting the said one or more CSI reports to a network node serving the first serving cell. - receiving a configuration on a first serving cell, wherein the configuration assigns a set of semi-persistent Channel State Information Reference Signal, CSI-RS, resources; - receiving a grant on a first serving cell, wherein the grant comprises a first identifier identifying at least one semi-persistent CSI-RS resource of the first serving cell; - using the semi-persistent CSI-RS resource identified by the first identifier to calculate one or more CSI reports for the first serving cell until said user equipment receives a second grant comprising a second identifier identifying at least one different semi-persistent CSI-RS resource than the CSI-RS resource identified by the first identifier, - transmitting the said one or more CSI reports to a network node serving the first serving cell.
A mobile device comprising: a location-awareness system configured to determine a location of the mobile device; a URL-list-manager configured to: select one or more websites that are associated with the determined location; generate a list of uniform resource locators, URLs, to the one or more of the selected websites; and a contextualizer configured to determine contextual factors of the mobile device, wherein the contextual factors are selected from a group consisting of a mode of travel of a user of the mobile device, crowd-sourced ratings of websites, personal history of website usage at or near the determined location, crowd-sourced history of website usage at or near the determined location, identification of type of the determined location, and identification of the type of event happening at the location, the URL-list-manager being further configured to select based, at least in part, upon the determined contextual factors. a location-awareness system configured to determine a location of the mobile device; a URL-list-manager configured to: select one or more websites that are associated with the determined location; generate a list of uniform resource locators, URLs, to the one or more of the selected websites; and a contextualizer configured to determine contextual factors of the mobile device, wherein the contextual factors are selected from a group consisting of a mode of travel of a user of the mobile device, crowd-sourced ratings of websites, personal history of website usage at or near the determined location, crowd-sourced history of website usage at or near the determined location, identification of type of the determined location, and identification of the type of event happening at the location, the URL-list-manager being further configured to select based, at least in part, upon the determined contextual factors. select one or more websites that are associated with the determined location; generate a list of uniform resource locators, URLs, to the one or more of the selected websites; and a contextualizer configured to determine contextual factors of the mobile device, wherein the contextual factors are selected from a group consisting of a mode of travel of a user of the mobile device, crowd-sourced ratings of websites, personal history of website usage at or near the determined location, crowd-sourced history of website usage at or near the determined location, identification of type of the determined location, and identification of the type of event happening at the location, the URL-list-manager being further configured to select based, at least in part, upon the determined contextual factors.
A method of determining whether a trajectory of an obstacle to an autonomous driving vehicle (ADV) will require a navigation adjustment for the ADV, the method comprising: determining a trajectory of an obstacle to an autonomous driving vehicle (ADV), the trajectory represented by a first ordered plurality of points {P 0 ..P M }; determining a reference line of navigation for the ADV, the reference line represented by a second ordered plurality of points {R 0 ..R N }; in response to determining that the obstacle and the ADV are traveling in substantially the same direction, wherein the obstacle and the ADV are traveling in substantially the same direction if the absolute value of a heading of the obstacle θ OBS minus a heading of the ADV θ ADV is less than a threshold heading value finding a point S 0 ∈ {R 0 ..R N } such that the distance from Po to So is the minimum distance from P 0 to any of the points in {R 0 ..R N }. for each point P i ∈ {P 1 ..P M }, i=1 to M, finding the point S i ∈ {S i-1 ..R N } such that the distance from P i to S i is the minimum distance from P i to any of the points in {S i-1 ..R N }; adjusting the navigation of the ADV in response to determining that the distance between P i and S i , for any i ∈ {0..M} is less than a threshold distance value. determining a trajectory of an obstacle to an autonomous driving vehicle (ADV), the trajectory represented by a first ordered plurality of points {P 0 ..P M }; determining a reference line of navigation for the ADV, the reference line represented by a second ordered plurality of points {R 0 ..R N }; in response to determining that the obstacle and the ADV are traveling in substantially the same direction, wherein the obstacle and the ADV are traveling in substantially the same direction if the absolute value of a heading of the obstacle θ OBS minus a heading of the ADV θ ADV is less than a threshold heading value finding a point S 0 ∈ {R 0 ..R N } such that the distance from Po to So is the minimum distance from P 0 to any of the points in {R 0 ..R N }. for each point P i ∈ {P 1 ..P M }, i=1 to M, finding the point S i ∈ {S i-1 ..R N } such that the distance from P i to S i is the minimum distance from P i to any of the points in {S i-1 ..R N }; adjusting the navigation of the ADV in response to determining that the distance between P i and S i , for any i ∈ {0..M} is less than a threshold distance value. finding a point S 0 ∈ {R 0 ..R N } such that the distance from Po to So is the minimum distance from P 0 to any of the points in {R 0 ..R N }. for each point P i ∈ {P 1 ..P M }, i=1 to M, finding the point S i ∈ {S i-1 ..R N } such that the distance from P i to S i is the minimum distance from P i to any of the points in {S i-1 ..R N }; adjusting the navigation of the ADV in response to determining that the distance between P i and S i , for any i ∈ {0..M} is less than a threshold distance value.
