mhurhangee/patent-ind-claim-en huggingface dataset:
A method for determining the geographical position of a mobile terminal that is operable in a mobile radio network , wherein the mobile radio network comprises devices forming a cellular network structure composed of radio cells, comprising the following process steps: - storing parameters for describing reception characteristics dependant on the location of a signal, wherein the parameters will be stored together with at least one information item for identifying the receiving location, - receiving parameters which describe the reception characteristics of a currently received signal, wherein the parameters are assigned to the mobile terminal and - determining the local position of the mobile terminal by comparing the received parameters with stored parameters, wherein the signal will be sent from a device of the mobile radio network and received by a mobile terminal , and a corresponding signal response of the mobile terminal comprising the respectively current parameters with respect to the reception characteristics of the signal will be received by the device of the mobile radio network and topographically caused changes and/or changes caused by the mobile radio network with respect to the reception of the devices of the mobile radio network which form at least one radio cell will be gathered by the at least one mobile terminal within the scope of an adaptation of the stored parameters that preferably takes place dynamically. - storing parameters for describing reception characteristics dependant on the location of a signal, wherein the parameters will be stored together with at least one information item for identifying the receiving location, - receiving parameters which describe the reception characteristics of a currently received signal, wherein the parameters are assigned to the mobile terminal and - determining the local position of the mobile terminal by comparing the received parameters with stored parameters,
A method for machining a work piece by a machining tool , comprising: defining a customized contact point on the machining tool by setting a contact point height of the machining tool ; moving the machining tool against the work piece to apply predefined machining feeds; generating a default contact diameter (CD default ) of the machining tool ; generating a default movement speed (MS default ) of the machining tool ; generating a default revolution speed of spindle (RS default ) of the machining tool ; calculating the actual contact diameter (CD actual ) in accordance with the customized contact point; modifying the actual revolution speed of spindle (RS actual ) and/or the actual movement speed (MS actual ), to keep the feed rate unchanged. defining a customized contact point on the machining tool by setting a contact point height of the machining tool ; moving the machining tool against the work piece to apply predefined machining feeds; generating a default contact diameter (CD default ) of the machining tool ; generating a default movement speed (MS default ) of the machining tool ; generating a default revolution speed of spindle (RS default ) of the machining tool ; calculating the actual contact diameter (CD actual ) in accordance with the customized contact point; modifying the actual revolution speed of spindle (RS actual ) and/or the actual movement speed (MS actual ), to keep the feed rate unchanged.
A process for recovering solvent from process air by adsorbing solvent on activated carbon, wherein said process comprises regenerating activated carbon in a solvent adsorbing device , said activated carbon containing a solvent that was adsorbed on said carbon in a solvent adsorbing step, in which a flow of air that contains solvent is passed through said carbon, said activated carbon regenerating comprises the steps of: i) heating said activated carbon, said heating being carried out at least in part by a flow of heated inert gas; ii) applying a reduced pressure P red to the heated carbon in said device to remove at least part of said solvent from said activated carbon; iii) recovering the solvent; characterized in that during said heating step i), a.- said heated inert gas is circulated from said activated carbon to at least one heat exchanger to increase the gas temperature to temperature T1 and from said heat exchanger to said activated carbon to increase the temperature of the carbon, at least some of said activated carbon having temperature T2, wherein T1>T2, b.- the temperature T2 of at least part of said activated carbon is lower than the boiling point of said solvent at the pressure P present in said activated carbon adsorbing device, whereby no solvent is recovered in step i); wherein, in said step of solvent adsorption, said solvent-containing air is passed through a bed of activated carbon along a first direction, from a first side (A) to a second side (B) of said bed , and wherein in said heating step said heated inert gas is passed through said carbon along a second direction from said second side (B) to said first side (A), said second direction being opposite to said first direction. i) heating said activated carbon, said heating being carried out at least in part by a flow of heated inert gas; ii) applying a reduced pressure P red to the heated carbon in said device to remove at least part of said solvent from said activated carbon; iii) recovering the solvent; a.- said heated inert gas is circulated from said activated carbon to at least one heat exchanger to increase the gas temperature to temperature T1 and from said heat exchanger to said activated carbon to increase the temperature of the carbon, at least some of said activated carbon having temperature T2, wherein T1>T2, b.- the temperature T2 of at least part of said activated carbon is lower than the boiling point of said solvent at the pressure P present in said activated carbon adsorbing device, whereby no solvent is recovered in step i);
