mhurhangee/patent-ind-claim-en huggingface dataset:
A cleaning robot comprising: a light emitter configured to radiate light, characterised in that the cleaning robot comprises further a plurality of light receivers configured to receive a radiation of the light in a predetermined direction among radiations of the light reflected from an obstacle when the radiated light is reflected from the obstacle; a support plate to which the light emitter and the light receivers are fixed and which is rotatably provided; and a controller configured to detect the obstacle on the basis of output signals transmitted from the light emitter and the plurality of light receivers and rotation information of the support plate. a light emitter configured to radiate light, characterised in that the cleaning robot comprises further a plurality of light receivers configured to receive a radiation of the light in a predetermined direction among radiations of the light reflected from an obstacle when the radiated light is reflected from the obstacle; a support plate to which the light emitter and the light receivers are fixed and which is rotatably provided; and a controller configured to detect the obstacle on the basis of output signals transmitted from the light emitter and the plurality of light receivers and rotation information of the support plate.
A method for controlling an electrical power system connected to a power grid , the electrical power system having a power converter electrically coupled to a generator , the method comprising: determining, via a negative sequence regulator programmed in a controller of the electrical power system , negative sequence components of the voltage and current of the power grid to which the power system is connected; estimating a negative sequence component of a Thevenin voltage related to the power grid, based on the negative sequence components of the voltage and current of the power grid and a grid impedance related to the power grid; determining a desired current response as a function of the estimated negative sequence component of the Thevenin voltage related to the power grid and a desired negative sequence admittance characteristic of the electrical power system; and determining a control command for the power converter as a function of the desired current response. determining, via a negative sequence regulator programmed in a controller of the electrical power system , negative sequence components of the voltage and current of the power grid to which the power system is connected; estimating a negative sequence component of a Thevenin voltage related to the power grid, based on the negative sequence components of the voltage and current of the power grid and a grid impedance related to the power grid; determining a desired current response as a function of the estimated negative sequence component of the Thevenin voltage related to the power grid and a desired negative sequence admittance characteristic of the electrical power system; and determining a control command for the power converter as a function of the desired current response.
A mounting device for a support unit , in particular for commercial vehicles, comprising at least one supporting area , a first fixing area and a second fixing area , wherein the supporting area is designed to absorb the supporting forces, especially in the supporting direction (X), from the support unit or a support tube , wherein the first fixing area and the second fixing area are designed to fix the mounting device to a further element , in particular a semitrailer, wherein the first fixing area has at least one hole , wherein the second fixing area has at least one hole , and wherein the holes are designed to receive fixing means, wherein the first fixing area has a plurality of holes , forming a first hole series , and wherein the second fixing area has a plurality of holes , forming a second hole series , characterized in that the first hole series is slanted, and/or the second hole series is slanted.
A coating composition suitable for use in forming a coating that can reduce the concentration of pollutant gases in the environment, the coating composition comprising polymeric material together with mesoporous titania particles, wherein the particles have: • a continuous exterior convex surface, and • a particle diameter of greater than or equal to 1μm but less than or equal to 50μm, as determined by laser diffraction, and • a BET specific surface area of from 30m 2 /g to 350m 2 /g, as determined using the Brunauer, Emmett and Teller method as described in J. Am. Chem. Soc., 1938, 60, 309, and • a modal pore diameter of greater than or equal to 5nm but less than or equal to 50nm, as determined using mercury intrusion porosimetery, and • a pore size distribution such that 85% or more of the total pore volume is associated with pores with a diameter of 10 microns or less, as determined using mercury intrusion porosimetery, and wherein the coating composition comprises: • from 0.01% to 10% by volume of said particles, relative to the total volume of the coating composition and • from 5% to 99.99% by volume of polymeric material, relative to the total volume of the coating composition. the coating composition comprising polymeric material together with mesoporous titania particles, wherein the particles have: • a continuous exterior convex surface, and • a particle diameter of greater than or equal to 1μm but less than or equal to 50μm, as determined by laser diffraction, and • a BET specific surface area of from 30m 2 /g to 350m 2 /g, as determined using the Brunauer, Emmett and Teller method as described in J. Am. Chem. Soc., 1938, 60, 309, and • a modal pore diameter of greater than or equal to 5nm but less than or equal to 50nm, as determined using mercury intrusion porosimetery, and • a pore size distribution such that 85% or more of the total pore volume is associated with pores with a diameter of 10 microns or less, as determined using mercury intrusion porosimetery, • a continuous exterior convex surface, and • a particle diameter of greater than or equal to 1μm but less than or equal to 50μm, as determined by laser diffraction, and • a BET specific surface area of from 30m 2 /g to 350m 2 /g, as determined using the Brunauer, Emmett and Teller method as described in J. Am. Chem. Soc., 1938, 60, 309, and • a modal pore diameter of greater than or equal to 5nm but less than or equal to 50nm, as determined using mercury intrusion porosimetery, and • a pore size distribution such that 85% or more of the total pore volume is associated with pores with a diameter of 10 microns or less, as determined using mercury intrusion porosimetery, and wherein the coating composition comprises: • from 0.01% to 10% by volume of said particles, relative to the total volume of the coating composition and • from 5% to 99.99% by volume of polymeric material, relative to the total volume of the coating composition. • from 0.01% to 10% by volume of said particles, relative to the total volume of the coating composition and • from 5% to 99.99% by volume of polymeric material, relative to the total volume of the coating composition.