A method for calibrating an antenna positioned on an aircraft , said antenna being protected by a radome and operating in a band suitable for providing Internet communication to a user via a satellite , having the following steps: Defining a number n of angle positions for the aircraft located in a calibration region, where n is greater than one, Measuring the value of the orientation of the antenna for each position n, [ Aa ( n ), Ea ( n )], where Aa ( n ), Ea ( n ) correspond to the azimuth and the elevation of the antenna for a position characterised in that it further has the steps of: Defining the theoretical orientation of the antenna [ A a( n ) ∗ , Ea ( n ) ∗ ] taking into account the pitch value, the roll value and the heading value for the aircraft for each position n, and the satellite orientation values [ Ar ( n ), Er ( n )]: Aa n ∗ , Ea n ∗ = F H n , P n , R n , δ H , δ P , δ R , δ E , Ar n , Er n , where F is a chosen geometric function, where Ar ( n ), Er ( n ) are the coordinates of said satellite Defining a criterion C: C = ∑ Aa n − Aa n ∗ 2 + Ea n − Ea n ∗ 2 Minimising the value of the criterion C in order to determine the bias values (δH, δP, δR, δE) from the values [Aa*(n), Ea*(n)] and using said bias values to minimise the differences between the measured angles and the theoretical angles. Defining a number n of angle positions for the aircraft located in a calibration region, where n is greater than one, Measuring the value of the orientation of the antenna for each position n, [ Aa ( n ), Ea ( n )], where Aa ( n ), Ea ( n ) correspond to the azimuth and the elevation of the antenna for a position characterised in that it further has the steps of: Defining the theoretical orientation of the antenna [ A a( n ) ∗ , Ea ( n ) ∗ ] taking into account the pitch value, the roll value and the heading value for the aircraft for each position n, and the satellite orientation values [ Ar ( n ), Er ( n )]: Aa n ∗ , Ea n ∗ = F H n , P n , R n , δ H , δ P , δ R , δ E , Ar n , Er n , where F is a chosen geometric function, where Ar ( n ), Er ( n ) are the coordinates of said satellite Defining a criterion C: C = ∑ Aa n − Aa n ∗ 2 + Ea n − Ea n ∗ 2 Minimising the value of the criterion C in order to determine the bias values (δH, δP, δR, δE) from the values [Aa*(n), Ea*(n)] and using said bias values to minimise the differences between the measured angles and the theoretical angles. Defining the theoretical orientation of the antenna [ A a( n ) ∗ , Ea ( n ) ∗ ] taking into account the pitch value, the roll value and the heading value for the aircraft for each position n, and the satellite orientation values [ Ar ( n ), Er ( n )]: Aa n ∗ , Ea n ∗ = F H n , P n , R n , δ H , δ P , δ R , δ E , Ar n , Er n , where F is a chosen geometric function, where Ar ( n ), Er ( n ) are the coordinates of said satellite Defining a criterion C: C = ∑ Aa n − Aa n ∗ 2 + Ea n − Ea n ∗ 2 Minimising the value of the criterion C in order to determine the bias values (δH, δP, δR, δE) from the values [Aa*(n), Ea*(n)] and using said bias values to minimise the differences between the measured angles and the theoretical angles.