A system for optical detection comprising: a focal plane array ; one or more lenses configured to focus a collimated light beam received at the one or more lenses onto the focal plane array , wherein a position of the light beam on the focal plane array is based on an incident angle of propagation of the collimated light beam at the one or more lenses ; a micro-channel plate collimator positioned within an optical path of the light beam ; and a processor configured to determine the incident angle of propagation of the collimated light beam and to demodulate the light beam to retrieve data encoded within the collimated light beam ; wherein the micro-channel plate collimator comprises: an opaque substrate having a first surface and a second surface ; and a plurality of transparent channels within the opaque substrate ; and wherein a spatial density of the plurality of transparent channels within the opaque substrate along a first portion of the micro-channel plate collimator is less than along a second portion of the micro-channel plate collimator . a focal plane array ; one or more lenses configured to focus a collimated light beam received at the one or more lenses onto the focal plane array , wherein a position of the light beam on the focal plane array is based on an incident angle of propagation of the collimated light beam at the one or more lenses ; a micro-channel plate collimator positioned within an optical path of the light beam ; and a processor configured to determine the incident angle of propagation of the collimated light beam and to demodulate the light beam to retrieve data encoded within the collimated light beam ; wherein the micro-channel plate collimator comprises: an opaque substrate having a first surface and a second surface ; and a plurality of transparent channels within the opaque substrate ; and wherein a spatial density of the plurality of transparent channels within the opaque substrate along a first portion of the micro-channel plate collimator is less than along a second portion of the micro-channel plate collimator . an opaque substrate having a first surface and a second surface ; and a plurality of transparent channels within the opaque substrate ; and wherein a spatial density of the plurality of transparent channels within the opaque substrate along a first portion of the micro-channel plate collimator is less than along a second portion of the micro-channel plate collimator .
Method for manufacturing an assembly for an optoelectronic sensor, wherein an assembly carrier is being equipped with at least one optoelectronic component , the at least one optoelectronic component having an optically active surface , wherein the optically active surface of the optoelectronic component is the light emitting portion of the surface of an optical transmitter or the portion of the surface of an optical receiver participating in the transformation of light into an electric signal, wherein, by applying of an at least partially opaque layer on portions of the optically active surface of the optoelectronic component at least one stop is formed, characterized in, that the position of the at least one stop in relation to the at least one stop is being aligned in relation to the assembly carrier and that the at least partially opaque layer extends on a bond contact being present at the optically active surface and extends at least partially on a bond wire being electrically contacting attached to the bond contact . wherein an assembly carrier is being equipped with at least one optoelectronic component , the at least one optoelectronic component having an optically active surface , wherein the optically active surface of the optoelectronic component is the light emitting portion of the surface of an optical transmitter or the portion of the surface of an optical receiver participating in the transformation of light into an electric signal, wherein, by applying of an at least partially opaque layer on portions of the optically active surface of the optoelectronic component at least one stop is formed, characterized in, that the position of the at least one stop in relation to the at least one stop is being aligned in relation to the assembly carrier and that the at least partially opaque layer extends on a bond contact being present at the optically active surface and extends at least partially on a bond wire being electrically contacting attached to the bond contact .
A variable vane assembly , comprising: a variable vane ; a trunnion arranged on one end of the variable vane ; an inner bushing mated to the trunnion ; and an outer bushing (118; 218) configured to rotatably receive the inner bushing , characterized by : a retention feature configured to retain the trunnion with respect to the outer bushing (118; 218); and the retention feature is configured to mate the inner bushing to the outer bushing (118; 218) by preventing axial movement of the inner bushing in a direction towards the variable vane. a variable vane ; a trunnion arranged on one end of the variable vane ; an inner bushing mated to the trunnion ; and an outer bushing (118; 218) configured to rotatably receive the inner bushing , characterized by : a retention feature configured to retain the trunnion with respect to the outer bushing (118; 218); and the retention feature is configured to mate the inner bushing to the outer bushing (118; 218) by preventing axial movement of the inner bushing in a direction towards the variable vane. a retention feature configured to retain the trunnion with respect to the outer bushing (118; 218); and the retention feature is configured to mate the inner bushing to the outer bushing (118; 218) by preventing axial movement of the inner bushing in a direction towards the variable vane.
