mhurhangee/patent-ind-claim-en huggingface dataset:
A system for bone augmentation, the system comprising: an access cannula configured for penetrating a bone structure, and a guide stylet assembly to be directed through the access cannula , the guide stylet assembly comprising: a stylet incorporating a distal pre-set curve, and an overlying two-piece introducer tube for snug and slidable disposal over the stylet , wherein the stylet and the introducer tube are of sufficient length to extend through and be operable beyond the distal end of the access cannula , wherein the pre-set curve of the stylet is adapted to be held generally straight when the stylet is constrained by the access cannula , and wherein the two-piece introducer tube further comprises a proximal tube length of material and a releasable distal tube length of material. an access cannula configured for penetrating a bone structure, and a guide stylet assembly to be directed through the access cannula , the guide stylet assembly comprising: a stylet incorporating a distal pre-set curve, and an overlying two-piece introducer tube for snug and slidable disposal over the stylet , a stylet incorporating a distal pre-set curve, and an overlying two-piece introducer tube for snug and slidable disposal over the stylet , wherein the stylet and the introducer tube are of sufficient length to extend through and be operable beyond the distal end of the access cannula , wherein the pre-set curve of the stylet is adapted to be held generally straight when the stylet is constrained by the access cannula , and wherein the two-piece introducer tube further comprises a proximal tube length of material and a releasable distal tube length of material.
A method of establishing a session key at a communication device, wherein the session key is to be shared between the communication device and a network application function, NAF, and wherein a service bootstrap key and an associated transaction identifier, previously derived by application of a general bootstrapping architecture, GBA, procedure, are shared between the communication device and a bootstrapping server function, BSF, the method being performed at the communication device and comprising: acquiring a NAF identifier associated with the NAF; deriving a NAF specific key based on the NAF identifier and the service bootstrap key; deriving the session key based on the NAF specific key and one or more key defining parameters, wherein the key defining parameters are accessible by the communication device and by the NAF and are non-accessible by the BSF, wherein the one or more key defining parameters includes conditions of a radio link between the communication device and an access point of the NAF; and transmitting an attach request message and the transaction identifier towards the NAF for establishment of the session key at the NAF. wherein a service bootstrap key and an associated transaction identifier, previously derived by application of a general bootstrapping architecture, GBA, procedure, are shared between the communication device and a bootstrapping server function, BSF, the method being performed at the communication device and comprising: acquiring a NAF identifier associated with the NAF; deriving a NAF specific key based on the NAF identifier and the service bootstrap key; deriving the session key based on the NAF specific key and one or more key defining parameters, wherein the key defining parameters are accessible by the communication device and by the NAF and are non-accessible by the BSF, wherein the one or more key defining parameters includes conditions of a radio link between the communication device and an access point of the NAF; and transmitting an attach request message and the transaction identifier towards the NAF for establishment of the session key at the NAF. acquiring a NAF identifier associated with the NAF; deriving a NAF specific key based on the NAF identifier and the service bootstrap key; deriving the session key based on the NAF specific key and one or more key defining parameters, wherein the key defining parameters are accessible by the communication device and by the NAF and are non-accessible by the BSF, wherein the one or more key defining parameters includes conditions of a radio link between the communication device and an access point of the NAF; and transmitting an attach request message and the transaction identifier towards the NAF for establishment of the session key at the NAF.
A compound for use in a method of treating or preventing a cancer, wherein the cancer is a cancer overexpressing DUOX-2 and/or NOX-5, in a human patient or a non-human mammal, said compound selected from the group consisting of: a) a halide, alkyl sulfonate, aryl sulfonate, phosphate, or nitrate salt of 1,9-dinitrodibenzo[b,d]iodolium; and b) a halide, alkyl sulfonate, aryl sulfonate, phosphate, or nitrate salt of 3,7-dinitro-dibenziodolium. a) a halide, alkyl sulfonate, aryl sulfonate, phosphate, or nitrate salt of 1,9-dinitrodibenzo[b,d]iodolium; and b) a halide, alkyl sulfonate, aryl sulfonate, phosphate, or nitrate salt of 3,7-dinitro-dibenziodolium.
