mhurhangee/patent-ind-claim-en huggingface dataset:
A method comprising: computing position information from a global navigation satellite system ; computing altitude based on retrieved information from a vertical position sensor and a terrain database ; computing a horizontal protection level associated with the position information; estimating an error for the terrain database based on the altitude, position information, and the horizontal protection level; and calculating a new protection level based on the position information and the altitude accounting for the estimated error for the terrain database . computing position information from a global navigation satellite system ; computing altitude based on retrieved information from a vertical position sensor and a terrain database ; computing a horizontal protection level associated with the position information; estimating an error for the terrain database based on the altitude, position information, and the horizontal protection level; and calculating a new protection level based on the position information and the altitude accounting for the estimated error for the terrain database .
A device having a refrigerant cycle, the device comprising: a compressor configured to compress a refrigerant; a condenser configured to condense the refrigerant compressed by the compressor; an expander configured to expand the refrigerant condensed by the condenser an evaporator configured to evaporate the refrigerant expanded by the expander; characterised by further comprising: a separation mechanism connected to an outlet pipe of the evaporator to separate a liquid refrigerant and a gaseous refrigerant from the refrigerant discharged from the evaporator; a bypass pipe configured to guide the gaseous refrigerant separated from the liquid refrigerant by the separation mechanism to the compressor; a first pipe connected to the separation mechanism and through which the liquid refrigerant discharged from the separation mechanism flows; an accumulator connected to the first pipe to separate the gaseous refrigerant which is not separated from the liquid refrigerant by the separation mechanism, from the liquid refrigerant and discharge the separated gaseous refrigerant; and a second pipe configured to guide the gaseous refrigerant discharged from the accumulator to the compressor. a compressor configured to compress a refrigerant; a condenser configured to condense the refrigerant compressed by the compressor; an expander configured to expand the refrigerant condensed by the condenser an evaporator configured to evaporate the refrigerant expanded by the expander; characterised by further comprising: a separation mechanism connected to an outlet pipe of the evaporator to separate a liquid refrigerant and a gaseous refrigerant from the refrigerant discharged from the evaporator; a bypass pipe configured to guide the gaseous refrigerant separated from the liquid refrigerant by the separation mechanism to the compressor; a first pipe connected to the separation mechanism and through which the liquid refrigerant discharged from the separation mechanism flows; an accumulator connected to the first pipe to separate the gaseous refrigerant which is not separated from the liquid refrigerant by the separation mechanism, from the liquid refrigerant and discharge the separated gaseous refrigerant; and a second pipe configured to guide the gaseous refrigerant discharged from the accumulator to the compressor. a separation mechanism connected to an outlet pipe of the evaporator to separate a liquid refrigerant and a gaseous refrigerant from the refrigerant discharged from the evaporator; a bypass pipe configured to guide the gaseous refrigerant separated from the liquid refrigerant by the separation mechanism to the compressor; a first pipe connected to the separation mechanism and through which the liquid refrigerant discharged from the separation mechanism flows; an accumulator connected to the first pipe to separate the gaseous refrigerant which is not separated from the liquid refrigerant by the separation mechanism, from the liquid refrigerant and discharge the separated gaseous refrigerant; and a second pipe configured to guide the gaseous refrigerant discharged from the accumulator to the compressor.
A method for carrier aggregation in beamformed wireless communications, the method comprising: receiving , at a user equipment, UE, and from a base station, a component carrier grouping indication that indicates that a plurality of component carriers are partitioned into one or more groups with at least one of the one or more groups comprising multiple component carriers, each component carrier within a group using a same transmit beam, the component carrier grouping indication further mapping a group identifier for at least one of the one or more groups to a beam identifier that identifies the corresponding transmit beam; and receiving one or more transmissions from the base station relating to UE communication on at least one of the one or more groups using one of the transmit beams corresponding to the at least one of the one or more groups. receiving , at a user equipment, UE, and from a base station, a component carrier grouping indication that indicates that a plurality of component carriers are partitioned into one or more groups with at least one of the one or more groups comprising multiple component carriers, each component carrier within a group using a same transmit beam, the component carrier grouping indication further mapping a group identifier for at least one of the one or more groups to a beam identifier that identifies the corresponding transmit beam; and receiving one or more transmissions from the base station relating to UE communication on at least one of the one or more groups using one of the transmit beams corresponding to the at least one of the one or more groups.