A compound or pharmaceutically acceptable salt thereof, wherein the compound is selected from the compounds shown by the following structures, wherein Y is carbonyl, sulfur, sulfone, sulfoxide, optionally substituted methylene or imino; R 1 is hydrogen, deuterium, hydroxy, halogen, nitro, amino, cyano, C 1-3 alkyl, substituted C 1-3 alkyl, substituted C 1-3 amino, C 1-3 alkoxy or substituted C 1-3 alkoxy; R 2 is hydrogen, halogen, nitro, cyano, C 1-3 alkyl or C 1-3 haloalkyl; R 3 is C 1-4 alkyl, substituted C 1-4 alkyl or halogen; m is an integer from 0 to 3; n is 1 or 2; the substituent in the group Y is selected from the group consisting of hydroxyl, amino, cyano, carboxyl, C 1-3 alkoxy or C 1-3 alkyl, the substituent in the group R 1 , Ror R 3 is selected from the group consisting of hydroxyl, halogen, nitro, amino or cyano; in the formula (II-D) and the formula (III-A), Y is not a carbonyl group; provided that the compound is not 2-ethylimidazo[1,2-a]pyrimidin-3-yl)-(4-hydroxyphenyl)methanone. Y is carbonyl, sulfur, sulfone, sulfoxide, optionally substituted methylene or imino; R 1 is hydrogen, deuterium, hydroxy, halogen, nitro, amino, cyano, C 1-3 alkyl, substituted C 1-3 alkyl, substituted C 1-3 amino, C 1-3 alkoxy or substituted C 1-3 alkoxy; R 2 is hydrogen, halogen, nitro, cyano, C 1-3 alkyl or C 1-3 haloalkyl; R 3 is C 1-4 alkyl, substituted C 1-4 alkyl or halogen; m is an integer from 0 to 3; n is 1 or 2; the substituent in the group Y is selected from the group consisting of hydroxyl, amino, cyano, carboxyl, C 1-3 alkoxy or C 1-3 alkyl, the substituent in the group R 1 , Ror R 3 is selected from the group consisting of hydroxyl, halogen, nitro, amino or cyano; in the formula (II-D) and the formula (III-A), Y is not a carbonyl group; provided that the compound is not 2-ethylimidazo[1,2-a]pyrimidin-3-yl)-(4-hydroxyphenyl)methanone.
A signal processing apparatus comprising: a memory configured to store instructions; and a processor configured to execute the instructions to: obtain (310; 610; 710) a bio-signal; obtain (320; 620; 730) a frequency band spectrum by applying a Fast Fourier Transform, FFT, to the obtained bio-signal; remove (330; 630; 740) noise from the obtained spectrum by applying a first filter and a second filter, which are different from each other, to the obtained frequency band spectrum; based on removing the noise from the frequency band spectrum, recover (640; 750) the bio-signal by applying an inverse FFT to the spectrum; and estimating (650: 760) bio-information based on the recovered bio-signal, characterized in that the first filter comprises a Gaussian-based asymmetric window filter ; and the second filter comprises a Gaussian-based symmetric window filter (21; 22; 24). a memory configured to store instructions; and a processor configured to execute the instructions to: obtain (310; 610; 710) a bio-signal; obtain (320; 620; 730) a frequency band spectrum by applying a Fast Fourier Transform, FFT, to the obtained bio-signal; remove (330; 630; 740) noise from the obtained spectrum by applying a first filter and a second filter, which are different from each other, to the obtained frequency band spectrum; based on removing the noise from the frequency band spectrum, recover (640; 750) the bio-signal by applying an inverse FFT to the spectrum; and estimating (650: 760) bio-information based on the recovered bio-signal, characterized in that the first filter comprises a Gaussian-based asymmetric window filter ; and the second filter comprises a Gaussian-based symmetric window filter (21; 22; 24). obtain (310; 610; 710) a bio-signal; obtain (320; 620; 730) a frequency band spectrum by applying a Fast Fourier Transform, FFT, to the obtained bio-signal; remove (330; 630; 740) noise from the obtained spectrum by applying a first filter and a second filter, which are different from each other, to the obtained frequency band spectrum; based on removing the noise from the frequency band spectrum, recover (640; 750) the bio-signal by applying an inverse FFT to the spectrum; and estimating (650: 760) bio-information based on the recovered bio-signal, characterized in that the first filter comprises a Gaussian-based asymmetric window filter ; and the second filter comprises a Gaussian-based symmetric window filter (21; 22; 24).
