mhurhangee/patent-ind-claim-en huggingface dataset:
A cardiac system comprising: a sensing circuit configured to: receive a cardiac electrical signal from electrodes coupled to the system, and sense a cardiac event in response to the cardiac electrical signal crossing an R-wave sensing threshold; a therapy delivery circuit configured to deliver electrical stimulation therapy to a patient's heart via electrodes coupled to the system; and a control circuit configured to: determine at least one sensed event parameter from the cardiac electrical signal for each one of a plurality of consecutive cardiac events sensed by the sensing circuit; compare the sensed event parameters to P-wave oversensing criteria; detect P-wave oversensing in response to the sensed event parameters meeting the P-wave oversensing criteria; and adjust at least one of an R-wave sensing control parameter or a therapy delivery control parameter in response to detecting the P-wave oversensing. a sensing circuit configured to: receive a cardiac electrical signal from electrodes coupled to the system, and sense a cardiac event in response to the cardiac electrical signal crossing an R-wave sensing threshold; receive a cardiac electrical signal from electrodes coupled to the system, and sense a cardiac event in response to the cardiac electrical signal crossing an R-wave sensing threshold; a therapy delivery circuit configured to deliver electrical stimulation therapy to a patient's heart via electrodes coupled to the system; and a control circuit configured to: determine at least one sensed event parameter from the cardiac electrical signal for each one of a plurality of consecutive cardiac events sensed by the sensing circuit; compare the sensed event parameters to P-wave oversensing criteria; detect P-wave oversensing in response to the sensed event parameters meeting the P-wave oversensing criteria; and adjust at least one of an R-wave sensing control parameter or a therapy delivery control parameter in response to detecting the P-wave oversensing. determine at least one sensed event parameter from the cardiac electrical signal for each one of a plurality of consecutive cardiac events sensed by the sensing circuit; compare the sensed event parameters to P-wave oversensing criteria; detect P-wave oversensing in response to the sensed event parameters meeting the P-wave oversensing criteria; and adjust at least one of an R-wave sensing control parameter or a therapy delivery control parameter in response to detecting the P-wave oversensing.
A method of adjusting positioning data, the method comprising acquiring positioning data obtained from a first registration for a plurality of objects to be surveyed having mutual constant positions; measuring relative positions for at least a subset of the plurality of objects in a second registration; and calculating an adapted measurement position for at least one of the objects of the subset of the plurality of objects by correlating the measured relative positions from the second registration for the at least a subset of the plurality of objects with the acquired positioning data from the first registration, wherein the adapted measurement position is based on the acquired positioning data, wherein the acquired positioning data from the first registration is a file comprising the positions for the respective object, wherein the method is characterized in that the first registration is obtained through a first device and wherein the second registration is obtained through a second device and wherein the positions are determined from above the objects to be registered at a higher altitude than from the ground level altitude on which the measurement of the relative positions for the at least a subset of the plurality of objects is made in the second registration. acquiring positioning data obtained from a first registration for a plurality of objects to be surveyed having mutual constant positions; measuring relative positions for at least a subset of the plurality of objects in a second registration; and calculating an adapted measurement position for at least one of the objects of the subset of the plurality of objects by correlating the measured relative positions from the second registration for the at least a subset of the plurality of objects with the acquired positioning data from the first registration, wherein the adapted measurement position is based on the acquired positioning data, wherein the acquired positioning data from the first registration is a file comprising the positions for the respective object, wherein the method is characterized in that the first registration is obtained through a first device and wherein the second registration is obtained through a second device and wherein the positions are determined from above the objects to be registered at a higher altitude than from the ground level altitude on which the measurement of the relative positions for the at least a subset of the plurality of objects is made in the second registration.
A method for selecting a spermatozoon, comprising the following steps: a) extracting nucleic acids from spermatozoa contained in a first spermatozoa sample previously obtained from a human subject; b) measuring the expression level of at least one marker gene selected from the group consisting of AURKA, CFAP46, CCDC60, CCDC88B, HDAC4, CACNA1C, CACNA1H, CARHSP1, DNAH2 and SPATA18 or a homologous gene thereof, from the extracted nucleic acids c) determining the existence of an expression differential of the at least one marker gene compared to a control; and d) selecting the spermatozoon from a second spermatozoa sample previously obtained from a human subject: if there is an expression differential, the selection of the spermatozoon is carried out by observation at a magnification greater than x5000; if there is no expression differential, the selection of the spermatozoon is carried out by observation at a magnification lower than x500. a) extracting nucleic acids from spermatozoa contained in a first spermatozoa sample previously obtained from a human subject; b) measuring the expression level of at least one marker gene selected from the group consisting of AURKA, CFAP46, CCDC60, CCDC88B, HDAC4, CACNA1C, CACNA1H, CARHSP1, DNAH2 and SPATA18 or a homologous gene thereof, from the extracted nucleic acids c) determining the existence of an expression differential of the at least one marker gene compared to a control; and d) selecting the spermatozoon from a second spermatozoa sample previously obtained from a human subject: if there is an expression differential, the selection of the spermatozoon is carried out by observation at a magnification greater than x5000; if there is no expression differential, the selection of the spermatozoon is carried out by observation at a magnification lower than x500.
