mhurhangee/patent-ind-claim-en huggingface dataset:
An electronic control unit for measuring impedance between electrodes of a connected medical device , comprising: a controller configured to: generate a plurality of drive signals each having a unique modulation frequency that is a harmonic of a common base frequency; and simultaneously apply each of said plurality of drive signals across an individual pair of electrodes of the medical device ; a measurement circuit for measuring a composite response signal of said plurality of drive signals as applied to a plurality of individual pairs of electrodes of the medical device ; a demodulator configured to synchronously demodulate said composite response signal for each said unique modulation frequency, wherein for each said unique modulation frequency said demodulator is configured to multiply said composite response signal with a demodulation signal having an identical frequency to said unique modulation frequency and a known phase that is offset from a phase of said unique modulation frequency; and wherein said controller is configured to output an impedance value for each individual pair of electrodes based on the synchronous demodulation of the composite response signal. a controller configured to: generate a plurality of drive signals each having a unique modulation frequency that is a harmonic of a common base frequency; and simultaneously apply each of said plurality of drive signals across an individual pair of electrodes of the medical device ; generate a plurality of drive signals each having a unique modulation frequency that is a harmonic of a common base frequency; and simultaneously apply each of said plurality of drive signals across an individual pair of electrodes of the medical device ; a measurement circuit for measuring a composite response signal of said plurality of drive signals as applied to a plurality of individual pairs of electrodes of the medical device ; a demodulator configured to synchronously demodulate said composite response signal for each said unique modulation frequency, wherein for each said unique modulation frequency said demodulator is configured to multiply said composite response signal with a demodulation signal having an identical frequency to said unique modulation frequency and a known phase that is offset from a phase of said unique modulation frequency; and wherein said controller is configured to output an impedance value for each individual pair of electrodes based on the synchronous demodulation of the composite response signal.
Pot/pan support for a gas burner having a plurality of flat rectilinear frame strips and a plurality of fingers which project inwards from the frame strips and the tops of which form a placement surface (AF) for a food container, wherein at least one of the flat rectilinear frame strips is arranged vertically opposite the remaining frame strips , which are arranged horizontally, as a result of which the at least one vertical frame strip provides heat protection for the pot/pan support and wherein the at least one vertical frame strip is formed by bending into a vertical orientation from a flat polygonal frame composed of flat horizontal frame strips , wherein the horizontally arranged frame strips form a standing surface (SF) for the pot/pan support in or on a cooktop , wherein the at least one vertical frame strip is arranged such that there is a gap (A) for the secondary air supply (SL) between the standing surface (SF) of the pot/pan support and a lower edge of the at least one vertical frame strip .
Optical unit comprising at least one motor vehicle part comprising at least one portion visible from the outside of the part, the portion being at least partly covered with an electronic ink capable of forming a pattern on the portion , the part being incorporated in the optical unit , the optical unit being able to ensure a signalling function or a lighting function for the vehicle, the optical unit being characterized in that the part forms a mask for the optical unit or at least a part of a protective outer lens of the optical unit or a housing for the optical unit , and in that the visible portion is arranged to participate only in the aesthetic aspect of the unit, that is to say that the visible portion does not participate in the signalling or lighting function.
A lubricant distributor , in particular a sectional distributor, for distributing lubricant to at least one lubrication point, comprising: - a distributor body having an inlet opening for lubricant, which is in fluid communication with at least one outlet channel opening into an outlet opening of the distributor body , - a rotary valve mounted to be rotatable within the distributor body , which is shiftable between an opening position (P1) of the rotary valve , in which the outlet channel is opened to allow lubricant to pass to the outlet opening , and a closing position (P0) of the rotary valve , in which the outlet channel is closed, - an in particular electromotive drive which is coupled to a control gear , characterized in that the control gear comprises a control wheel having at least one control toothing portion which can be brought into engagement with a toothing of the rotary valve so as to shift the rotary valve between the opening position (P1) and the closing position (P0), wherein a lubricating time interval, during which the rotary valve is in the opening position (P1), is variably adjustable. - a distributor body having an inlet opening for lubricant, which is in fluid communication with at least one outlet channel opening into an outlet opening of the distributor body , - a rotary valve mounted to be rotatable within the distributor body , which is shiftable between an opening position (P1) of the rotary valve , in which the outlet channel is opened to allow lubricant to pass to the outlet opening , and a closing position (P0) of the rotary valve , in which the outlet channel is closed, - an in particular electromotive drive which is coupled to a control gear ,
A method comprising: measuring a concentration of oleanane (O), C 29 30-nor-neohopane (H29Ts), bicadinanes and methyl-bicadinanes (B), and C 27 22,29,30-tris-nor-neohopane (Ts) in a hydrocarbon sample; calculating an angiosperm index-1 = [O]/([O] + [H29Ts]) and an angiosperm index-2 = [O]+[B]/([O]+[B]+[Ts]); and estimating an age of the hydrocarbon sample based on a relationship between the angiosperm index-1 and the angiosperm index-2 as a function of age for a set of calibration samples. measuring a concentration of oleanane (O), C 29 30-nor-neohopane (H29Ts), bicadinanes and methyl-bicadinanes (B), and C 27 22,29,30-tris-nor-neohopane (Ts) in a hydrocarbon sample; calculating an angiosperm index-1 = [O]/([O] + [H29Ts]) and an angiosperm index-2 = [O]+[B]/([O]+[B]+[Ts]); and estimating an age of the hydrocarbon sample based on a relationship between the angiosperm index-1 and the angiosperm index-2 as a function of age for a set of calibration samples.