A method of operating an elevator system wherein the method comprises: (A) determining an unbalance between an elevator counterweight and an empty elevator car , (B) determining uncompensation of the elevator system masses caused by a weight difference of ropes hanging on different sides of a traction sheave at different positions of the elevator shaft , (C) obtaining car-load information from a load weighting device before launching a first elevator run, (E) the first elevator run is launched, (F) during launch of the first elevator run motor-load information is obtained from an elevator drive unit based on realized motor current, and (G) calculating calibration data for the car-load information based on a difference between the car-load information and motor-load information by taking into account said determined unbalance and the uncompensation at the position of the launch of the first elevator run, and (H) utilizing the calculated calibration data in the elevator system to correct the car-load information obtained from the load weighting device in connection with subsequent elevator runs. (A) determining an unbalance between an elevator counterweight and an empty elevator car , (B) determining uncompensation of the elevator system masses caused by a weight difference of ropes hanging on different sides of a traction sheave at different positions of the elevator shaft , (C) obtaining car-load information from a load weighting device before launching a first elevator run, (E) the first elevator run is launched, (F) during launch of the first elevator run motor-load information is obtained from an elevator drive unit based on realized motor current, and (G) calculating calibration data for the car-load information based on a difference between the car-load information and motor-load information by taking into account said determined unbalance and the uncompensation at the position of the launch of the first elevator run, and (H) utilizing the calculated calibration data in the elevator system to correct the car-load information obtained from the load weighting device in connection with subsequent elevator runs.
Method for managing interference linked to the use of the same short-range vehicle-to-everything communication channel, called V2X channel, by a user terminal (UE) and by a land motor vehicle ( Veh ), the method comprising, at the vehicle level, the steps of: - identification of the presence of the user terminal inside the vehicle and of a capacity of the user terminal to communicate on the V2X channel; - transmission to the identified user terminal of a request for deactivation on the user terminal of at least one communication function based on the V2X channel; - upon receipt of a refusal to deactivate the function from the user terminal, deactivation on the vehicle of at least one second communication function based on the V2X channel. - identification of the presence of the user terminal inside the vehicle and of a capacity of the user terminal to communicate on the V2X channel; - transmission to the identified user terminal of a request for deactivation on the user terminal of at least one communication function based on the V2X channel; - upon receipt of a refusal to deactivate the function from the user terminal, deactivation on the vehicle of at least one second communication function based on the V2X channel.
A cooking appliance comprising: a main body including a cooking chamber ; a steam generator including a steam heater for generating steam for heating food contained in the cooking chamber ; a lower heater located below a bottom wall of the cooking chamber and configured to generate heat to heat the food; a controller configured to control the steam heater and the lower heater ; a recessed water collection part for collecting water in the bottom wall of the cooking chamber , wherein the controller is configured to operate the steam heater to generate steam when a steam cooking mode is selected, and to turn on the lower heater while steam cooking is performed such that water collected in the recessed water collection part is heated by the lower heater , thereby being evaporated, characterized in that the controller is configured to turn on the lower heater when a predetermined time has passed after the steam cooking starts. a main body including a cooking chamber ; a steam generator including a steam heater for generating steam for heating food contained in the cooking chamber ; a lower heater located below a bottom wall of the cooking chamber and configured to generate heat to heat the food; a controller configured to control the steam heater and the lower heater ; a recessed water collection part for collecting water in the bottom wall of the cooking chamber , wherein the controller is configured to operate the steam heater to generate steam when a steam cooking mode is selected, and to turn on the lower heater while steam cooking is performed such that water collected in the recessed water collection part is heated by the lower heater , thereby being evaporated, characterized in that the controller is configured to turn on the lower heater when a predetermined time has passed after the steam cooking starts.
Control method of an individual displacement of each Abrikosov vortex of a vortex distribution of an element , made up of a superconducting material and a visual indicator layer , called superconducting element, the visual indicator layer being configured to modify the polarization of the incident light , comprising a step for inhomogeneous heating of the superconducting element provided with the Abrikosov vortex in a heating zone so as to displace the Abrikosov vortex toward the heating zone.
A continuous casting method of molten metal injecting molten metal into a casting mold having a casting space of a rectangular cross-sectional shape through a submerged entry nozzle , arranging an electromagnetic coil having an electric current path surrounding the casting space around the casting mold , running an alternating current through this electromagnetic coil , and using said alternating current so that the molten metal near the meniscus in the casting mold receives force in a direction separating it from the casting mold wall while continuously casting the molten metal , forming a discharge flow discharged from discharge ports of molten metal provided at a front end of the submerged entry nozzle , said discharge ports and the discharged flow being oriented upward from the horizontal toward the short sides of the casting mold , and a direction of a center line of said discharge flow is oriented upward from an intersection of the casting mold short sides and meniscus , said continuous casting method of molten metal characterized in that 0.8 times of an angle between an opening direction X of said discharge ports and the horizontal direction is larger than an angle between a direction from the discharge port center C to the intersection A of the casting mold short side and meniscus and the horizontal direction.