An elevator system comprising: an elevator car movable along an elevator shaft , the shaft having a pit floor and a shaft top, the elevator car having an elevator car door sill ; a plurality of landings arranged along the elevator shaft , wherein each landing has a landing door ; and a car apron assembly comprising: a car apron attached to the elevator car at the elevator car door sill ; characterized in that the car apron assembly further comprises a first triggering element connected to at least one landing door ; and a second triggering element operably connected to the car apron , wherein the car apron is deployable from a stowed state to a deployed state when the first triggering element engages and actuates the second triggering element . an elevator car movable along an elevator shaft , the shaft having a pit floor and a shaft top, the elevator car having an elevator car door sill ; a plurality of landings arranged along the elevator shaft , wherein each landing has a landing door ; and a car apron assembly comprising: a car apron attached to the elevator car at the elevator car door sill ; characterized in that the car apron assembly further comprises a first triggering element connected to at least one landing door ; and a second triggering element operably connected to the car apron , wherein the car apron is deployable from a stowed state to a deployed state when the first triggering element engages and actuates the second triggering element . a first triggering element connected to at least one landing door ; and a second triggering element operably connected to the car apron , wherein the car apron is deployable from a stowed state to a deployed state when the first triggering element engages and actuates the second triggering element .
Grinding-machine housing, with at least one housing-shell element and with at least one further housing-shell element which is connected to the housing-shell element , said housing-shell elements at least sectionally forming a handle , characterized by at least one venting opening , in particular ventilation slot, which is formed at least sectionally in the region of a separating edge of the housing-shell element and the further housing-shell element by the housing-shell element and the further housing-shell element , wherein a housing edge of the housing-shell element is arranged spaced apart sectionally relative to the further housing-shell element in order to form the venting opening.
A noise cancellation system for a vehicle , comprising a microphone for receiving noise and generating a corresponding noise signal; a loudspeaker for emitting an acoustic wave according to a cancellation signal to cancel the noise; a control unit comprising a memory and a controller ; wherein the memory comprises a noise filter; and wherein the controller is configured to obtain at least a vehicle related information of the vehicle ; to configure the noise filter based on the at least one vehicle related information; and to generate a cancellation signal based on the noise signal and the noise filter; the noise cancellation system comprises a position determination unit for determining a vehicle position; wherein the vehicle related information comprises the vehicle position; and characterized in that the controller is configured to determine whether the vehicle is located within an agricultural field based on the vehicle position; to determine whether the vehicle is located outside of an agricultural field based on the vehicle position; and wherein the noise filter is activated if the vehicle is located within the agricultural field and deactivated if the vehicle is located outside of the agricultural field . the noise cancellation system comprises a position determination unit for determining a vehicle position; wherein the vehicle related information comprises the vehicle position; and characterized in that the controller is configured to determine whether the vehicle is located within an agricultural field based on the vehicle position; to determine whether the vehicle is located outside of an agricultural field based on the vehicle position; and wherein the noise filter is activated if the vehicle is located within the agricultural field and deactivated if the vehicle is located outside of the agricultural field .
A secure computation system comprising three or more secure computation devices (1 1 , ..., 1 n ) for generating a secure text array <b> having m elements by reading out elements whose positions are x+i 0 , ..., x+i m-1 from a secure text array <a> having n elements while concealing x, wherein x is an integer that is equal to or higher than 0 and less than n, i 0 ,..., i m-1 are integers that are equal to or higher than 0 and less than n, each of the secure computation device (1 1 , ..., 1 n ) comprises: an input part that receives a secret share of the secure text array <a>=(<a > <a[n-1]>) where an array a=(a , a ,..., a[n-1]) having a size of n is secured by secret sharing, a secret share of a secure text <x> where the integer x is secured by secret sharing, and the integers i 0 ,..., i m-1 ; a secure shift part that secure-shifts the secure text array <a> by <x> to obtain a secure text array <a'>=(<a' > <a'[n-1]>) where an array a'=(a' a'[n-1]) obtained by shifting leftward the array a by x is secured by secret sharing, characterized in that x is an absolute position of the element to be read out in the array a, i 0 ,..., i m-1 are relative positions of the elements to be read out from x in the array a, and each of the secure computation device (1 1 , ..., 1 n ) further comprises an array generation part that generates the secure text array <b>=(<a'[i 0 ]>,..., <a'[i m-1 ]>) from the secure text array <a'>. an input part that receives a secret share of the secure text array <a>=(<a > <a[n-1]>) where an array a=(a , a ,..., a[n-1]) having a size of n is secured by secret sharing, a secret share of a secure text <x> where the integer x is secured by secret sharing, and the integers i 0 ,..., i m-1 ; a secure shift part that secure-shifts the secure text array <a> by <x> to obtain a secure text array <a'>=(<a' > <a'[n-1]>) where an array a'=(a' a'[n-1]) obtained by shifting leftward the array a by x is secured by secret sharing, characterized in that x is an absolute position of the element to be read out in the array a, i 0 ,..., i m-1 are relative positions of the elements to be read out from x in the array a, and each of the secure computation device (1 1 , ..., 1 n ) further comprises an array generation part that generates the secure text array <b>=(<a'[i 0 ]>,..., <a'[i m-1 ]>) from the secure text array <a'>.