A method of forming an integrated circuit, comprising: forming a first level sacrificial structure on a first level over a substrate ; forming a first set of spacers along sidewalls of the first level sacrificial structure, wherein the first set of spacers are formed of a conductor; forming a first level filler material at sides of spacers of the first set of spacers, the first level filler material and the first level sacrificial structure defining a first level spacer volume therebetween; forming a second level sacrificial structure on a second level above the first level sacrificial structure and the first level spacer volume, the second level sacrificial structure crossing a width of the first level sacrificial structure; forming a second set of spacers along sidewalls of the second level sacrificial structure; forming a second level filler material at sides of spacers of the second set of spacers; selectively removing the second set of spacers to expose portions of the first level spacer volume; selectively removing the exposed portions of the first level spacer volume to form openings on the first level; filling the openings with a phase change material ; forming a top electrode on a third level over the second level, the top electrode extending directly over one or more of the filled openings on the first level, providing a bottom electrode underlying the first set of spacers, wherein the first set of spacers electrically interconnect the phase change material in the openings to the bottom electrode. forming a first level sacrificial structure on a first level over a substrate ; forming a first set of spacers along sidewalls of the first level sacrificial structure, wherein the first set of spacers are formed of a conductor; forming a first level filler material at sides of spacers of the first set of spacers, the first level filler material and the first level sacrificial structure defining a first level spacer volume therebetween; forming a second level sacrificial structure on a second level above the first level sacrificial structure and the first level spacer volume, the second level sacrificial structure crossing a width of the first level sacrificial structure; forming a second set of spacers along sidewalls of the second level sacrificial structure; forming a second level filler material at sides of spacers of the second set of spacers; selectively removing the second set of spacers to expose portions of the first level spacer volume; selectively removing the exposed portions of the first level spacer volume to form openings on the first level; filling the openings with a phase change material ; forming a top electrode on a third level over the second level, the top electrode extending directly over one or more of the filled openings on the first level, providing a bottom electrode underlying the first set of spacers, wherein the first set of spacers electrically interconnect the phase change material in the openings to the bottom electrode.
A curved intramedullary nail , in particular a distraction intramedullary nail or a contraction intramedullary nail, for connecting two parts of a bone, in particular for bone extension, for bone shortening or for bridging a bone gap, said curved intramedullary nail comprising a curvature corresponding to the physiological curvature of the bone; a tube for fastening to the first bone part; a rod which is arranged within the tube and which has a fastening section projecting from the tube for fastening to the second bone part; and a setting mechanism which is arranged within the tube and which can be actuated by repeated relative rotational movements between the rod and the tube , wherein the rod can be moved out of the tube or can be moved into the tube by actuating the setting mechanism , and wherein a decoupling is provided between the rod and at least one component of the setting mechanism and prevents the transmission of curvature-induced bending moments to the component. a tube for fastening to the first bone part; a rod which is arranged within the tube and which has a fastening section projecting from the tube for fastening to the second bone part; and a setting mechanism which is arranged within the tube and which can be actuated by repeated relative rotational movements between the rod and the tube , wherein the rod can be moved out of the tube or can be moved into the tube by actuating the setting mechanism , and wherein a decoupling is provided between the rod and at least one component of the setting mechanism and prevents the transmission of curvature-induced bending moments to the component.
A method for reporting a power headroom in a wireless communication system, the method comprising: receiving, by a wireless device, a first uplink, UL, grant in a first serving cell, the first UL grant scheduling a transmission of a first physical uplink shared channel, PUSCH, for reporting a power headroom; receiving, by the wireless device, initial downlink control information, DCI, in a second serving cell, the initial DCI including a second UL grant for scheduling a transmission of a second PUSCH, the initial DCI indicating a triggering of a transmission of the second PUSCH by a triggering DCI; calculating, by the wireless device, a first power headroom for the first serving cell and a second power headroom for the second serving cell; and transmitting, by the wireless device, the first and second power headrooms on the first PUSCH in a subframe n, wherein, when the triggering DCI is not received in a subframe n-q or earlier, the second power headroom is calculated by assuming that the second PUSCH is not transmitted, where n is a natural number and q is a natural number satisfying q>=1. receiving, by a wireless device, a first uplink, UL, grant in a first serving cell, the first UL grant scheduling a transmission of a first physical uplink shared channel, PUSCH, for reporting a power headroom; receiving, by the wireless device, initial downlink control information, DCI, in a second serving cell, the initial DCI including a second UL grant for scheduling a transmission of a second PUSCH, the initial DCI indicating a triggering of a transmission of the second PUSCH by a triggering DCI; calculating, by the wireless device, a first power headroom for the first serving cell and a second power headroom for the second serving cell; and transmitting, by the wireless device, the first and second power headrooms on the first PUSCH in a subframe n, wherein, when the triggering DCI is not received in a subframe n-q or earlier, the second power headroom is calculated by assuming that the second PUSCH is not transmitted, where n is a natural number and q is a natural number satisfying q>=1.