A sensor module for determining an aerosol dose rate of an aerosol stream , wherein the aerosol stream is provided to a patient by an inhalation device, wherein the sensor module comprises: - an adaptive structure which is designed for attaching the sensor module to the inhalation device; - a measurement volume ; - a concentration measurement unit which is designed for generating at least one first measurement signal depending on a concentration of the aerosol within the measurement volume ; - a flow measurement unit which is designed for generating at least one second measurement signal depending on a flow of the aerosol stream through the measurement volume , wherein the flow measurement unit compromises a pressure measurement unit , wherein the pressure measurement unit comprises a differential pressure sensor , wherein a first port of the differential pressure sensor is designated for determining a first pressure in front of a flow constriction structure as comprised by the measurement volume , and wherein a second port of the differential pressure sensor is designated for determining a second pressure after the flow constriction structure , wherein the differential pressure sensor is adapted for generating the at least one second measurement signal from a difference between the first pressure and the second pressure; and - an evaluation unit which is designed for determining the aerosol dose rate in the inhalation device based on a contemporaneous determination of an aerosol concentration from the at least one first measurement signal and an inhalation flow from the at least one second measurement signal. - an adaptive structure which is designed for attaching the sensor module to the inhalation device; - a measurement volume ; - a concentration measurement unit which is designed for generating at least one first measurement signal depending on a concentration of the aerosol within the measurement volume ; - a flow measurement unit which is designed for generating at least one second measurement signal depending on a flow of the aerosol stream through the measurement volume , wherein the flow measurement unit compromises a pressure measurement unit , wherein the pressure measurement unit comprises a differential pressure sensor , wherein a first port of the differential pressure sensor is designated for determining a first pressure in front of a flow constriction structure as comprised by the measurement volume , and wherein a second port of the differential pressure sensor is designated for determining a second pressure after the flow constriction structure , wherein the differential pressure sensor is adapted for generating the at least one second measurement signal from a difference between the first pressure and the second pressure; and - an evaluation unit which is designed for determining the aerosol dose rate in the inhalation device based on a contemporaneous determination of an aerosol concentration from the at least one first measurement signal and an inhalation flow from the at least one second measurement signal.
A hearing aid comprising: an electronics containing portion ; and a bristle assembly connected to the electronics containing portion, wherein the bristle assembly is configured to secure the hearing aid within an ear canal while maintaining the ear canal open, wherein the bristle assembly comprises a plurality of flexible bristles configured to contact the ear canal surface when the hearing aid is in use, the bristles being arranged in the manner of a circular hairbrush, a spiral pattern, a series of circular disks, a zig-zag, rows extending lengthwise along the hearing aid, an even covering, an array, or a random pattern and the density of the bristles being 5 or more per square centimetre; and wherein the hearing aid preserves an open ear canal. an electronics containing portion ; and a bristle assembly connected to the electronics containing portion, wherein the bristle assembly is configured to secure the hearing aid within an ear canal while maintaining the ear canal open, wherein the bristle assembly comprises a plurality of flexible bristles configured to contact the ear canal surface when the hearing aid is in use, the bristles being arranged in the manner of a circular hairbrush, a spiral pattern, a series of circular disks, a zig-zag, rows extending lengthwise along the hearing aid, an even covering, an array, or a random pattern and the density of the bristles being 5 or more per square centimetre; and wherein the hearing aid preserves an open ear canal.
Method for adjusting a motor torque of a two-wheeled electric vehicle, comprising the steps of: - reading in a rider assistance profile which represents a dependency of the motor torque on a pedal operation by the rider, - determining at least one prespecified region (200 - 230) in the rider assistance profile, wherein the region has at least one discontinuous change in the gradient of the curve of the rider assistance profile, and - ascertaining a future speed of the two-wheeled electric vehicle depending on a current speed of the two-wheeled electric vehicle and a pedal operation by the rider, characterized by - checking whether the future speed of the two-wheeled electric vehicle is located within the prespecified region, and - changing the motor torque, depending on the pedal operation by the rider, in a deviation from the rider assistance profile when the future speed of the two-wheeled electric vehicle is located within the prespecified region, wherein abrupt transitions in the motor torque assistance are suppressed during an acceleration or braking process. - reading in a rider assistance profile which represents a dependency of the motor torque on a pedal operation by the rider, - determining at least one prespecified region (200 - 230) in the rider assistance profile, wherein the region has at least one discontinuous change in the gradient of the curve of the rider assistance profile, and - ascertaining a future speed of the two-wheeled electric vehicle depending on a current speed of the two-wheeled electric vehicle and a pedal operation by the rider, - checking whether the future speed of the two-wheeled electric vehicle is located within the prespecified region, and - changing the motor torque, depending on the pedal operation by the rider, in a deviation from the rider assistance profile when the future speed of the two-wheeled electric vehicle is located within the prespecified region, wherein abrupt transitions in the motor torque assistance are suppressed during an acceleration or braking process.