An information processing apparatus comprising: a control part configured to perform control to - receive a signal from another information processing apparatus , - acquire surrounding environment information regarding an environment surrounding the information processing apparatus based on the received signal and a receiving power of the received signal, the surrounding environment information including at least the positions of the other information processing apparatus , - transmit an RTS frame as the frame i) for requesting transmission of data from the information processing apparatus to a first information processing apparatus , and ii) for requesting a second information processing apparatus to set a transmission inhibition time, wherein the RTS frame is transmitted with a first transmitting power determined on a basis of the surrounding environment information, and - transmit a communication end frame for notifying the end of communication of the data and for requesting the transmission inhibition time to be canceled, the communication end frame being transmitted with a second transmitting power determined on a basis of the receiving power at the time of receiving a CTS frame and transmitting power information stored in the CTS frame. - receive a signal from another information processing apparatus , - acquire surrounding environment information regarding an environment surrounding the information processing apparatus based on the received signal and a receiving power of the received signal, the surrounding environment information including at least the positions of the other information processing apparatus , - transmit an RTS frame as the frame i) for requesting transmission of data from the information processing apparatus to a first information processing apparatus , and ii) for requesting a second information processing apparatus to set a transmission inhibition time, wherein the RTS frame is transmitted with a first transmitting power determined on a basis of the surrounding environment information, and i) for requesting transmission of data from the information processing apparatus to a first information processing apparatus , and ii) for requesting a second information processing apparatus to set a transmission inhibition time, wherein the RTS frame is transmitted with a first transmitting power determined on a basis of the surrounding environment information, and - transmit a communication end frame for notifying the end of communication of the data and for requesting the transmission inhibition time to be canceled, the communication end frame being transmitted with a second transmitting power determined on a basis of the receiving power at the time of receiving a CTS frame and transmitting power information stored in the CTS frame.
Method for location-dependent billing for a service availed of by a user with a mobile terminal comprising an identification module , characterized in that the identification module at definable points in time transmits a request for transmission of data of a location tag, the request comprising an identification; in that the request is received by at least one location tag and the identification contained in the request is evaluated by the at least one location tag; in that , via a wireless interface of the identification module , a local communication connection to the at least one external location tag is set up with a corresponding wireless interface, whereby only after evaluation of the said identification the at least one location tag transmits the said data to the identification module; in that through an evaluation of the transmitted data of the at least one external location tag , a location identification is ascertained, and in that in a billing unit a billing rate assigned to the ascertained location identification is selected for billing for the service availed of by the user.
A magnet arrangement for an implantable hearing implant, the arrangement comprising: an implantable coil case containing a communications coil for transcutaneous communication of an implant communication signal, the coil case being made of biocompatible resilient material and having a top lateral surface; a magnet receptacle within the coil case having a receptacle opening in the top lateral surface; an implant magnet fitting within the magnet receptacle and having: i. opposing end surfaces with corresponding end diameters, and ii. a center body region located between the end surfaces and having a corresponding center body diameter larger than the end diameters; wherein the magnet receptacle has corresponding enclosing surfaces configured to fit against the different diameter surfaces of the implant magnet to secure the implant magnet within the magnet receptacle; and an elastic opening clamp located radially around the receptacle opening and configured to normally be closed around the receptacle opening to maintain the implant magnet within the magnet receptacle, wherein the elastic opening clamp is configured to cooperate with a surgical handling tool to expand the receptacle opening to permit the implant magnet to be removed from the magnet receptacle through the receptacle opening without needing to move the coil case. an implantable coil case containing a communications coil for transcutaneous communication of an implant communication signal, the coil case being made of biocompatible resilient material and having a top lateral surface; a magnet receptacle within the coil case having a receptacle opening in the top lateral surface; an implant magnet fitting within the magnet receptacle and having: i. opposing end surfaces with corresponding end diameters, and ii. a center body region located between the end surfaces and having a corresponding center body diameter larger than the end diameters; wherein the magnet receptacle has corresponding enclosing surfaces configured to fit against the different diameter surfaces of the implant magnet to secure the implant magnet within the magnet receptacle; and i. opposing end surfaces with corresponding end diameters, and ii. a center body region located between the end surfaces and having a corresponding center body diameter larger than the end diameters; wherein the magnet receptacle has corresponding enclosing surfaces configured to fit against the different diameter surfaces of the implant magnet to secure the implant magnet within the magnet receptacle; and an elastic opening clamp located radially around the receptacle opening and configured to normally be closed around the receptacle opening to maintain the implant magnet within the magnet receptacle, wherein the elastic opening clamp is configured to cooperate with a surgical handling tool to expand the receptacle opening to permit the implant magnet to be removed from the magnet receptacle through the receptacle opening without needing to move the coil case.