A method for generating electrode stimulation signals for electrode contacts in a cochlear implant electrode array, the method comprising: processing an input sound signal to generate a plurality of band pass signals, each band pass signal representing an associated band of audio frequencies, and each band pass signal having a characteristic amplitude and temporal fine structure features; extracting a characteristic envelope signal for each band pass signal based on its amplitude; generating stimulation timing signals for each band pass signal, wherein for one or more selected band pass signals the stimulation timing signals are generated based on a timing function defined to: i. represent instantaneous frequency as determined by the band pass signal temporal fine structure features, and producing the electrode stimulation signals for each electrode contact based on the envelope signals and the stimulation timing signals, characterised in that said timing function is further defined to: ii. exclude temporal fine structure features occurring within a time period shorter than a band-specific upper frequency limit. processing an input sound signal to generate a plurality of band pass signals, each band pass signal representing an associated band of audio frequencies, and each band pass signal having a characteristic amplitude and temporal fine structure features; extracting a characteristic envelope signal for each band pass signal based on its amplitude; generating stimulation timing signals for each band pass signal, wherein for one or more selected band pass signals the stimulation timing signals are generated based on a timing function defined to: i. represent instantaneous frequency as determined by the band pass signal temporal fine structure features, and producing the electrode stimulation signals for each electrode contact based on the envelope signals and the stimulation timing signals, characterised in that said timing function is further defined to: ii. exclude temporal fine structure features occurring within a time period shorter than a band-specific upper frequency limit. i. represent instantaneous frequency as determined by the band pass signal temporal fine structure features, and producing the electrode stimulation signals for each electrode contact based on the envelope signals and the stimulation timing signals, characterised in that said timing function is further defined to: ii. exclude temporal fine structure features occurring within a time period shorter than a band-specific upper frequency limit.
A positive active material for a rechargeable lithium battery, comprising a core comprising a compound capable of intercalating and deintercalating lithium, wherein the compound is a lithium nickel cobalt aluminum oxide, a lithium nickel cobalt manganese oxide, or a combination thereof; and a lithium metal phosphate on the surface of the core, wherein the lithium metal phosphate is different from the compound capable of intercalating and deintercalating lithium and is represented by Chemical Formula 3: Chemical Formula 3 Li 1+(x+y) In x M y Ti 2-(x+y) (PO 4 ) 3 wherein, in Chemical Formula 3, M is Al, Y, Sc, Mg, or a combination thereof, 0<x≤0.5, and 0.1≤y≤0.2, wherein the lithium metal phosphate is included in an amount of 0.01 parts by weight to 20 parts by weight based on 100 parts by weight of the compound capable of intercalating and deintercalating lithium.