A compound which is a selective PDE2 inhibitor for use in the treatment or prevention of ventricular tachycardia in a human.
A prosthetic heart valve implantation system, comprising: a balloon-expandable prosthetic heart valve having a compressed state and an expanded state, and a construction that has a non-uniform expansion resistance profile along its axial length; and an expansion member disposed within the prosthetic heart valve in its compressed state and capable of applying radially outward forces to the heart valve to convert it to its expanded state, characterized by the expansion member being configured to apply non-uniform radially outward forces to the heart valve along its axial length. a balloon-expandable prosthetic heart valve having a compressed state and an expanded state, and a construction that has a non-uniform expansion resistance profile along its axial length; and an expansion member disposed within the prosthetic heart valve in its compressed state and capable of applying radially outward forces to the heart valve to convert it to its expanded state, characterized by the expansion member being configured to apply non-uniform radially outward forces to the heart valve along its axial length.
A biometric authentication, identification, and detection method implemented by a mobile terminal device, comprising: obtaining (S110) sensor data of the mobile terminal device when the mobile terminal device performs biometric authentication and identification; and determining (S120) whether an attack occurs based on the sensor data and an attack determination model; wherein the attack determination model is obtained based on training with sensor training data, wherein there are multiple attack determination models, and each attack determination model corresponds to a different mobile terminal device model; and the determining (S120) whether an attack occurs based on the sensor data and an attack determination model comprises: determining whether an attack occurs based on the sensor data and the attack determination model corresponding to a model of the mobile terminal device. obtaining (S110) sensor data of the mobile terminal device when the mobile terminal device performs biometric authentication and identification; and determining (S120) whether an attack occurs based on the sensor data and an attack determination model; wherein the attack determination model is obtained based on training with sensor training data, wherein there are multiple attack determination models, and each attack determination model corresponds to a different mobile terminal device model; and the determining (S120) whether an attack occurs based on the sensor data and an attack determination model comprises: determining whether an attack occurs based on the sensor data and the attack determination model corresponding to a model of the mobile terminal device.
A method for manufacturing a luggage formed by composite material, comprising the steps of: A) using a vacuum molding method to make a thermoplastic sheet into a shell , said shell comprising an outer surface , an inner surface , a receiving area surrounded by said inner surface , and a corner ; B) providing a heating mold , said heating mold comprising an inner cavity mold area and then placing said shell in said inner cavity mold area to correspond said outer surface of said shell to an inner wall surface of said inner cavity mold area ; C) providing a thermosetting carbon fiber plastic layer , said thermosetting carbon fiber plastic layer comprising an outer surface and an inner surface , and then arranging the outer surface of said thermosetting carbon fiber plastic layer on the inner surface of said shell ; D) providing a reinforcing layer and setting said reinforcing layer on the inner surface of said thermosetting carbon fiber plastic layer in a way that said reinforcing layer is only located at the location corresponding to said corner of said shell ; and E) placing an airbag in said receiving area of said shell and inflate said airbag to support the inner surface of said thermosetting carbon fiber plastic layer and said reinforcing layer , and at the same time heating said heating mold to heat said shell , said thermosetting carbon fiber plastic layer and said reinforcing layer in said inner cavity mold area , so that said shell , said thermosetting carbon fiber plastic layer and said reinforcing layer are combined with each other. A) using a vacuum molding method to make a thermoplastic sheet into a shell , said shell comprising an outer surface , an inner surface , a receiving area surrounded by said inner surface , and a corner ; B) providing a heating mold , said heating mold comprising an inner cavity mold area and then placing said shell in said inner cavity mold area to correspond said outer surface of said shell to an inner wall surface of said inner cavity mold area ; C) providing a thermosetting carbon fiber plastic layer , said thermosetting carbon fiber plastic layer comprising an outer surface and an inner surface , and then arranging the outer surface of said thermosetting carbon fiber plastic layer on the inner surface of said shell ; D) providing a reinforcing layer and setting said reinforcing layer on the inner surface of said thermosetting carbon fiber plastic layer in a way that said reinforcing layer is only located at the location corresponding to said corner of said shell ; and E) placing an airbag in said receiving area of said shell and inflate said airbag to support the inner surface of said thermosetting carbon fiber plastic layer and said reinforcing layer , and at the same time heating said heating mold to heat said shell , said thermosetting carbon fiber plastic layer and said reinforcing layer in said inner cavity mold area , so that said shell , said thermosetting carbon fiber plastic layer and said reinforcing layer are combined with each other.