A process for making an epoxy resin comprising: admixing: a first epoxy resin having a first epoxy equivalent weight of from 100 to 600, a diphenolic compound, a catalyst; and forming a second epoxy resin having a second epoxy equivalent weight of from 200 to 10,000; wherein the catalyst is a guanidinium catalyst and the second epoxy equivalent weight is greater than the first epoxy equivalent weight. admixing: a first epoxy resin having a first epoxy equivalent weight of from 100 to 600, a diphenolic compound, a catalyst; and a first epoxy resin having a first epoxy equivalent weight of from 100 to 600, a diphenolic compound, a catalyst; and forming a second epoxy resin having a second epoxy equivalent weight of from 200 to 10,000; wherein the catalyst is a guanidinium catalyst and the second epoxy equivalent weight is greater than the first epoxy equivalent weight.
A fusion polypeptide comprising a first fragment from a first interferon lambda isoform and a second fragment from a second interferon lambda isoform, wherein said first and second fragments are fused together at a fusion site to form a contiguous polypeptide, wherein the fusion site comprises a sequence of at least about 6 amino acids that is identical to a corresponding sequence in said first and said second interferon lambda isoforms, and wherein said first interferon lambda isoform is IL29 of SEQ ID NO: 1 and said second interferon lambda isoform is IL28B of SEQ ID NO: 2, wherein the fusion polypeptide comprises an amino acid sequence selected from a group consisting of SEQ ID NO:3, SEQ ID NO:4, SEQ ID NO:5, SEQ ID NO: 6, SEQ ID NO:7, SEQ ID NO:8, SEQ ID NO:9, SEQ ID NO:10, SEQ ID NO:11, SEQ ID NO:12, SEQ ID NO:13, SEQ ID NO:14, SEQ ID NO:15, SEQ ID NO:16, SEQ ID NO:17, SEQ ID NO:18, and SEQ ID NO:19.
A header for an agricultural vehicle , the header comprising: a base structure ; a header wing section ; an articulated joint connecting the header wing section to the base structure ; an actuator operatively connected between the header wing section and the base structure , the actuator being operative to move the header wing section relative to the base structure between a wing lowered position and a wing raised position; a load sensor operatively connected to the header wing section ; and a controller operatively connected to the load sensor and the actuator , the controller being configured to acquire load sensor data from the load sensor to evaluate a magnitude of a gravitational load on the header wing section , characterized in that the controller is further configured to prevent the actuator from moving the header wing section towards the wing raised position if the magnitude of the gravitational load exceeds a predetermined threshold load value. a base structure ; a header wing section ; an articulated joint connecting the header wing section to the base structure ; an actuator operatively connected between the header wing section and the base structure , the actuator being operative to move the header wing section relative to the base structure between a wing lowered position and a wing raised position; a load sensor operatively connected to the header wing section ; and a controller operatively connected to the load sensor and the actuator , the controller being configured to acquire load sensor data from the load sensor to evaluate a magnitude of a gravitational load on the header wing section , characterized in that the controller is further configured to prevent the actuator from moving the header wing section towards the wing raised position if the magnitude of the gravitational load exceeds a predetermined threshold load value.