An acidizing well-bore stimulation fluid comprising an oil external emulsion of i. a hydrocarbon base fluid, ii. an acidizing agent, and iii. a surfactant comprising 1. an imide compound that is the reaction product of a. a hydrocarbyl-substituted acylating agent, and b. a nitrogen containing compound having a nitrogen atom capable of reacting with said hydrocarbyl-substituted acylating agent comprising at least one of (A) a compound of formula (B) a compound of formula (C) mixtures of (A) or (B), where X is an alkylene group containing from about 1 to about 4 carbon atoms and each R is, individually, a hydrogen or a C1 to C6 hydrocarbyl group, and 2. a hydrocarbon solvent. i. a hydrocarbon base fluid, ii. an acidizing agent, and iii. a surfactant comprising 1. an imide compound that is the reaction product of a. a hydrocarbyl-substituted acylating agent, and b. a nitrogen containing compound having a nitrogen atom capable of reacting with said hydrocarbyl-substituted acylating agent comprising at least one of (A) a compound of formula (B) a compound of formula (C) mixtures of (A) or (B), where X is an alkylene group containing from about 1 to about 4 carbon atoms and each R is, individually, a hydrogen or a C1 to C6 hydrocarbyl group, and 2. a hydrocarbon solvent. 1. an imide compound that is the reaction product of a. a hydrocarbyl-substituted acylating agent, and b. a nitrogen containing compound having a nitrogen atom capable of reacting with said hydrocarbyl-substituted acylating agent comprising at least one of (A) a compound of formula (B) a compound of formula (C) mixtures of (A) or (B), where X is an alkylene group containing from about 1 to about 4 carbon atoms and each R is, individually, a hydrogen or a C1 to C6 hydrocarbyl group, and a. a hydrocarbyl-substituted acylating agent, and b. a nitrogen containing compound having a nitrogen atom capable of reacting with said hydrocarbyl-substituted acylating agent comprising at least one of (A) a compound of formula (B) a compound of formula (C) mixtures of (A) or (B), where X is an alkylene group containing from about 1 to about 4 carbon atoms and each R is, individually, a hydrogen or a C1 to C6 hydrocarbyl group, and (A) a compound of formula (B) a compound of formula (C) mixtures of (A) or (B), 2. a hydrocarbon solvent.
An air purifier comprising a housing with an essentially vertical central axis when in operation, said housing exhibiting in a cascade: - an ionization chamber arranged for charging impurity particles in the incoming air; - electrostatic collector plates located above the ionization chamber and arranged for trapping the charged impurity particles; - a washing system above the electrostatic collector plates, which washing system is arranged for dispensing a cleansing solution onto the electrostatic collector plates; - and a fan system inside the housing, characterized in that the fan system is capable of two-mode action: a purification mode of aspirating air to be purified upwards, through the ionization chamber and subsequently through the electrostatic collector plates, and a drying mode of blowing air in the opposite direction; wherein the fan system is located above the washing system and it comprises an axial fan that is able to blow air in both directions. - an ionization chamber arranged for charging impurity particles in the incoming air; - electrostatic collector plates located above the ionization chamber and arranged for trapping the charged impurity particles; - a washing system above the electrostatic collector plates, which washing system is arranged for dispensing a cleansing solution onto the electrostatic collector plates; - and a fan system inside the housing, characterized in that the fan system is capable of two-mode action: a purification mode of aspirating air to be purified upwards, through the ionization chamber and subsequently through the electrostatic collector plates, and a drying mode of blowing air in the opposite direction;
A pipe-in-pipe, i.e. PIP, pipeline for laying in a marine environment comprising a plurality of PIP sections , each section having at least inner and outer pipes having an annular space thereinbetween, the PIP pipeline having a continuum of the inner and outer pipes of the PIP sections and one or more cables extending along a continuum of the annular space, characterised in that the PIP pipeline further comprises one or more T-piece preformers comprising at least: (a) inner and outer longitundinal collars corresponding in circumference to the circumferences of the inner and outer pipes of the PIP pipeline; (b) one or more annular walls extending between the inner and outer collars; (c) one or more cable apertures through each annular wall; and (d) one or more guide points on the outer collar radially offset from the or each cable apertures, and able to provide guidance for a hole into the T-piece preformer from outside the outer collar to within the inner collar. (a) inner and outer longitundinal collars corresponding in circumference to the circumferences of the inner and outer pipes of the PIP pipeline; (b) one or more annular walls extending between the inner and outer collars; (c) one or more cable apertures through each annular wall; and (d) one or more guide points on the outer collar radially offset from the or each cable apertures, and able to provide guidance for a hole into the T-piece preformer from outside the outer collar to within the inner collar.
Sensor arrangement for eddy-current testing of electrically conducting measured objects , comprising at least one magnetoresistive sensor element and a magnetic field generating device for generating an alternating magnetic field, characterized in that the magnetic field generating device comprises at least one line conductor element which when flowed though by an excitation current I e generates the alternating magnetic field as a cylindrical alternating magnetic field along the line conductor element , and that the line conductor element is, when used for the intended purpose, arranged between the sensor element and a measured object , a sensor plane of the sensor element being aligned radially with the current flow centre of mass through the line conductor element .
Plug insert for receiving at least one contact element , the plug insert comprising at least one positioning element and at least one receptacle for at least partially receiving the at least one contact element , wherein the plug insert has a plug side and a contact side which is opposite to the plug side , wherein the at least one positioning element , which is accessible from the plug side and the contact side for positioning a contact pin of the at least one contact element , is at least partially received in the at least one receptacle , which connects the plug side and the contact side , wherein the plug insert comprises an electromagnetic shielding comprising at least two shielding elements , whose shielding elements are each received from either the plug side or the contact side at least partially in the at least one receptacle and form the electromagnetic shielding and in that at least one of the at least two shielding elements has at least one recess for receiving a connecting web at one end in the circumferential direction , so that a toothing is formed.