A system for controlling access to a network, comprising: means for receiving, from a multi-mode device , a request for authorization to employ unlicensed mobile access, the request including an Internet Protocol, IP, data packet associated with the multi-mode device , the IP data packet including a public originating IP address associated with an IP service provider; a lookup component for determining a geographic location associated with the public originating IP address; and a comparison component for comparing the determined geographic location with a geographic location stored within a data store, the data store including locations where the multi-mode device is authorized to employ unlicensed mobile access, and determining whether the multi-mode device is authorized to employ unlicensed mobile access based upon the comparison and, if it is determined that the multi-mode device is authorized to employ unlicensed mobile access, the multi-mode device is adapted to send or receive data by way of a unlicensed wireless network associated with an access point related to the public originating IP address and, if it is determined that the multi-mode device is not authorized to employ unlicensed mobile access, the multi-mode device is adapted to send or receive data by way of a cellular network. means for receiving, from a multi-mode device , a request for authorization to employ unlicensed mobile access, the request including an Internet Protocol, IP, data packet associated with the multi-mode device , the IP data packet including a public originating IP address associated with an IP service provider; a lookup component for determining a geographic location associated with the public originating IP address; and a comparison component for comparing the determined geographic location with a geographic location stored within a data store, the data store including locations where the multi-mode device is authorized to employ unlicensed mobile access, and determining whether the multi-mode device is authorized to employ unlicensed mobile access based upon the comparison and, if it is determined that the multi-mode device is authorized to employ unlicensed mobile access, the multi-mode device is adapted to send or receive data by way of a unlicensed wireless network associated with an access point related to the public originating IP address and, if it is determined that the multi-mode device is not authorized to employ unlicensed mobile access, the multi-mode device is adapted to send or receive data by way of a cellular network.
A method, comprising: performing by a user equipment one or more measurements; evaluating by the user equipment one or more events related to the one or more measurements; and if the at least one evaluated event is fulfilled during a time-to-trigger period and there is no need to transmit uplink data, buffering by the user equipment, after expiry of the time-to-trigger period, a triggered measurement report related to the at least one fulfilled evaluated event as a candidate measurement report. performing by a user equipment one or more measurements; evaluating by the user equipment one or more events related to the one or more measurements; and if the at least one evaluated event is fulfilled during a time-to-trigger period and there is no need to transmit uplink data, buffering by the user equipment, after expiry of the time-to-trigger period, a triggered measurement report related to the at least one fulfilled evaluated event as a candidate measurement report.
A non-therapeutic anti-aging method comprising the step of administering an AGEs-degrading agent, the agent comprising: at least one kind of plant extract obtained from a plant selected from the group consisting of peanut, knotweed and leaf lettuce.
A composition comprising a cosmetically effective amount of a Murumuru butter that ranges from 0.001% to 5% by weight, a cosmetically effective amount of an Acai berry extract that ranges from 0.0001% to 2% by weight and a cosmetically effective amount of an Inca Inchi oil that ranges from 0.005% to 15% by weight of the total composition.
A reverse osmosis filter module comprising a feed spacer formed of a first stage (A) and a second stage (B) in a flow direction of raw water, wherein the feed spacer comprises: a first set of parallel strands; and a second set of parallel strands crossing the first set , wherein a crossing angle (a1, a2) of the first and second sets is increased in the flow direction of raw water, wherein the crossing angle (a1) of the first set and the second set in the first stage (A) is smaller than the crossing angle (a2) of the first set and the second set in the second stage (B), wherein a distance (d2) between cross points of the first and second sets in the second stage (B) is smaller than a distance (d1) between cross points of the first and second sets in the first stage (A), wherein a diameter difference (W2-W1, W2-W1') between a cross point and a non-cross point of the first and second sets is decreased in the flow direction of the raw water, wherein a height of the feed spacer is the same in the first stage (A) and the second stage (B), wherein a diameter (W2) of the cross-points in the first stage (A) and the second stage (B) are the same. a first set of parallel strands; and a second set of parallel strands crossing the first set , wherein a crossing angle (a1, a2) of the first and second sets is increased in the flow direction of raw water, wherein the crossing angle (a1) of the first set and the second set in the first stage (A) is smaller than the crossing angle (a2) of the first set and the second set in the second stage (B), wherein a distance (d2) between cross points of the first and second sets in the second stage (B) is smaller than a distance (d1) between cross points of the first and second sets in the first stage (A), wherein a diameter difference (W2-W1, W2-W1') between a cross point and a non-cross point of the first and second sets is decreased in the flow direction of the raw water, wherein a height of the feed spacer is the same in the first stage (A) and the second stage (B), wherein a diameter (W2) of the cross-points in the first stage (A) and the second stage (B) are the same.
A method of producing soluble interleukin-2 receptor, comprising: culturing SCC-3 cells; and recovering soluble interleukin-2 receptor from a culture of the cells. culturing SCC-3 cells; and recovering soluble interleukin-2 receptor from a culture of the cells.