A method for providing media data in a multimedia system comprising a server and a client, the method comprising: generating , by the server, delivery characteristics of a moving picture experts group, MPEG, media transport, MMT, asset including at least one media processing unit, MPU, of a MPU group, the header of said MPU unit comprising a quality of service, QoS, information and Bitstream descriptor; and transmitting , by the server, a transmission packet including the generated delivery characteristics, the transmission packet being generated from the MPU group, wherein the header of said unit of the MPU group further comprises a MPU delivery characteristics header flag indicating a presence of the generated delivery characteristics. generating , by the server, delivery characteristics of a moving picture experts group, MPEG, media transport, MMT, asset including at least one media processing unit, MPU, of a MPU group, the header of said MPU unit comprising a quality of service, QoS, information and Bitstream descriptor; and transmitting , by the server, a transmission packet including the generated delivery characteristics, the transmission packet being generated from the MPU group, wherein the header of said unit of the MPU group further comprises a MPU delivery characteristics header flag indicating a presence of the generated delivery characteristics.
A fluorescent probe comprising a compound represented by the following formula (I) or a salt thereof: wherein A is represented by the following formula (III) where A links to the adjacent NH in the formula (I) by forming an amide bond wherein R 1 represents a hydrogen atom, or 1 to 4 substituent group(s), which is/are selected from the group consisting of an alkyl group, an alkoxy group, a halogen atom, an amino group, a mono- or di-substituted amino group, a substituted silyl group, or an acyl group, wherein when the compound has 2 to 4 substituent groups, they are identical or different from each other; R 2 , R 3 , R 4 , R 5 , R 6 and R 7 each independently represents a hydrogen atom, a hydroxy group, an alkyl group or a halogen atom; R 8 and R 9 each independently represents a hydrogen atom or an alkyl group; and X represents a C 1 -C 3 alkylene group, for use in an in-vivo method of detecting pancreatic fluid leakage for identifying pancreatic ducts and confirming leakage of pancreatic fluid during surgeries. where A links to the adjacent NH in the formula (I) by forming an amide bond wherein R 1 represents a hydrogen atom, or 1 to 4 substituent group(s), which is/are selected from the group consisting of an alkyl group, an alkoxy group, a halogen atom, an amino group, a mono- or di-substituted amino group, a substituted silyl group, or an acyl group, wherein when the compound has 2 to 4 substituent groups, they are identical or different from each other; R 2 , R 3 , R 4 , R 5 , R 6 and R 7 each independently represents a hydrogen atom, a hydroxy group, an alkyl group or a halogen atom; R 8 and R 9 each independently represents a hydrogen atom or an alkyl group; and X represents a C 1 -C 3 alkylene group, for use in an in-vivo method of detecting pancreatic fluid leakage for identifying pancreatic ducts and confirming leakage of pancreatic fluid during surgeries.
A system for securing a pivoting bolt to a utility vehicle frame , on which, in a mounted state, a utility vehicle link element is mounted pivotably, comprising a sleeve element for receiving the pivoting bolt , wherein a collar region is provided on the sleeve element , wherein the collar region is configured in such a manner that, in a mounted state, the collar region interacts in a form-fitting manner with a vehicle-frame-side engagement region, in particular a protrusion , in order to avoid twisting of the sleeve element , characterized in that the sleeve element for receiving the pivoting bolt has an elongated hole , in particular an elongated hole with an oval shape.
A computer-implemented method for providing an estimation of breathing signals of a subject, said method comprising: - receiving recorded sounds comprising sounds originating from a chest of a subject and being transmitted by biological tissues of the subject to the ears of the subject, wherein said recorded sounds are previously recorded by at least one sound recording element positioned inside at least one earcup of headphones worn by the subject; - receiving signals from an accelerometer and a gyroscope which have been recorded simultaneously with the recorded sounds; - extracting from the recorded sounds cardiac peaks , corresponding to systolic and diastolic sounds, and residual sounds comprising information generated by respiration of the subject; - detecting heart beats from the cardiac peaks and calculating inter-beat intervals from the heart beats; - extracting a first estimation of a breathing signal from the inter-beat intervals presenting respiratory sinus arrhythmia (RSA); - extracting a second estimation of the breathing signal from residual sounds ; - extracting a third estimation of the breathing signal and motion artifacts from the signals of the accelerometer and the gyroscope ; - calculating a fourth estimation of the breathing signal by combining the first , the second and the third estimation of the breathing signal, and - providing the fourth estimation of the breathing signal for health monitoring. - receiving recorded sounds comprising sounds originating from a chest of a subject and being transmitted by biological tissues of the subject to the ears of the subject, wherein said recorded sounds are previously recorded by at least one sound recording element positioned inside at least one earcup of headphones worn by the subject; - receiving signals from an accelerometer and a gyroscope which have been recorded simultaneously with the recorded sounds; - extracting from the recorded sounds cardiac peaks , corresponding to systolic and diastolic sounds, and residual sounds comprising information generated by respiration of the subject; - detecting heart beats from the cardiac peaks and calculating inter-beat intervals from the heart beats; - extracting a first estimation of a breathing signal from the inter-beat intervals presenting respiratory sinus arrhythmia (RSA); - extracting a second estimation of the breathing signal from residual sounds ; - extracting a third estimation of the breathing signal and motion artifacts from the signals of the accelerometer and the gyroscope ; - calculating a fourth estimation of the breathing signal by combining the first , the second and the third estimation of the breathing signal, and - providing the fourth estimation of the breathing signal for health monitoring.