A method, comprising: (i) computing a first reactive power value (Q 1 ); (ii) obtaining a voltage value at a point of interconnection between at least one power source and a power grid ; (iii) comparing the voltage value with a plurality of pre-defined voltage limits; and for at least one portion of the first reactive power value (Qi): (iv) computing at least one compensation factor corresponding to the at least one portion of the first reactive power value (Q 1 ) based on an output of the comparison between the voltage value and the at least one pre-defined voltage limit; (v) computing a second reactive power value (Q 2 ) as a function of the at least one portion of the first reactive power value (Q 1 ) and the at least one compensation factor (vi) generating a reactive power compensation command based on the computed second reactive power value (Q 2 ); and (vii) transmitting the reactive power compensation command to a power converter ; wherein the plurality of pre-defined voltage limits include a lower limit and an upper limit, wherein at least one compensation factor computed when the voltage value is closer to the lower limit is less than or equal to at least one compensation factor computed when the voltage value is closer to the upper limit. (i) computing a first reactive power value (Q 1 ); (ii) obtaining a voltage value at a point of interconnection between at least one power source and a power grid ; (iii) comparing the voltage value with a plurality of pre-defined voltage limits; and for at least one portion of the first reactive power value (Qi): (iv) computing at least one compensation factor corresponding to the at least one portion of the first reactive power value (Q 1 ) based on an output of the comparison between the voltage value and the at least one pre-defined voltage limit; (v) computing a second reactive power value (Q 2 ) as a function of the at least one portion of the first reactive power value (Q 1 ) and the at least one compensation factor (vi) generating a reactive power compensation command based on the computed second reactive power value (Q 2 ); and (vii) transmitting the reactive power compensation command to a power converter ;
An analyzer for analyzing samples comprising: a sample support for receiving samples to be analyzed; a matrix detector ; and imaging optics configured to: collect light emitted from the samples, generate pupils of the collected light emitted from the samples; generating images of the pupils of the samples at the matrix detector , so that rays having different angular directions when emanating from the samples are imaged onto different locations at the matrix detector , characterized in that the analyzer is a turbidimetry in-vitro analyzer, and that the analyzer further comprises: a computing device configured to use information regarding the scattering properties of a predetermined substance to infer a concentration of this substance in the samples using the information gathered by the matrix detector . a sample support for receiving samples to be analyzed; a matrix detector ; and imaging optics configured to: collect light emitted from the samples, generate pupils of the collected light emitted from the samples; generating images of the pupils of the samples at the matrix detector , so that rays having different angular directions when emanating from the samples are imaged onto different locations at the matrix detector , characterized in that the analyzer is a turbidimetry in-vitro analyzer, and that the analyzer further comprises: a computing device configured to use information regarding the scattering properties of a predetermined substance to infer a concentration of this substance in the samples using the information gathered by the matrix detector . collect light emitted from the samples, generate pupils of the collected light emitted from the samples; generating images of the pupils of the samples at the matrix detector , so that rays having different angular directions when emanating from the samples are imaged onto different locations at the matrix detector , characterized in that the analyzer is a turbidimetry in-vitro analyzer, and that the analyzer further comprises: a computing device configured to use information regarding the scattering properties of a predetermined substance to infer a concentration of this substance in the samples using the information gathered by the matrix detector .
Enoxacin for use in treating an Amyotrophic Lateral Sclerosis (ALS) in a subject in need thereof.
A method for wireless communication, comprising: identifying a coverage class for a wireless device based at least in part on a characteristic of a communication link associated with the wireless device ; identifying , for the coverage class, a subset of subcarriers of a set of subcarriers for transmitting random access messages; communicating on the subset of subcarriers; identifying a subcarrier of the subset of subcarriers within a narrowband region of a wireless communications system bandwidth for transmitting a random access message; identifying a payload to include in the random access message; and transmitting the random access message including the payload using the identified subcarrier. identifying a coverage class for a wireless device based at least in part on a characteristic of a communication link associated with the wireless device ; identifying , for the coverage class, a subset of subcarriers of a set of subcarriers for transmitting random access messages; communicating on the subset of subcarriers; identifying a subcarrier of the subset of subcarriers within a narrowband region of a wireless communications system bandwidth for transmitting a random access message; identifying a payload to include in the random access message; and transmitting the random access message including the payload using the identified subcarrier.