A method of Non-Orthogonal Multiple Access, NOMA, communications at a base station, the method comprising: transmitting a first data resource element for a first User Equipment, UE, on a base layer, the first UE unconfigured for NOMA communication; transmitting data for a second UE on an enhancement layer, the second UE configured for NOMA communication, wherein the base layer is overlayed with the enhancement layer; transmitting a reference signal; characterized by determining enhancement layer power from a base layer power when a spatial layer is shared by the base layer and the enhancement layer, wherein the determining comprises inferring that a power split within the shared spatial layer between the base layer and the enhancement layer is 4:1 if, for the shared spatial layer, Quadrature Phase Shift Keying, QPSK, is used by the base layer and QPSK is used for the enhancement layer. transmitting a first data resource element for a first User Equipment, UE, on a base layer, the first UE unconfigured for NOMA communication; transmitting data for a second UE on an enhancement layer, the second UE configured for NOMA communication, wherein the base layer is overlayed with the enhancement layer; transmitting a reference signal; characterized by determining enhancement layer power from a base layer power when a spatial layer is shared by the base layer and the enhancement layer, wherein the determining comprises inferring that a power split within the shared spatial layer between the base layer and the enhancement layer is 4:1 if, for the shared spatial layer, Quadrature Phase Shift Keying, QPSK, is used by the base layer and QPSK is used for the enhancement layer.
Use of an anhydrous cosmetic composition for neutralizing malodour by topical application in intimate areas, the anhydrous cosmetic composition comprising: a volatile solvent, and one or more complexed or encapsulated compounds selected from the group consisting of: melonal, adoxal, trans-2-hexenal, ligustral, floral super, forhydral, 5-methyl-2-thiopene-carboxaldehyde, hydratropic aldehyde, undecanal, 9-undecenal, 10-undecenal, trans-4-decenal, cis-6-nonenal, isocyclocitral, precyclemone b, €-2-(z)-6-nonadienal, undecyl aldehyde, methyl-octyl-acetaldehyde, lauric aldehyde, silvial, vanillin, and floralozone wherein the anhydrous cosmetic composition is in the form of a solid stick comprising a product hardness of at least 600 gram-force (as measured with the method described in the description); and wherein the anhydrous cosmetic composition is devoid of an antiperspirant active.
A flat cable assembly for a rotary connector device, comprising: a first lead block including a first lead block body and a first conductor including a first exposure surface exposed from the first lead block body, the first conductor being attached to the first lead block body; a first flat cable including a first cable end portion connected to the first exposure surface so as to extend from the first exposure surface in a first direction (D21, D41); and a second flat cable including a second cable end portion connected to the first exposure surface so as to extend from the first exposure surface in a second direction (D22, D42) that is different from the first direction, characterized in that the second cable end portion is disposed on the first exposure surface so as not to overlap with the first cable end portion . a first lead block including a first lead block body and a first conductor including a first exposure surface exposed from the first lead block body, the first conductor being attached to the first lead block body; a first flat cable including a first cable end portion connected to the first exposure surface so as to extend from the first exposure surface in a first direction (D21, D41); and a second flat cable including a second cable end portion connected to the first exposure surface so as to extend from the first exposure surface in a second direction (D22, D42) that is different from the first direction, characterized in that the second cable end portion is disposed on the first exposure surface so as not to overlap with the first cable end portion .
A thermally adjustable surgical tool comprising: a first arm including an electrical conductor, and a ferromagnetic coating covering at least a portion of the electrical conductor; a second arm coupled to the first arm such that the first arm and the second arm are movable toward and away from the other of the first arm and the second arm , the second arm including a sensor that conducts a measurement proximate the ferromagnetic coating; a power supply disposed in communication with the electrical conductor configured to produce oscillating electrical energy to be delivered to the electrical conductor; to thereby heat the ferromagnetic coating to a temperature sufficient to incise tissue captured between the first arm and the second arm; and wherein the power supply is configured to adjust the oscillating electrical energy in response to the measurement. a first arm including an electrical conductor, and a ferromagnetic coating covering at least a portion of the electrical conductor; a second arm coupled to the first arm such that the first arm and the second arm are movable toward and away from the other of the first arm and the second arm , the second arm including a sensor that conducts a measurement proximate the ferromagnetic coating; a power supply disposed in communication with the electrical conductor configured to produce oscillating electrical energy to be delivered to the electrical conductor; to thereby heat the ferromagnetic coating to a temperature sufficient to incise tissue captured between the first arm and the second arm; and wherein the power supply is configured to adjust the oscillating electrical energy in response to the measurement.