A camera module comprising: a lens unit including a lens ; a holding member configured to hold an image sensor for capturing an image formed by light; and a fixing member made of cured resin and configured to fix the lens unit and the holding member ; wherein the lens unit further includes a groove at least partially housing the fixing member , and having an opening which faces the holding member , such that when the lens unit and the holding member are fixed by the fixing member , more of the fixing member is exposed to an outside of the lens unit than to an internal space surrounded by the lens unit and the holding member , wherein the lens unit further includes a first wall on the internal space side of the groove and a second wall on an external space side of the groove , and further wherein a length of at least a portion of the second wall in an optical axis (OX) direction is shorter than a length of the first wall in the optical axis (OX) direction, and wherein an edge of the second wall on the holding member side has a tapered shape inclined to separate from the holding member with increased distance from the optical axis (OX). a lens unit including a lens ; a holding member configured to hold an image sensor for capturing an image formed by light; and a fixing member made of cured resin and configured to fix the lens unit and the holding member ; wherein the lens unit further includes wherein the lens unit further includes a first wall on the internal space side of the groove and a second wall on an external space side of the groove , and further wherein a length of at least a portion of the second wall in an optical axis (OX) direction is shorter than a length of the first wall in the optical axis (OX) direction, and wherein an edge of the second wall on the holding member side has a tapered shape inclined to separate from the holding member with increased distance from the optical axis (OX).
A heat-shrinkable multilayer film for a bag, comprising: an inner surface layer that contacts contents; an adhesive layer; and an intermediate layer adjacent to the adhesive layer, the heat-shrinkable multilayer film being obtained by laminating the inner surface layer, the adhesive layer, and the intermediate layer in this order from an inner side to an outer side of the heat-shrinkable multilayer film, wherein the inner surface layer is consisting essentially of an ethylene-vinyl acetate copolymer having a content of a vinyl acetate monomer unit of from 15 wt % to 20 wt %; the adhesive layer comprises an acid-modified ethylene-based copolymer; and the intermediate layer comprises a polyamide-based resin; and wherein a thermal shrinkage rate in a machine direction (MD) and a thermal shrinkage rate in a transverse direction (TD) of the heat-shrinkable multilayer film at 80°C are each from 30% to 45%. an inner surface layer that contacts contents; an adhesive layer; and an intermediate layer adjacent to the adhesive layer, the heat-shrinkable multilayer film being obtained by laminating the inner surface layer, the adhesive layer, and the intermediate layer in this order from an inner side to an outer side of the heat-shrinkable multilayer film, wherein the inner surface layer is consisting essentially of an ethylene-vinyl acetate copolymer having a content of a vinyl acetate monomer unit of from 15 wt % to 20 wt %; the adhesive layer comprises an acid-modified ethylene-based copolymer; and the intermediate layer comprises a polyamide-based resin; and wherein a thermal shrinkage rate in a machine direction (MD) and a thermal shrinkage rate in a transverse direction (TD) of the heat-shrinkable multilayer film at 80°C are each from 30% to 45%.
A method of predicting the sensitivity to treatment with an FGF-18 (Fibroblast Growth factor 18) compound in a subject having a cartilage disorder, the method comprising the steps of: a) Determining, from a sample from said subject, the quantity of at least one of the biomarkers selected from the group consisting of CTX-II (C-terminal telopeptide of type II collagen) and/or ProC2 (neo-epitope of Collagen type II) b) Predicting from the result of step a) high, intermediate, low or no sensitivity of said subject to treatment with an FGF-18 compound, wherein an FGF-18 compound is a protein maintaining at least one biological activity of the human FGF-18 protein. a) Determining, from a sample from said subject, the quantity of at least one of the biomarkers selected from the group consisting of CTX-II (C-terminal telopeptide of type II collagen) and/or ProC2 (neo-epitope of Collagen type II) b) Predicting from the result of step a) high, intermediate, low or no sensitivity of said subject to treatment with an FGF-18 compound,