A projector clustering method comprising the steps of: (a) arranging projection areas of a plurality of projectors 2. to be overlapped with each other(S11); (b) setting a reference projector among the plurality of projectors (S12); and (c) calculating relative transformation information between the reference projector and the other projectors (S13); (d) calculating relative transformation information between the reference projector and an image area (S14); (e) calculating relative transformation information between the image area and the other projectors based on the relative transformation information between the reference projector and the other projectors and the relative transformation information between the reference projector and the image area (S15); wherein a correspondence relation between a pixel included in the image area and a pixel included in a projection area of a specific projector is calculated based on relative transformation information between the image area and the specific projector; the method being characterized in that if the projection area of the specific projector is not in a rectangular shape, a reference area of a rectangular shape is set using a maximum value and a minimum value of the projection area, and a position of a pixel included in the projection area is expressed based on the set reference area. (a) arranging projection areas of a plurality of projectors 2. to be overlapped with each other(S11); (b) setting a reference projector among the plurality of projectors (S12); and (c) calculating relative transformation information between the reference projector and the other projectors (S13); (d) calculating relative transformation information between the reference projector and an image area (S14); (e) calculating relative transformation information between the image area and the other projectors based on the relative transformation information between the reference projector and the other projectors and the relative transformation information between the reference projector and the image area (S15);
A zoom digital camera comprising: a) a Wide imaging section that includes a fixed focal length Wide lens with a Wide field of view (FOV) and a Wide sensor , the Wide imaging section operative to provide Wide image data of an object or scene; b) a Tele imaging section that includes a fixed focal length Tele lens with a Tele FOV that is narrower than the Wide FOV and a Tele sensor , the Tele imaging section operative to provide Tele image data of the object or scene; and c) a camera controller operatively coupled to the Wide and Tele imaging sections characterized in that the camera controller is configured to switch, unless a no-switching criterion is fulfilled, from a Wide camera output to a transformed Tele camera output in a zoom-in operation between a lower zoom factor (ZF) value and a higher ZF value, and wherein the camera controller is configured to evaluate if the no-switching criterion is fulfilled based on inputs obtained from processing both Wide and Tele image data, and, if the no-switching criterion is fulfilled, to output a zoom video output image that includes only Wide image data in a zoom-in operation between a lower zoom factor (ZF) value and a higher ZF value. a) a Wide imaging section that includes a fixed focal length Wide lens with a Wide field of view (FOV) and a Wide sensor , the Wide imaging section operative to provide Wide image data of an object or scene; b) a Tele imaging section that includes a fixed focal length Tele lens with a Tele FOV that is narrower than the Wide FOV and a Tele sensor , the Tele imaging section operative to provide Tele image data of the object or scene; and c) a camera controller operatively coupled to the Wide and Tele imaging sections
A method of making a non-random isobutylene copolymer comprising: (a) providing a reaction mixture to a first reactor comprising isobutylene monomer as well as a Lewis acid polymerization catalyst; (b) polymerizing the reaction mixture in the first reactor while maintaining the first reactor at a temperature above -30°C and utilizing a first reactor residence time of less than 45 minutes to polymerize at least 30% of the isobutylene monomer fed to the first reactor to produce an isobutylene prepolymer in a polymerization mixture; (c) feeding the polymerization mixture to a second reactor along with a comonomer selected from isoprene, butadiene, cyclopentadiene, dicyclopentadiene, limonene, substituted styrenes, piperylene and C4 to C10 dienes other than isoprene, butadiene, cyclopentadiene, dicyclopentadiene, limonene or piperylene and optionally additional Lewis acid polymerization catalyst, wherein the molar ratio of isobutylene monomer fed to the first and second reactors to the comonomer is from 60:1 to 1:1; (d) polymerizing the polymerization mixture and comonomer in the second reactor while maintaining the reactor at a temperature above -30°C and utilizing a reactor residence time of less than 45 minutes to produce a non-random crude isobutylene copolymer in a copolymerization mixture; and (e) recovering a purified non-random isobutylene copolymer from the copolymerization mixture having a molecular weight, M n , of from 200 to 20,000 Daltons. (a) providing a reaction mixture to a first reactor comprising isobutylene monomer as well as a Lewis acid polymerization catalyst; (b) polymerizing the reaction mixture in the first reactor while maintaining the first reactor at a temperature above -30°C and utilizing a first reactor residence time of less than 45 minutes to polymerize at least 30% of the isobutylene monomer fed to the first reactor to produce an isobutylene prepolymer in a polymerization mixture; (c) feeding the polymerization mixture to a second reactor along with a comonomer selected from isoprene, butadiene, cyclopentadiene, dicyclopentadiene, limonene, substituted styrenes, piperylene and C4 to C10 dienes other than isoprene, butadiene, cyclopentadiene, dicyclopentadiene, limonene or piperylene and optionally additional Lewis acid polymerization catalyst, wherein the molar ratio of isobutylene monomer fed to the first and second reactors to the comonomer is from 60:1 to 1:1; (d) polymerizing the polymerization mixture and comonomer in the second reactor while maintaining the reactor at a temperature above -30°C and utilizing a reactor residence time of less than 45 minutes to produce a non-random crude isobutylene copolymer in a copolymerization mixture; and (e) recovering a purified non-random isobutylene copolymer from the copolymerization mixture having a molecular weight, M n , of from 200 to 20,000 Daltons.