An exhaust gas purification catalyst disposed in an exhaust passage of an internal combustion engine and purifying exhaust gas emitted from the internal combustion engine, the exhaust gas purification catalyst comprising: a substrate ; and a catalyst coat layer formed on a surface of the substrate, the catalyst coat layer having a multilayer structure comprising: a lower layer provided on the substrate ; a middle layer provided on the lower layer ; and an upper layer provided on the middle layer ; the upper layer comprising Rh and a first Ce-containing oxide, the lower layer comprising Pd and a second Ce-containing oxide, the middle layer being a Ce-free layer that contains Pd but does not contain a Ce-containing oxide, and a ratio (B/A) of a content B of Ce in the lower layer to a content A of Ce in the upper layer satisfying 2≤(B/A), wherein the content A of Ce in the upper layer is in the range of from 3 g/L to 30 g/L, on a CeO 2 basis, per L of volume of the substrate , and the content B of Ce in the lower layer is in the range of from 40 g/L to 70 g/L, on a CeO 2 basis, per L of volume of the substrate . a substrate ; and a catalyst coat layer formed on a surface of the substrate, the catalyst coat layer having a multilayer structure comprising: a lower layer provided on the substrate ; a middle layer provided on the lower layer ; and an upper layer provided on the middle layer ; a lower layer provided on the substrate ; a middle layer provided on the lower layer ; and an upper layer provided on the middle layer ; the upper layer comprising Rh and a first Ce-containing oxide, the lower layer comprising Pd and a second Ce-containing oxide, the middle layer being a Ce-free layer that contains Pd but does not contain a Ce-containing oxide, and a ratio (B/A) of a content B of Ce in the lower layer to a content A of Ce in the upper layer satisfying 2≤(B/A), wherein the content A of Ce in the upper layer is in the range of from 3 g/L to 30 g/L, on a CeO 2 basis, per L of volume of the substrate , and the content B of Ce in the lower layer is in the range of from 40 g/L to 70 g/L, on a CeO 2 basis, per L of volume of the substrate .
A method for determining the presence or amount of testosterone in a biological sample, the method comprising: (a) providing a biological sample containing testosterone wherein the biological sample comprises an internal standard that is a stable isotopically labelled testosterone; (b) partially purifying the biological sample thereby providing a partially purified biological sample comprising testosterone; (c) chromatographically separating testosterone from the other components in the partially purified biological sample using liquid chromatography; and (d) analyzing the chromatographically separated testosterone by mass spectrometry to determine the presence or amount of testosterone in the biological sample characterized in that the partially purifying step (b) uses supported liquid extraction. (a) providing a biological sample containing testosterone wherein the biological sample comprises an internal standard that is a stable isotopically labelled testosterone; (b) partially purifying the biological sample thereby providing a partially purified biological sample comprising testosterone; (c) chromatographically separating testosterone from the other components in the partially purified biological sample using liquid chromatography; and (d) analyzing the chromatographically separated testosterone by mass spectrometry to determine the presence or amount of testosterone in the biological sample
A wax dispersant composition for use in subterranean applications comprising a carrier medium and A) a biosurfactant selected from rhamnolipids, sophorolipids, glucolipids, cellulose lipids, mannosylerythritol lipids, trehalose lipids or a mixture thereof, B) a bifunctional quaternary ammonium chloride salt of Formula (IV) wherein A is a branched or unbranched C 1 to C 4 alkyl residue X is OY or NHY, wherein Y is H, C 1 -C 3 alkyl residue, C(=O)C(CH 3 )=CH 2 , C(=O)CH=CH 2 , C(=O)CH(CH 3 )CH 3 , or C(=O)CH 2 CH 3 , and wherein the weight ratio of compound A) to compound B) is from 5:1 to 0.2:1, and wherein the total amount of compounds A) and B) is at least 20% by weight, based on the total weight of all compounds of the wax dispersant composition, not including the carrier medium. A) a biosurfactant selected from rhamnolipids, sophorolipids, glucolipids, cellulose lipids, mannosylerythritol lipids, trehalose lipids or a mixture thereof, B) a bifunctional quaternary ammonium chloride salt of Formula (IV) wherein A is a branched or unbranched C 1 to C 4 alkyl residue X is OY or NHY, wherein Y is H, C 1 -C 3 alkyl residue, C(=O)C(CH 3 )=CH 2 , C(=O)CH=CH 2 , C(=O)CH(CH 3 )CH 3 , or C(=O)CH 2 CH 3 , and wherein the weight ratio of compound A) to compound B) is from 5:1 to 0.2:1, and wherein the total amount of compounds A) and B) is at least 20% by weight, based on the total weight of all compounds of the wax dispersant composition, not including the carrier medium.