A method to reduce interference, the method comprising: grouping users into a first and second group of access terminals according to predetermined criteria, wherein the second group has communication characteristic different from that of the first group; storing samples of data frames transmitted asynchronously from a plurality of access terminals wherein user frame offsets are staggered with respect to each other; demodulating and attempting to decode a first frame of data from the stored samples, the first frame of data sent from the first group of access terminals; if the first frame of data is correctly decoded, subtracting the decoded first frame from the stored samples; demodulating and attempting to decode a second frame of data from the stored samples, the second frame of data sent from the second group of access terminals; and if the second frame of data is correctly decoded, subtracting the decoded second frame from the stored samples and attempting to decode a frame of users on a previous frame offset that failed to previously decode. grouping users into a first and second group of access terminals according to predetermined criteria, wherein the second group has communication characteristic different from that of the first group; storing samples of data frames transmitted asynchronously from a plurality of access terminals wherein user frame offsets are staggered with respect to each other; demodulating and attempting to decode a first frame of data from the stored samples, the first frame of data sent from the first group of access terminals; if the first frame of data is correctly decoded, subtracting the decoded first frame from the stored samples; demodulating and attempting to decode a second frame of data from the stored samples, the second frame of data sent from the second group of access terminals; and if the second frame of data is correctly decoded, subtracting the decoded second frame from the stored samples and attempting to decode a frame of users on a previous frame offset that failed to previously decode.
A geared motor, having a gear unit, an electric motor and an adapter, wherein the adapter is arranged between the electric motor and the gear unit, wherein the adapter has an adapter shaft , wherein the adapter shaft is at least partially inserted into an input shaft of the gear unit, wherein the adapter shaft is connected non-rotatably to the input shaft of the gear unit by means of a bellows , wherein a sealing ring is arranged between the adapter shaft and the input shaft , in particular wherein the input shaft is embodied in one piece, in particular wherein the adapter shaft is embodied in one piece, characterised in that the sealing ring contacts - in the axial direction at the front, the input shaft , - counter to the axial direction, the adapter shaft , - directed radially outwards, the input shaft , and - directed radially inwards, the adapter shaft . wherein the adapter has an adapter shaft , wherein the adapter shaft is at least partially inserted into an input shaft of the gear unit, wherein the adapter shaft is connected non-rotatably to the input shaft of the gear unit by means of a bellows , wherein a sealing ring is arranged between the adapter shaft and the input shaft , in particular wherein the input shaft is embodied in one piece, in particular wherein the adapter shaft is embodied in one piece, characterised in that the sealing ring contacts - in the axial direction at the front, the input shaft , - counter to the axial direction, the adapter shaft , - directed radially outwards, the input shaft , and - directed radially inwards, the adapter shaft . - in the axial direction at the front, the input shaft , - counter to the axial direction, the adapter shaft , - directed radially outwards, the input shaft , and - directed radially inwards, the adapter shaft .
An ultrasonic welding method comprising: pressing an ultrasonic welding stack against a first workpiece (W1) of a first pair of workpieces such that the first workpiece comes into contact with a second workpiece (W2) of the first pair of workpieces in response to the pressing; initiating a weld phase by outputting energy from the ultrasonic welding stack to the first workpiece of the first pair of workpieces; monitoring, with at least one sensor, a weld force rate of change; determining whether the weld force rate of change has reached a predetermined level; and based on determining that the weld force rate of change has reached the predetermined level, ending the weld phase. pressing an ultrasonic welding stack against a first workpiece (W1) of a first pair of workpieces such that the first workpiece comes into contact with a second workpiece (W2) of the first pair of workpieces in response to the pressing; initiating a weld phase by outputting energy from the ultrasonic welding stack to the first workpiece of the first pair of workpieces; monitoring, with at least one sensor, a weld force rate of change; determining whether the weld force rate of change has reached a predetermined level; and based on determining that the weld force rate of change has reached the predetermined level, ending the weld phase.