Plasticating screw having a screw thread, surrounding a screw core in a spiral shape and delimited laterally by a web , , which has flow elements , , extending transversely across the screw thread, having a valley portion and a compression portion rising radially in longitudinal direction, wherein the compression portion forms at least one run-on surface inclined towards the web , , to which is attached in longitudinal direction a plateau for flow formation, characterised in that the flow elements , extend across the breadth of the screw thread, wherein the compression portion has at least two run-on surfaces , inclined towards oppositelysituated web portions , , which form a wedge , aligned against the flow direction, and wherein the flow elements , are provided at least in the melt zone of the plasticating screw.
Sheath of elastomeric material for a prosthesis liner, comprising an inner wall and an outer wall delimiting a sheath body that extends between a proximal end suitable to slip the sheath body onto a stump and a distal end , the sheath being characterized in that it is provided at its distal end with a conformable cavity that is formed in the sheath body , which cavity is open to the outside via an opening provided in the outer wall of the sheath.
A method for transmitting a data frame performed by a first device, the method comprising: • obtaining a transmission pattern of a second device occupying an unlicensed carrier, wherein the second device is all devices occupying the unlicensed carrier; • determining, according to the transmission pattern of the second device, for each device of the second device a ratio of the unlicensed carrier occupied by the device, and selecting some or all time resources occupied by such a device that occupies a highest ratio of the unlicensed carrier to transmit occupied data frames of the first device on the unlicensed carrier, so as to determine a transmission pattern of the first device, wherein the transmission pattern comprises a quantity and positions of occupied data frames and a quantity and positions of idle data frames in one transmission period (S110); and • occupying the unlicensed carrier according to the transmission pattern of the first device, to transmit a data frame of the first device (S120). • obtaining a transmission pattern of a second device occupying an unlicensed carrier, wherein the second device is all devices occupying the unlicensed carrier; • determining, according to the transmission pattern of the second device, for each device of the second device a ratio of the unlicensed carrier occupied by the device, and selecting some or all time resources occupied by such a device that occupies a highest ratio of the unlicensed carrier to transmit occupied data frames of the first device on the unlicensed carrier, so as to determine a transmission pattern of the first device, wherein the transmission pattern comprises a quantity and positions of occupied data frames and a quantity and positions of idle data frames in one transmission period (S110); and • occupying the unlicensed carrier according to the transmission pattern of the first device, to transmit a data frame of the first device (S120).
A method for enriching target single-stranded nucleic acids in a mixed population of single-stranded nucleic acids, said method comprising: a) providing a mixed population of single-stranded nucleic acids containing target single-stranded nucleic acids and non-target single-stranded nucleic acids, wherein the target single-stranded nucleic acids comprise a target sequence at or near their 5' ends; b) contacting the mixed population of single-stranded nucleic acids with a blocking oligonucleotide, wherein the blocking oligonucleotide is capable of hybridising to the target sequence of the target single-stranded nucleic acids; c) contacting the mixed population of nucleic acids of step b) with a single-strand specific 5' exonuclease; and d) incubating the mixed population of nucleic acids of step c) under suitable conditions for the 5' exonuclease to digest the non-target single-stranded nucleic acids, such that the target single-stranded nucleic acids are enriched. a) providing a mixed population of single-stranded nucleic acids containing target single-stranded nucleic acids and non-target single-stranded nucleic acids, wherein the target single-stranded nucleic acids comprise a target sequence at or near their 5' ends; b) contacting the mixed population of single-stranded nucleic acids with a blocking oligonucleotide, wherein the blocking oligonucleotide is capable of hybridising to the target sequence of the target single-stranded nucleic acids; c) contacting the mixed population of nucleic acids of step b) with a single-strand specific 5' exonuclease; and d) incubating the mixed population of nucleic acids of step c) under suitable conditions for the 5' exonuclease to digest the non-target single-stranded nucleic acids, such that the target single-stranded nucleic acids are enriched.